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Rehabilitación cardíaca con ejercicios para la cardiopatía coronaria

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Referencias

Andersen 1981 {published data only}

Andersen GS, Christiansen P, Madsen S, Schmidt G. The value of regular, supervised physical training after acute myocardial infarction [Vaerdien af regelmaessig og overvåget fysisk traening efter akut myokardieinfarkt]. Ugeskrift for Laeger 1981;143(45):2952-5. CENTRAL

Aronov 2010 {published data only}

Aronov DM, Krasnitskij VB, Bubnova MG. Efficacy of physical training and analysis of lipid-lowering therapy in patients with ischemic heart disease after acute coronary incidents. Rational Pharmacotherapy Cardiology2010;6(1):9-19. CENTRAL

Aronov 2019 {published data only (unpublished sought but not used)}

Aronov D, Bubnova M, Iosseliani D, Orekhov A. Clinical efficacy of a medical centre- and home-based cardiac rehabilitation program for patients with coronary heart disease after coronary bypass graft surgery. Archives of Medical Research 2019;50(3):122-32. CENTRAL

Bäck 2008 {published data only}

Bäck M, Wennerblom B, Wittboldt S, Cider A. Effects of high frequency exercise in patients before and after elective percutaneous coronary intervention. European Journal of Cardiovascular Nursing 2008;7(4):307-13. CENTRAL

Belardinelli 2001 {published data only}

Belardinelli R, Paolini I, Cianci G, Piva R, Georgiou D, Purcaro A. Exercise training intervention after coronary angioplasty: the ETICA Trial. Journal of the American College of Cardiology 2001;37(7):1891-900. CENTRAL

Bell 1998 {unpublished data only}

Bell JM. A comparison of a multi-disciplinary home based cardiac rehabilitation programme with comprehensive conventional rehabilitation in post-myocardial infarction patients [PhD Thesis]. London (UK): University of London, 1998. CENTRAL

Bengtsson 1983 {published data only}

Bengtsson K. Rehabilitation after myocardial infarction. Scandinavian Journal of Rehabilitation Medicine 1983;15(1):1-9. CENTRAL

Bertie 1992 {published data only}

Bertie J, King A, Reed N, Marshall AJ, Ricketts C. Benefits and weaknesses of a cardiac rehabilitation programme. Journal of the Royal College of Physicians of London 1992;26(2):147-51. CENTRAL

Bethell 1990 {published and unpublished data}

Bethell HJ, Mullee MA. A controlled trial of community based coronary rehabilitation. British Heart Journal 1990;64(6):370-5. CENTRAL

Bettencourt 2005a {published data only}

Bettencourt N, Dias C, Mateus P, Sampaio F, Santos L, Adao L, et al. Impact of cardiac rehabilitation on quality of life and depression after acute coronary syndrome [Impacto da reabilitacao cardiaca na qualidade-de-vida e sintomatologia depressiva apos sindroma coronaria aguda]. Revista Portuguesa de Cardiologia 2005;24:687-96. CENTRAL

Briffa 2005 {published data only}

Briffa TG, Eckermann SD, Griffiths AD, Harris PJ, Heath MR, Freedman SB, et al. Cost-effectiveness of rehabilitation after an acute coronary event: a randomised controlled trial. Medical Journal of Australia 2005;183:450-5. CENTRAL

Bubnova 2019 {published data only}

Bubnova MG, Aronov DM. Clinical effects of a one-year cardiac rehabilitation program using physical training after myocardial infarction in patients of working age with different rehabilitation potentials. Cardiovascular Therapy and Prevention 2019;18(5):27-37. CENTRAL

Bubnova 2020 {published and unpublished data}

Bubnova MG, Aronov DM. Physical rehabilitation after acute myocardial infarction: focus on body weight. Russian Journal of Cardiology 2020;25(5):3867. CENTRAL

Byrkjeland 2015 {published data only (unpublished sought but not used)}

Byrkjeland R, Njerve IU, Anderssen S, Arnesen H, Seljeflot I, Solheim S. Effects of exercise training on HbA1c and VO2peak in patients with type 2 diabetes and coronary artery disease: a randomised clinical trial. Diabetes & Vascular Disease Research 2015;12(5):325-33. CENTRAL
Byrkjeland R, Stensaeth K, Anderssen S, Njerve IU, Arnesen H, Seljeflot I, et al. Effects of exercise training on carotidintima‑media thickness in patients with type 2 diabetes and coronary artery disease. Influence of carotid plaques. Cardiovascular Diabetology 2016;15:13. CENTRAL
Njerve IU, Byrkjeland R, Arnesen H, Akra S, Solheim S, Seljeflot I. Effects of 12 months exercise intervention on adipose tissue expression of chemokines in patients with type 2 diabetes and stable coronary artery disease: a substudy of a randomized controlled trial (RCT). Journal of Thrombosis and Haemostasis : JTH 2015;13:524. CENTRAL
Njerve IU, Byrkjeland R, Arnesen H, Solheim S, Seljeflot I. Effects of long-term exercise training on adipose tissue expression of fractalkine and MCP-1 in patients with type 2 diabetes and stable coronary artery disease: a substudy of a randomized controlled trial. Diabetes, Metabolic Syndrome and Obesity: Targets and Therapy 2016;9:55-62. CENTRAL
Zaidi H, Byrkjeland R, Njerve IU, Akra S, Solheim S, Arnesen H, et al. Effects of exercise training on markers of adipose tissue remodeling in patients with coronary artery disease and type 2 diabetes mellitus: sub study of the randomized controlled EXCADI trial. Diabetology & Metabolic Syndrome 2019;11:109. CENTRAL

Campo 2020 {published data only}

Campo G, Tonet E, Chiaranda G, Sella G, Maietti E, Bugani G, et al. Exercise intervention improves quality of life in older adults after myocardial infarction: randomised clinical trial. Heart 2020;106:1658-64. CENTRAL
Tonet E, Maietti E, Chiaranda G, Vitali F, Serenelli M, Bugani G, et al. Physical activity intervention for elderly patients with reduced physical performance after acute coronary syndrome (HULK study): rationale and design of a randomized clinical trial. BMC Cardiovascular Disorders 2018;18(1):98. CENTRAL

Carlsson 1998 {published data only}

Carlsson R. Serum cholesterol, lifestyle, working capacity and quality of life in patients with coronary artery disease. Experiences from a hospital-based secondary prevention programme. Scandinavian Cardiovascular Journal 1998;50 Suppl:1-20. CENTRAL

Carson 1982 {published data only}

Carson P, Phillips R, Lloyd M, Tucker H, Neophytou M, Buch NJ, et al. Exercise after myocardial infarction: a controlled trial. Journal of the Royal College of Physicians of London 1982;16(3):147-51. CENTRAL

Chaves 2019 {published data only}

Chaves GS, Ghisi GL, Britto RR, Grace SL. Maintenance of gains, morbidity, and mortality at 1 year following cardiac rehabilitation in a middle-income country: a wait-list control crossover trial. Journal of the American Heart Association 2019;8(4):e011228. CENTRAL
Chaves GS, Ghisi GL, Grace SL, Oh P, Ribeiro AL, Britto RR. Corrigendum to ‘‘Effects of comprehensive cardiacrehabilitation on functional capacity andcardiovascular risk factors in Brazilians assisted bypublic health care: protocol for a randomizedcontrolled trial’’. Brazilian Journal of Physical Therapy2018;22(3):254. CENTRAL
Chaves GS, Ghisi GL, Grace SL, Oh P, Ribeiro AL, Britto RR. Effects of comprehensive cardiac rehabilitationon functional capacity and cardiovascular risk factors in Brazilians assisted by public health care: protocol for a randomized controlled trial. Brazilian Journal of Physical Therapy 2016;20(6):592-600. CENTRAL
Chaves GS, Ghisi GL, Grace SL, Oh P, Ribeiro AL, Britto RR. Effects of comprehensive cardiac rehabilitation on functional capacity in a middle-income country: a randomised controlled trial. Heart 2019;105:406-13. CENTRAL
Ghisi GL, Chaves GS, Ribeiro AL, Oh P, Britto RR, Grace SL. Comprehensive cardiac rehabilitation effectiveness in a middle-income setting. A randomized controlled trial. Journal of Cardiopulmonary Rehabilitation 2020;40(6):399-406. CENTRAL

DeBusk 1994 {published data only}

DeBusk RF, Miller NH, Superko HR, Dennis CA, Thomas RJ, Lew HT, et al. A case management system for coronary risk factor modification following acute myocardial infarction. Annals of Internal Medicine 1994;120(9):721-9. CENTRAL
Taylor CB, Miller NH, Smith PM, DeBusk RF. The effect of a home-based, case-managed, multifactorial risk-reduction program on reducing psychological distress in patients with cardiovascular disease. Journal of Cardiopulmonary Rehabilitation 1997;17(3):157-62. CENTRAL

Dorje 2019 {published data only}

ChiCTR-INR-16009598. SMARTphone-based Home Cardiac Rehabilitation and Secondary Prevention in Chinese Coronary Heart Disease Patients (SMART-CR/SP): a randomized controlled trial. www.chictr.org.cn/hvshowproject.aspx?id=12793 (date of registration 25 October 2016). CENTRAL
Dorje T, Zhao G, Scheer A, Tsokey L, Wang J, Chen Y, et al. SMARTphone and social media-based Cardiac Rehabilitation and Secondary Prevention (SMART-CR/SP) for patients with coronary heart disease in China: a randomised controlled trial protocol. BMJ Open 2018;8:e021908. CENTRAL
Dorje T, Zhao G, Tso K, Wang J, Chen Y, Tsokey L, et al. Correction to Lancet Digital Health 2019; published online 10 Oct 2019. Lancet Digital Health2019. CENTRAL [DOI: 10.1016/S2589-7500(19)30162-1]
Dorje T, Zhao G, Tso K, Wang J, Chen Y, Tsokey L, et al. Smartphone and social media-based cardiac rehabilitation and secondary prevention in China (SMART-CR/SP): a parallel-group, single-blind, randomised controlled trial. Lancet 2019;1(7):e363-74. CENTRAL

Dugmore 1999 {published data only}

Dugmore LD, Tipson RJ, Phillips MH, Flint EJ, Stentiford NH, Bone MF, et al. Changes in cardiorespiratory fitness, psychological wellbeing, quality of life, and vocational status following a 12 month cardiac exercise rehabilitation programme. Heart 1999;81(4):359-66. CENTRAL

Engblom 1996 {published data only}

Engblom E, Hamalainen H, Lind J, Mattlar CE, Ollila S, Kallio V, et al. Quality of life during rehabilitation after coronary bypass surgery. Quality of Life Research 1992;1:167-75. CENTRAL
Engblom E, Hietanen EK, Hamalainen H, Kallio V, Inberg M, Knuts L-R. Exercise habits and physical performance during comprehensive rehabilitation after coronary artery bypass surgery. European Heart Journal 1992;13:1053-9. CENTRAL
Engblom E, Korpilahti K, Hamalainen H, Puukka P, Ronnemaa T. Effects of five years of cardiac rehabilitation after coronary artery bypass grafting on coronary risk factors. American Journal of Cardiology 1996;78:1428-31. CENTRAL
Engblom E, Korpilahti K, Hamalainen H, Ronnemaa T, Puukka P. Quality of life and return to work 5 years after coronary artery bypass surgery. Journal of Cardiopulmonary Rehabilitation 1997;17:29-36. CENTRAL
Engblom E, Rönnemaa T, Hämäläinen H, Kallio V, Vänttinen, Knuts LR. Coronary heart disease risk factors before and after bypass surgery: results of a controlled trial on multifactorial rehabilitation. European Heart Journal 1992;13(2):232-7. CENTRAL

Erdman 1986 {published data only}

Erdman RA, Duivenvoorden HJ, Verhage F, Kazemier M, Hugenholtz PG. Predictability of beneficial effects in cardiac rehabilitation: a randomized clinical trial of psychosocial variables. Journal of Cardiopulmonary Rehabilitation 1986;6(6):206-13. CENTRAL

Fletcher 1994 {published data only}

Fletcher BJ, Dunbar SB, Felner JM, Jensen BE, Almon L, Cotsonis G, et al. Exercise testing and training in physically disabled men with clinical evidence of coronary artery disease. American Journal of Cardiology 1994;73(2):170-4. CENTRAL

Fridlund 1991 {published data only}

Fridlund B, Högstedt B, Lidell E, Larsson PA. Recovery after myocardial infarction: effects of a caring rehabilitation programme. Scandinavian Journal of Caring Sciences 1991;5(1):23-32. CENTRAL
Fridlund B, Lidell E, Larsson PA. A caring perspective on rehabilitation after myocardial infarction: a theoretical framework and a suggestion for a rehabilitation programme. Scandinavian Journal of Caring Sciences 1989;3(3):129-35. CENTRAL
Fridlund B, Pihilgren C, Wannestig LB. A supportive - educative caring rehabilitation programme: improvements of physical health after myocardial infarction. Journal of Clinical Nursing 1992;1:141-6. CENTRAL
Lidell E, Fridlund B. Long-term effects of a comprehensive rehabilitation programme after myocardial infarction. Scandinavian Journal of Caring Sciences 1996;10:67-74. CENTRAL

Giallauria 2008 {published data only}

Giallauria F, Cirillo P, Lucci R, Pacileo M, De Lorenzo A, D'Agostino M, et al. Left ventricular remodelling in patients with moderate systolic dysfunction after myocardial infarction: favourable effects of exercise training and predictive role of N-terminal pro-brain natriuretic peptide. European Journal of Cardiovascular Prevention and Rehabilitation 2008;15(1):113-8. CENTRAL

Hambrecht 2004 {published data only}

Hambrecht R, Walther C, Mobius-Winkler S, Gielen S, Linke A, Conradi K, et al. Percutaneous coronary angioplasty compared with exercise training in patients with stable coronary artery disease: a randomized trial. Circulation 2004;109:1371-8. CENTRAL
Walther C, Mobius-Winkler S, Linke A, Bruegel M, Thiery J, Schuler G, et al. Regular exercise training compared with percutaneous intervention leads to a reduction of inflammatory markers and cardiovascular events in patients with coronary artery disease. European Journal of Cardiovascular Prevention and Rehabilitation 2008;15:107-12. CENTRAL

Haskell 1994 {published data only}

Haskell WL, Alderman EL, Fair JM, Maron DJ, Mackey SF, Superko HR, et al. Effects of intensive multiple risk factor reduction on coronary atherosclerosis and clinical cardiac events in men and women with coronary artery disease: the Stanford Coronary Risk Intervention Project (SCRIP). Circulation 1994;89(3):975-90. CENTRAL

Hassan 2016 {published data only}

Hassan AM, Nahas NG. Efficacy of cardiac rehabilitation after percutaneous coronary intervention. International Journal of PharmTech Research 2016;9(4):134-41. CENTRAL

Hautala 2017 {published and unpublished data}

Hautala AJ, Kiviniemi AM, Makikallio T, Koistinen P, Ryynanen OP, Martikainen JA, et al. Economic evaluation of exercise-based cardiac rehabilitation in patients with a recent acute coronary syndrome. Scandinavian Journal of Medicine & Science in Sports 2017;27(11):1395-403. CENTRAL
NCT01916525. Effectiveness of exercise cardiac rehabilitation (EFEX-CARE). clinicaltrials.gov/NCT01916525 (first posted 5 August 2013). CENTRAL

He 2020 {published data only (unpublished sought but not used)}

He C, Zhu C, Zhu Y, Zou Z, Wang S, Zhai C, Hu H. Effect of exercise-based cardiac rehabilitation on clinical outcomes in patients with myocardial infarction in the absence of obstructive coronary artery disease (MINOCA). International Journal of Cardiology 2020;315:9-14. CENTRAL

Heller 1993 {published data only}

Heller RF, Knapp JC, Valenti LA, Dobson AJ. Secondary prevention after acute myocardial infarction. American Journal of Cardiology 1993;72(11):759-62. CENTRAL

Higgins 2001 {published data only}

Higgins HC, Hayes RL, McKenna KT. Rehabilitation outcomes following percutaneous coronary interventions (PCI). Patient Education & Counseling 2001;43:219-30. CENTRAL

Hofman‐Bang 1999 {published data only}

Hofman-Bang C, Lisspers J, Nordlander R, Nygren Å, Sundin Ö, Öhman A, et al. Two-year results of a controlled study of residential rehabilitation for patients treated with percutaneous transluminal coronary angioplasty. A randomized study of a multifactorial programme. European Heart Journal 1999;20(20):1465-74. CENTRAL
Lisspers J, Sundin Ö, Öhman A, Hofman-Bang C, Rydén L, Nygren Å. Long-term effects of lifestyle behavior change in coronary artery disease: effects on recurrent coronary events after percutaneous coronary intervention. Health Psychology 2005;24(1):41-8. CENTRAL
Lisspers J, Sundin Ö, Hofman-Bang C, Nordlander R, Nygren Å, Rydén L, et al. Behavioral effects of a comprehensive multifactorial program for lifestyle change after percutaneous transluminal coronary angioplasty: a prospective randomized, controlled study. Journal of Psychosomatic Research 1999;46(2):143-54. CENTRAL

Holmbäck 1994 {published data only}

Holmbäck AM, Säwe U, Fagher B. Training after myocardial infarction: Lack of long-term effects on physical capacity and psychological variables. Archives of Physical Medical and Rehabilitation 1994;75(5):551-4. CENTRAL

Houle 2012 {published data only}

Houle J, Doyon O, Vadeboncoeur N, Turbide G, Diaz A, Poirier P. Effectiveness of a pedometer-based program using a socio-cognitive intervention on physical activity and quality of life in a setting of cardiac rehabilitation. Canadian Journal of Cardiology 2012;28:27-32. CENTRAL

Kallio 1979 {published data only}

Kallio V, Hämäläinen H, Hakkila J, Luurila OJ. Reduction in sudden deaths by a multifactorial intervention programme after acute myocardial infarction. Lancet 1979;2(8152):1091-4. CENTRAL

Kovoor 2006 {published data only}

Hall JP, Wiseman VP, King MT, Ross DL, Kovoor P, Zecchin RP, et al. Economic evaluation of a randomised trial of early return to normal activities versus cardiac rehabilitation after acute myocardial infarction. Heart, Lung and Circulation 2002;11:10-8. CENTRAL
Kovoor P, Lee AK, Carrozzi F, Wiseman V, Byth K, Zecchin R, et al. Return to full normal activities including work at two weeks after acute myocardial infarction. American Journal of Cardiology 2006;97(7):952-8. CENTRAL

La Rovere 2002 {published data only}

La Rovere MT, Bersano C, Gnemmi M, Specchia G, Schwartz PJ. Exercise-induced increase in baroreflex sensitivity predicts improved prognosis after myocardial infarction. Circulation 2002;106(8):945-9. CENTRAL

Lear 2015 {published data only (unpublished sought but not used)}

Lear SA, Singer J, Banner-Lukaris D, Horvat D, Park JE, Bates J, et al. Improving access to cardiac rehabilitation using the internet: a randomized trial. Studies in Health Technology and Informatics 2015;209:58-66. CENTRAL
Lear SA, Singer J, Banner-Lukaris D, Horvat D, Park JE, Bates J, et al. Randomized trial of a virtual cardiac rehabilitation program delivered at a distance via the internet. Circulation. Cardiovascular Quality and Outcomes 2014;7:952-9. CENTRAL

Leizorovicz 1991 {published data only}

Leizorovicz A, Saint-Pierre A, Vasselon C, Boissel JP. Comparison of a rehabilitation programme, a counselling programme and usual care after an acute myocardial infarction: results of a long-term randomized trial. P.RE.COR. Group. European Heart Journal 1991;12(5):612-6. CENTRAL

Lewin 1992 {published data only}

Lewin B, Robertson IH, Cay EL, Irving JB, Campbell M. Effects of self-help post-myocardial infarction rehabilitation on psychological adjustment and use of health services. Lancet 1992;339(8800):1036-40. CENTRAL

Ma 2020 {published data only (unpublished sought but not used)}

Ma LY, Deng L, Yu H. The effects of a comprehensive rehabilitation and intensive education program on anxiety, depression, quality of life, and major adverse cardiac and cerebrovascular events in unprotected left main coronary artery disease patients who underwent coronary artery bypass grafting. Irish Journal of Medical Science 2020;189:477-88. CENTRAL

Maddison 2014 {published data only}

Maddison R, Pfaeffli L, Whittaker R, Stewart R, Kerr A, Jiang Y, et al. A mobile phone intervention increases physical activity in people with cardiovascular disease: results from the HEART randomized controlled trial. European Journal of Preventive Cardiology 2014;22(6):701-9. CENTRAL

Manchanda 2000 {published data only}

Manchanda SC, Narang R, Reddy KS, Sachdeva U, Prabhakaran D, Dharmanand S, et al. Retardation of coronary atherosclerosis with yoga lifestyle intervention. Journal of the Association of Physicians of India 2000;48(7):687-94. CENTRAL

Marchionni 2003 {published data only}

Marchionni N, Fattirolli F, Fumagalli S, Oldridge N, Del Lungo F, Morosi L, et al. Improved exercise tolerance and quality of life with cardiac rehabilitation of older patients after myocardial infarction: results of a randomized, controlled trial. Circulation 2003;107(17):2201-6. CENTRAL

Maroto 2005 {published data only}

Maroto MJ, Artigao Ramirez R, Morales Duran MD, de Pablo Zarzosa C, Abraira V. Cardiac rehabilitation in patients with myocardial infarction: a 10-year follow-up study. Revista Espanola de Cardiologia 2005;58:1181-7. CENTRAL

Miller 1984 {published data only}

DeBusk RF, Haskell WL, Miller NH, Berra K, Taylor CB, Berger WE, et al. Medically directed at-home rehabilitation soon after clinically uncomplicated acute myocardial infarction: a new model for patient care. American Journal of Cardiology 1985;55(4):251-7. CENTRAL
Miller NH, Haskell WL, Berra K, DeBusk RF. Home versus group exercise training for increasing functional capacity after myocardial infarction. Circulation 1984;70(4):645-9. CENTRAL
Taylor CB, Houston-Miller N, Ahn DK, Haskell WL, DeBusk RF. The effects of exercise training programs on psychosocial improvement in uncomplicated postmyocardial infarction patients. Journal of Psychosomatic Research 1986;30(5):581-7. CENTRAL
Taylor CB, Houston-Miller N, Haskell WL, DeBusk RF. Smoking cessation after acute myocardial infarction: the effects of exercise training. Addictive Behaviors 1988;13(4):331-5. CENTRAL

Munk 2009 {published data only}

Munk PS, Breland UM, Aukrust P, Ueland T, Kvaloy JT, Larsen AI. High intensity interval training reduces systemic inflammation in post-PCI patients. European Journal of Cardiovascular Prevention & Rehabilitation 2011;18:850-7. CENTRAL
Munk PS, Staal EM, Butt N, Isaksen K, Larsen AI. High-intensity interval training may reduce in-stent restenosis following percutaneous coronary intervention with stent implantation. American Heart Journal 2009;158:734-41. CENTRAL

Mutwalli 2012 {published data only}

Mutwalli HA, Fallows SJ, Arnous AA, Zamzami MS. Randomized controlled evaluation shows the effectiveness of a home-based cardiac rehabilitation program. Saudi Medical Journal 2012;33:152-9. CENTRAL

Oerkild 2012 {published data only}

Oerkild B, Frederiksen M, Hansen JF, Prescott E. Home-based cardiac rehabilitation is an attractive alternative to no cardiac rehabilitation for elderly patients with coronary heart disease: results from a randomised clinical trial. BMJ Open 2012;2:e001820. CENTRAL

Oldridge 1991 {published and unpublished data}

Oldridge N, Furlong W, Feeny D, Torrance G, Guyatt G, Crowe J, et al. Economic evaluation of cardiac rehabilitation soon after acute myocardial infarction. American Journal of Cardiology 1993;72:154-61. CENTRAL
Oldridge N, Guyatt G, Jones N, Crowe J, Singer J, Feeny D, et al. Effects on quality of life with comprehensive rehabilitation after acute myocardial infarction. American Journal of Cardiology 1991;67(13):1084-9. CENTRAL
Oldridge N, Streiner D, Hoffmann R, Guyatt G. Profile of mood states and cardiac rehabilitation after acute myocardial infarction. Medicine and Science in Sports and Exercise 1995;27(6):900-5. CENTRAL

Ornish 1990 {published data only}

Ornish D, Brown SE, Scherwitz LW, Billings JH, Armstrong WT, Ports TA, et al. Can lifestyle changes reverse coronary heart disease? The Lifestyle Heart Trial. Lancet 1990;336(8708):129-33. CENTRAL
Ornish D, Scherwitz LW, Billings JH, Brown SE, Gould KL, Merritt TA, et al. Intensive lifestyle changes for reversal of coronary heart disease. JAMA 1998;280(23):2001-7. CENTRAL
Pischke CR, Scherwitz L, Weidner G, Ornish D. Long-term effects of lifestyle changes on well-being and cardiac variables among coronary heart disease patients. Health Psychology 2008;27(5):584-92. CENTRAL

Pal 2013 {published data only}

Pal A, Srivastava N, Narain VS, Agrawal GG, Rani M. Effect of yogic intervention on the autonomic nervous system in the patients with coronary artery disease: a randomized controlled trial. Eastern Mediterranean Health Journal 2013;19(5):453-8. CENTRAL

Pomeshkina 2017 {published data only (unpublished sought but not used)}

Pomeshkina S, Loktionova E, Arkhipova N, Barbarash O. Home-based walking training and adherence to medical therapy in patients undergoing coronary artery bypass grafting. European Heart Journal 2015;36:634. CENTRAL
Pomeshkina SA, Loktionova EB, Bezzubova VA, Arkhipova NV, Borovik IV, Barbarash OL. The comparative analysis of the influence of the supervised exercise training and home-based exercise training on the psychological status of the following coronary artery bypass grafting. Problems of Balneology, Physiotherapy, and Exercise Therapy 2017;94(6):10-7. CENTRAL

Pomeshkina 2019 {published data only (unpublished sought but not used)}

Pomeshkina SA, Barbarash OL, Pomeshkin EV. Exercise training and erectile dysfunction in patients after coronary artery bypass grafting. Therapeutic Archive 2019;91(9):16-20. CENTRAL

Prabhakaran 2020 {published data only}

Chandrasekaran AM, Kinra S, Ajay VS, Chattopadhyay K, Singh K, Singh K, et al. Effectiveness and cost-effectiveness of a yoga-based cardiac rehabilitation (Yoga-CaRe) program following acute myocardialinfarction: study rationale and design of a multi-center randomized controlled trial. International Journal of Cardiology 2019;280:14-8. CENTRAL
Chattopadhyay K, Chandrasekaran AM, Praveen PA, Manchanda SC, Madan K, Ajay VS, et al. Development of a yoga-based cardiac rehabilitation (Yoga-CaRe) programme for secondary prevention of myocardial infarction. Evidence-Based Complementary and Alternative Medicine 2019;2019:1-7. CENTRAL
CTRI/2012/02/002408. A study on effectiveness of yoga based cardiac rehabilitation programme in India and United Kingdom. apps.who.int/trialsearch/Trial2.aspx?TrialID=CTRI/2012/02/002408 (date of registration 8 February 2012). CENTRAL
Prabhakaran D, Chandrasekaran AM, Singh K, Mohan B, Chattopadhyay K, Chadha DS, et al. Yoga-based cardiac rehabilitation after acute myocardial infarction. Journal of the American College of Cardiology 2020;75(13):1551-61. CENTRAL

Reid 2012 {published data only}

Reid DR, Morrin LI, Beaton LJ, Papadakis S, Kocourek J, McDonnell L, et al. Randomized trial of an internet-based computer-tailored expert system for physical activity in patients with heart disease. European Journal of Preventive Cardiology 2012;19(6):1357–64. CENTRAL

Roman 1983 {published data only}

Roman O, Gutierrez M, Luksic I, Chavez E, Camuzzi AL, Villalon E, et al. Cardiac rehabilitation after acute myocardial infarction. 9-year controlled follow-up study. Cardiology 1983;70:223-31. CENTRAL

Sandström 2005 {published data only}

Sandström L, Ståhle A. Rehabilitation of elderly with coronary heart disease - Improvement in quality of life at a low cost. Advances in Physiotherapy 2005;7:60-6. CENTRAL

Santaularia 2017 {published data only}

Santaularia N, Caminal J, Arnau A, Perramon M, Montesinos J, Abenoza Guardiola M, et al. The efficacy of a supervised exercise training programme on readmission rates in patients with myocardial ischemia: results from a randomised controlled trial. European Journal of Cardiovascular Nursing : Journal of the Working Group on Cardiovascular Nursing of the European Society of Cardiology 2017;16(3):201-12. CENTRAL
Santaularia N, Caminal J, Arnau A, Perramon M, Montesinos J, Trape J, et al. Randomized clinical trial to evaluate the effect of a supervised exercise training program on readmissions in patients with myocardial ischemia: a study protocol. BMC Cardiovascular Disorders 2013;13(1):32. CENTRAL

Schuler 1992 {published data only}

Hambrecht R, Niebauer J, Marburger C, Grunze M, Kalberer B, Hauer K, et al. Various intensities of leisure time physical activity in patients with coronary artery disease: effects on cardiorespiratory fitness and progression of coronary atherosclerotic lesions. Journal of the American College of Cardiology 1993;22(2):468-77. CENTRAL
Niebauer J, Hambrecht R, Marburger C, Hauer K, Velich T, von Hodenberg E, et al. Impact of intensive physical exercise and low-fat diet on collateral vessel formation in stable angina pectoris and angiographically confirmed coronary artery disease. American Journal of Cardiology 1995;76(11):771-5. CENTRAL
Niebauer J, Hambrecht R, Velich T, Hauer K, Marburger C, Kalberer B, et al. Attenuated progression of coronary artery disease after 6 years of multifactorial risk intervention: role of physical exercise. Circulation 1997;96(8):2534-41. CENTRAL
Niebauer J, Hambrecht R, Velich T, Marburger C, Hauer K, Kreuzer J, et al. Predictive value of lipid profile for salutary coronary angiographic changes in patients on a low-fat diet and physical exercise program. American Journal of Cardiology 1996;78(2):163-7. CENTRAL
Nikolaus T, Schlierf G, Vogel G, Schuler G, Wagner I. Treatment of coronary heart disease with diet and exercise: problems of compliance. Annals of Nutrition and Metabolism 1991;35:1-7. CENTRAL
Schuler G, Hambrecht R, Schlierf G, Niebauer J, Hauer K, Neumann J, et al. Regular physical exercise and low-fat diet. Effects on progression of coronary artery disease. Circulation 1992;86(1):1-11. CENTRAL

Seki 2003 {published data only}

Seki E, Watanabe Y, Sunayama S, Iwama Y, Shimada K, Kawakami K, et al. Effects of phase III cardiac rehabilitation programs on health-related quality of life in elderly patients with coronary artery disease: Juntendo Cardiac Rehabilitation Program (J-CARP). Circulation Journal 2003;67(1):73-7. CENTRAL

Seki 2008 {published data only}

Seki E, Watanabe Y, Shimada K, Sunayama S, Onishi T, Kawakami K, et al. Effects of a phase III cardiac rehabilitation program on physical status and lipid profiles in elderly patients with coronary artery disease: Juntendo Cardiac Rehabilitation Program (J-CARP). Circulation Journal 2008;72(8):1230-4. CENTRAL

Shaw 1981 {published data only}

Dorn J, Naughton J, Imamura D, Trevisan M. Results of a multicenter randomized clinical trial of exercise and long-term survival in myocardial infarction patients: the National Exercise and Heart Disease Project (NEHDP). Circulation 1999;100:1764-9. CENTRAL
Naughton J. The National Exercise and Heart Disease Project. The pre-randomization exercise program. Report number 2. Cardiology 1978;63(6):352-67. CENTRAL
Shaw LW. Effects of a prescribed supervised exercise program on mortality and cardiovascular morbidity in patients after a myocardial infarction. The National Exercise and Heart Disease Project. American Journal of Cardiology 1981;48(1):39-46. CENTRAL
Stern MJ, Cleary P. The National Exercise and Heart Disease Project: long-term psychosocial outcome. Archives of Internal Medicine 1982;142(6):1093-7. CENTRAL

Sivarajan 1982 {published data only}

Ott CR, Sivarajan ES, Newton KM, Almes MJ, Bruce RA, Bergner M, et al. A controlled randomized study of early cardiac rehabilitation: the sickness impact profile as an assessment tool. Heart & Lung 1983;12(2):162-70. CENTRAL
Sivarajan ES, Bruce RA, Almes MJ, Green B, Belanger L, Lindskog BD, et al. In-hospital exercise after myocardial infarction does not improve treadmill performance. New England Journal of Medicine 1981;305(7):357-62. CENTRAL
Sivarajan ES, Bruce RA, Lindskog BD, Almes MJ, Belanger L, Green B. Treadmill test responses to an early exercise program after myocardial infarction: a randomized study. Circulation 1982;65(7):1420-8. CENTRAL
Sivarajan ES, Newton KM, Almes MJ, Kempf TM, Mansfield LW, Bruce RA. Limited effects of outpatient teaching and counselling after myocardial infarction: A controlled study. Heart & Lung 1983;12(1):65-73. CENTRAL

Snoek 2020 {published data only}

Snoek JA, Prescott EI, Van der Velde AE, Eijsvogels TM, Mikkelsen N, Prins LF, et al. Effectiveness of home-based mobile guided cardiac rehabilitation as alternative strategy for nonparticipation in clinic-based cardiac rehabilitation among elderly patients in Europe. A randomized clinical trial. JAMA Cardiology 2020;6(4):463–8. CENTRAL

Specchia 1996 {published data only}

Specchia G, De Servi S, Scirè A, Assandri J, Berzuini C, Angoli L, et al. Interaction between exercise training and ejection fraction in predicting prognosis after a first myocardial infarction. Circulation 1996;94(5):978-82. CENTRAL

Ståhle 1999 {published data only}

Hage C, Mattsson E, Ståhle A. Long term effects of exercise training on physical activity level and quality of life in elderly coronary patients - a three- to six-year follow-up. Physiotherapy Research International 2003;8(1):13-22. CENTRAL
Ståhle A, Lindquist I, Mattsson E. Important factors for physical activity among elderly patients one year after an acute myocardial infarction. Scandinavian Journal of Rehabilitation Medicine 2000;32(3):111-6. CENTRAL
Ståhle A, Mattsson E, Rydén L, Unden AL, Nordlander R. Improved physical fitness and quality of life following training of elderly patients after acute coronary events. A 1 year follow-up randomized controlled study. European Heart Journal 1999;20(20):1475-84. CENTRAL
Ståhle A, Nordlander R, Rydén L, Mattsson E. Effects of organized aerobic group training in elderly patients discharged after an acute coronary syndrome. A randomized controlled study. Scandinavian Journal of Rehabilitation Medicine 1999;31(2):101-7. CENTRAL
Ståhle A, Tollbäck A. Effects of aerobic group training on exercise capacity, muscular endurance and recovery in elderly patients with recent coronary events: a randomized, controlled study. Advances in Physiotherapy 2001;3:29-37. CENTRAL

Stern 1983 {published data only}

Stern MJ, Gorman PA, Kaslow L. The group counseling v exercise therapy study. A controlled intervention with subjects following myocardial infarction. Archives of Internal Medicine 1983;143(9):1719-25. CENTRAL

Sun 2016 {published data only}

Sun P, Li Y, Song C, Chen D, Tao L, Shi L, Ma J, et al. Long-term effects of exercise rehabilitation on risk factors in elderly patients with stable coronary artery disease. Chinese Journal of Geriatric Heart Brain and Vessel Diseases 2016;5:491-5. CENTRAL

Toobert 2000 {published data only}

Toobert DJ, Glasgow RE, Nettekoven LA, Brown JE. Behavioral and psychosocial effects of intensive lifestyle management for women with coronary heart disease. Patient Education and Counseling 1998;35(3):177-88. CENTRAL
Toobert DJ, Glasgow RE, Radcliffe JL. Physiologic and related behavioral outcomes from the Women's Lifestyle Heart Trial. Annals of Behavioral Medicine 2000;22(1):1-9. CENTRAL

Uddin 2020 {published data only}

Uddin J, Joshi VL, Moniruzzaman M, Karim R, Siraj M, Rashid MA, et al. Effect of home-based cardiac rehabilitation in a lower-middle income country: results from a controlled trial. Journal of Cardiopulmonary Rehabilitation and Prevention 2020;40(1):29-34. CENTRAL
Uddin J. Effects of cardiac rehabilitation on exercise capacity and WHO-quality of life undergoing CABG patients. A quasi-randomised controlled trial. European Journal of Heart Failure 2017;19:464. CENTRAL

Vecchio 1981 {published data only}

Vecchio C, Cobelli F, Opasich C, Assandri J, Poggi G, Griffo R. Early functional evaluation and physical rehabilitation in patients with wide myocardial infarction [Valutazione funzionale precoce e riabilitazione fisica nei pazienti con infarto miocardico esteso]. Giornale Italiano di Cardiologia 1981;11:419-29. CENTRAL

Vermeulen 1983 {published data only}

Vermeulen A, Lie KI, Durrer D. Effects of cardiac rehabilitation after myocardial infarction: changes in coronary risk factors and long-term prognosis. American Heart Journal 1983;105(5):798-801. CENTRAL

VHSG 2003 {published data only}

Schumacher A, Peersen K, Sommervoll L, Seljeflot I, Arnesen H, Otterstad JE. Physical performance is associated with markers of vascular inflammation in patients with coronary heart disease. European Journal of Cardiovascular Prevention and Rehabilitation 2006;13(3):356-62. CENTRAL
Vestfold Heartcare Study Group. Influence on lifestyle measures and five-year coronary risk by a comprehensive lifestyle intervention programme in patients with coronary heart disease. European Journal of Cardiovascular Prevention and Rehabilitation 2003;10(6):429-37. CENTRAL

Wang 2012 {published data only}

Wang W, Chair SY, Thompson DR, Twinn SF. Effects of home-based rehabilitation on health-related quality of life and psychological status in Chinese patients recovering from acute myocardial infarction. Heart & Lung 2012;41:15-25. CENTRAL

West 2012 {published data only}

West RR, Jones DA, Henderson AH. Rehabilitation after myocardial infarction trial (RAMIT): multi-centre randomised controlled trial of comprehensive cardiac rehabilitation in patients following acute myocardial infarction. Heart 2012;98:637-44. CENTRAL

WHO 1983 {published data only}

World Health Organization. Rehabilitation and comprehensive secondary prevention after acute myocardial infarction. EURO Reports and Studies 841983. CENTRAL

Wilhelmsen 1975 {published data only}

Sanne H. Exercise tolerance and physical training of non-selected patients after myocardial infarction. Acta Medica Scandinavica 1973;Supplementum 551:1-124. CENTRAL
Wilhelmsen L, Sanne H, Elmfeldt D, Grimby G, Tibblin G, Wedel H. A controlled trial of physical training after myocardial infarction. Effects on risk factors, nonfatal reinfarction, and death. Preventive Medicine 1975;4(4):491-508. CENTRAL

Xu 2017 {published data only}

Xu Y, Feng Y, Su P, Li Y, Li C, Qiao J. Impact of exercise rehabilitation on cardiac function in coronary artery disease patients after percutaneous coronary intervention. Chinese Circulation Journal 2017;32:326-30. CENTRAL

Yu 2003 {published data only}

Yu CM, Li LS, Ho HH, Lau CP. Long-term changes in exercise capacity, quality of life, body anthropometry, and lipid profiles after a cardiac rehabilitation program in obese patients with coronary heart disease. American Journal of Cardiology 2003;91(3):321-5. CENTRAL

Yu 2004 {published data only}

Yu C, Li L, Lam M, Siu D, Miu R, Lau C. Effect of a cardiac rehabilitation program on left ventricular diastolic function and its relationship to exercise capacity in patients with coronary heart disease: experience from a randomized, controlled study. American Heart Journal 2004;147(5):e24. CENTRAL
Yu CM, Lau CP, Chau J, McGhee S, Kong SL, Cheung BM, et al. A short course of cardiac rehabilitation program is highly cost effective in improving long-term quality of life in patients with recent myocardial infarction or percutaneous coronary intervention. Archives of Physical Medicine and Rehabilitation 2004;85(12):1915-22. CENTRAL

Zhang 2018 {published data only}

Zhang Y, Cao H, Jiang P, Tang H. Cardiac rehabilitation in acute myocardial infarction patients after percutaneous coronary intervention: a community-based study. Medicine 2018;97(8):1-5. CENTRAL

Zwisler 2008 {published and unpublished data}

Kruse M, Hochstrasser S, Zwisler AD, Kjellberg J. Comprehensive cardiac rehabilitation: a cost assessment based on a randomized clinical trial. International Journal of Technology Assessment in Health Care 2006;22(4):478-83. CENTRAL
Zwisler AD, Soja AM, Rasmussen S, Frederiksen M, Abedini S, Appel J, et al. Hospital-based comprehensive cardiac rehabilitation versus usual care among patients with congestive heart failure, ischemic heart disease, or high risk of ischemic heart disease: 12-month results of a randomized clinical trial. American Heart Journal 2008;155(6):1106-13. CENTRAL

ACTRN12617000312347 {unpublished data only}

ACTRN12617000312347. Does the use of personal activity trackers in patients after a heart attack result in an increase in exercise capacity. www.anzctr.org.au/Trial/Registration/TrialReview.aspx?id=372376 (date submitted 17 February 2017). CENTRAL

ACTRN12618001458224 {unpublished data only}

ACTRN12618001458224. Smartphone Cardiac Rehabilitation, Assisted self-Management (SCRAM): a 21st Century Approach for Improving the Self-Management of Heart Disease. www.anzctr.org.au/Trial/Registration/TrialReview.aspx?id=374508 (date submitted 24 August 2018). CENTRAL

Agren 1989 {published data only}

Agren B, Olin C, Castenfors J, Nilsson-Ehle P. Improvements of the lipoprotein profile after coronary bypass surgery: additional effects of an exercise training program. European Heart Journal 1989;10(5):451-8. CENTRAL

Ahmadi 2020 {published data only}

Ahmadi A, Roshan VD, Jalali A. Coronary vasomotion and exercise induced adaptations in coronary artery disease patients: A systematic review and meta analysis. Journal of Research in Medical Sciences 2020;25:76. CENTRAL

Alharbi 2016 {published data only}

Alharbi M, Gallagher R, Kirkness A, Sibbritt D, Tofler G. Long-term outcomes from Healthy Eating and Exercise Lifestyle Program for overweight people with heart disease and diabetes. European Journal of Cardiovascular Nursing: Journal of the Working Group on Cardiovascular Nursing of the European Society of Cardiology 2016;15(1):91-9. CENTRAL

Al Namat 2017 {published data only}

Al Namat R, Aursulesei V, Felea MG, Costache II, Petris A, Mitu O, et al. Heart-type Fatty Acid-Binding Protein (H-FABP) in patients with coronary artery bypass graft surgery undergoing cardiac rehabilitation program. Revista de Chimie 2017;68(7):1485-89. CENTRAL

Alsaleh 2012 {published data only}

Alsaleh E, Blake H, Windle R. Behavioural intervention to increase physical activity among patients with coronary heart disease: protocol for a randomised controlled trial. International Journal of Nursing Studies 2012;49:1489-93. CENTRAL

An 2020 {published data only}

An S, Song R. Effects of health coaching on behavioral modification among adults with cardiovascular risk factors: systematic review and meta-analysis. Patient Education and Counseling 2020;103(10):2029-38. CENTRAL

Andersson 2010 {published data only}

Andersson A, Sundel KL, Unden AL, Schenck-Gustafsson K, Eriksson I. A five-year rehabilitation programme for younger women after a coronary event reduces the need for hospital care. Scandinavian Journal of Public Health 2010;38:566-73. CENTRAL

Asbury 2012 {published data only}

Asbury EA, Webb CM, Probert H, Wright C, Barbir M, Fox K, et al. Cardiac rehabilitation to improve physical functioning in refractory angina: a pilot study. Cardiology 2012;122:170-7. CENTRAL

Astengo 2010 {published data only}

Astengo M, Dahl A, Karlsson T, Mattsson-Hulten L, Wiklund O, Wennerblom B. Physical training after percutaneous coronary intervention in patients with stable angina: effects on working capacity, metabolism, and markers of inflammation. European Journal of Cardiovascular Prevention & Rehabilitation 2010;17:349-54. CENTRAL

Avila 2020 {published data only}

Avila A, Claes J, Buys R, Azzawi M, Vanhees L, Cornelissen V. Home-based exercise with telemonitoring guidance in patients with coronary artery disease: does it improve long-term physical fitness? European Journal of Preventive Cardiology 2020;27(4):367-77. CENTRAL

Ballantyne 1982 {published data only}

Ballantyne FC, Clark RS, Simpson HS, Ballantyne D. The effect of moderate physical exercise on the plasma lipoprotein subfractions of male survivors of myocardial infarction. Circulation 1982;65(5):913-8. CENTRAL

Bär 1992 {published data only}

Bär FW, Hoppener P, Diederiks J, Vonken H, Bekkers J, Hoofd W, et al. Cardiac rehabilitation contributes to the restoration of leisure and social activities. Journal of Cardiopulmonary Rehabilitation 1992;12(2):117-25. CENTRAL

Baumgarten 2017 {published data only}

Baumgarten H, Steinmetz C, Borst C, Walther T, Walther C. Preoperative exercise training before elective coronary artery bypass graft surgery: a prospective randomized evaluation on feasibility and effects on operative outcomes. Thoracic and Cardiovascular Surgeon 2017;65:S1-S110. CENTRAL

Beland 2020 {published data only}

Beland M, Lavoie KL, Briand S, White UK, Gemme C, Bacon SL. Aerobic exercise alleviates depressive symptoms in patients with a major non-communicable chronic disease: a systematic review and meta-analysis. British Journal of Sports Medicine 2020;54(5):272. CENTRAL

Bettencourt 2005 {published data only}

Bettencourt N, Dias C, Mateus P, Sampaio F, Santos L, Adao L, et al. Impact of cardiac rehabilitation on quality of life and depression after acute coronary syndrome [Impacto da reabilitacao cardiaca na qualidade-de-vida e sintomatologia depressiva apos sindroma coronaria aguda]. Revista Portuguesa de Cardiologia 2005;24(5):687-96. CENTRAL

Bilinska 2010 {published data only}

Bilinska M, Kosydar-Piechna M, Gasiorowska A, Mikulski T, Piotrowski W, Nazar K, et al. Influence of dynamic training on hemodynamic, neurohormonal responses to static exercise and on inflammatory markers in patients after coronary artery bypass grafting. Circulation Journal 2010;74:2598-604. CENTRAL

Bilinska 2013 {published data only}

Bilinska M, Kosydar-Piechna M, Mikulski T, Piotrowicz E, Gasiorowska A, Piotrowski W, et al. Influence of aerobic training on neurohormonal and hemodynamic responses to head-up tilt test and on autonomic nervous activity at rest and after exercise in patients after bypass surgery. Cardiology Journal 2013;20:17-24. CENTRAL

Björntorp 1972 {published data only}

Björntorp, Berchtold P, Grimby G, Lindholm B, Sanne H, Tibblin G, et al. Effects of physical training on glucose tolerance, plasma insulin and lipids and on body composition in men after myocardial infarction. Acta Medica Scandinavica 1972;192(1-6):439-43. CENTRAL

Blokzijl 2018 {published data only}

Blokzijl F, Dieperink W, Keus F, Reneman MF, Mariani MA, Van der Horst IC. Cardiac rehabilitation for patients having cardiac surgery: a systematic review. Journal of Cardiovascular Surgery 2018;59(6):817-29. CENTRAL

Blumenthal 1997 {published data only}

Blumenthal JA, Wei J, Babyak MA, Krantz DS, Frid DJ, Coleman RE, et al. Stress management and exercise training in cardiac patients with myocardial ischemia: effects on prognosis and evaluation of mechanisms. Archives of Internal Medicine 1997;157(19):2213-23. CENTRAL

Bo 2015 {published data only}

Bo E, Bergland A, Stranden E, Jorgensen JJ, Sandbaek G, Grotta OJ, et al. Effects of 12 weeks of supervised exercise after endovascular treatment: a randomized clinical trial. Physiotherapy Research International : The Journal for Researchers and Clinicians in Physical Therapy 2015;20(3):147-57. CENTRAL

Borg 2017 {published data only}

Borg S, Oberg B, Nilsson L, Sodelund A, Back M. The role of a behavioural medicine intervention in physiotherapy for the effects of rehabilitation outcomes in exercise-based cardiac rehabilitation (ECRA) - the study protocol of a randomised, controlled trial. BMC Cardiovascular Disorders 2017;17(1):134. CENTRAL

Bourke 2010 {published data only}

Bourke L, Tew GA, Milo M, Crossman DC, Saxton JM, Chico TJ. Study protocol: a randomised controlled trial investigating the effect of exercise training on peripheral blood gene expression in patients with stable angina. BMC Public Health 2010;10:620. CENTRAL

Bricca 2020 {published data only}

Bricca A, Harris LK, Saracutu M, Smith SM, Juhl CB, Skou ST. The benefits and harms of therapeutic exercise on physical and psychosocial outcomes in people with multimorbidity: protocol for a systematic review. Journal of Comorbidity 2020;10:1-7. CENTRAL

Broers 2020 {published data only}

Broers ER, Widdershoven J, Denollet J, Lodder P, Kop WJ, Wetzels M, et al. Personalized eHealth program for life-style change: results from the "Do Cardiac Health Advanced New Generated Ecosystem (Do CHANGE 2)" randomized controlled trial. Psychosomatic Medicine 2020;82(4):409-19. CENTRAL

Bubnova 2014 {published data only}

Bubnova MG, Aronov DM, Krasnitskii VB, Ioseliani DG, Novikova NK, Rodzinskaia EM. A home exercise training program after acute coronary syndrome and/or endovascular coronary intervention: efficiency and a patient motivation problem. Terapevticheskii Arkhiv 2014;86:23-32. CENTRAL

Busch 2012 {published data only}

Busch JC, Lillou D, Wittig G, Bartsch P, Willemsen D, Oldridge N, et al. Resistance and balance training improves functional capacity in very old participants attending cardiac rehabilitation after coronary bypass surgery. Journal of the American Geriatrics Society 2012;60:2270-6. Erratum in: Journal of the American Geriatrics Society 2013;61(3)479. CENTRAL

Butler 2009 {published data only}

Butler L, Furber S, Phongsavan P, Mark A, Bauman A. Effects of a pedometer-based intervention on physical activity levels after cardiac rehabilitation: a randomized controlled trial. Journal of Cardiopulmonary Rehabilitation and Prevention 2009;29:105-14. CENTRAL

Candelaria 2020 {published data only}

Candelaria D, Randall S, Ladak L, Gallagher R. Health-related quality of life and exercise‑based cardiac rehabilitation in contemporary acute coronary syndrome patients: a systematic review and meta-analysis. Quality of Life Research 2020;29:579-92. CENTRAL

Carlsson 1997 {published data only}

Carlsson R, Lindberg G, Westin L, Israelsson B. Influence of coronary nursing management follow up on lifestyle after acute myocardial infarction. Heart 1997;77(3):256-9. CENTRAL

Chang 2010 {published data only}

Chang R, Koo M, Kan C, Yu Z, Chu I, Hsu C, et al. Effects of Tai Chi rehabilitation on heart rate responses in patients with coronary artery disease. American Journal of Chinese Medicine 2010;38:461-72. CENTRAL

Chatian 2014 {published data only}

Chatian M, Tarchalski JL, Lisowski J, Poziomska-Piatkowska E. The influence of the outpatient cardiologic rehabilitation on the physical fitness at patients after a STEMI [Wpływ rehabilitacji ambulatoryjnej kardiologicznej na sprawności fizycznej na pacjentów po STEMI]. Polski Merkuriusz Lekarski 2014;36:88-91. CENTRAL

Chen 2016 {published data only}

Chen J, Lin T, Voon W, Lai W, Huang M, Sheu S, et al. Beneficial effects of home-based cardiac rehabilitation on metabolic profiles in coronary heart-disease patients. Kaohsiung Journal of Medical Sciences 2016;32(5):267-75. CENTRAL

Chen 2017 {published data only}

Chen Y, Tsai J, Liou Y, Chan P. Effectiveness of endurance exercise training in patients with coronary artery disease: A meta-analysis of randomised controlled trials. European Journal of Cardiovascular Nursing 2017;16(5):397-408. CENTRAL

ChiCTR1800015823 {unpublished data only}

ChiCTR1800015823. Effects of cardiac rehabilitation physical and breathing exercise on stage III rehabilitation in patients with stable coronary artery disease: a randomized controlled trial study. www.chictr.org.cn/hvshowproject.aspx?id=13015 (date registered 23 April 2018). CENTRAL

ChiCTR1800016209 {unpublished data only}

ChiCTR1800016209. Effectiveness of different type of Baduanjin excercise on I and II phase cardiac rehabilitation for acute myocardial infarction: a randomized controlled trail (BECHAMI). www.chictr.org.cn/hvshowproject.aspx?id=19855 (date registered 5 June 2018). CENTRAL

ChiCTR1800016308 {unpublished data only}

ChiCTR1800016308. Study on the effect of physical assessment and training on the prevention and rehabilitation of chronic diseases in middle and old age. www.chictr.org.cn/showproj.aspx?proj=27729 (date of registration 24 May 2018). CENTRAL

ChiCTR1800020411 {unpublished data only}

ChiCTR1800020411. The effectiveness of eHealth cardiac rehabilitation on health outcomes of Chinese patients with coronary artery disease. www.chictr.org.cn/showprojen.aspx?proj=33906 (date of registration 28 December 2018). CENTRAL

ChiCTR‐IOR‐14005743 {unpublished data only}

ChiCTR-IOR-14005743. The efficacy of Qigong Baduanjin Exercise on patients with coronary heart disease after PCI. www.who.int/trialsearch/Trial2.aspx?TrialID=ChiCTR-IOR-14005743 (date of registration 26 December 2014). CENTRAL

ChiCTR‐IOR‐17012684 {unpublished data only}

ChiCTR-IOR-17012684. Exercise prescription of Taijiquan in rehabilitation of elderly patients with coronary heart disease. www.chictr.org.cn/showprojen.aspx?proj=21653 (date of registration 15 September 2017). CENTRAL

ChiCTR‐IOR‐17014149 {unpublished data only}

ChiCTR-IOR-17014149. The effect of Baduanjin exercise on cardiac rehabilitation in patients with stable coronary artery disease: a randomized controlled trial. www.chictr.org.cn/com/25/showproj.aspx?proj=24131 (date of registration 26 December 2017). CENTRAL

ChiCTR‐IPR‐17011445 {unpublished data only}

ChiCTR-IPR-17011445. The effects of I stage cardiac rehabilitation on cardiopulmonary function in patients undergoing open heart surgery: a randomized controlled study. www.chictr.org.cn/showproj.aspx?proj=19355 (date of registration 20 May 2017). CENTRAL

Chokshi 2018 {published data only}

Chokshi N, Adusumalli S, Small D, Morris A, Feingold J, Ha Y, et al. Effect of loss-framed financial incentives and personalized goal-setting on physical activity among ischemic heart disease patients using wearable devices: the active reward randomized clinical trial. Journal of General Internal Medicine 2018;33:176. CENTRAL
Chokshi NP, Adusumalli S, Small DS, Morris A, Feingold J, Ha YP, et al. Loss-framed financial incentives and personalized goal-setting to increase physical activity among ischemic heart disease patients using wearable devices: the ACTIVE REWARD randomized trial. Journal of the American Heart Association 2018;7(12):e009173. CENTRAL

Chow 2012 {published data only}

Chow CK, Redfern J, Thiagalingam A, Jan S, Whittaker R, Hackett M, et al. Design and rationale of the tobacco, exercise and diet messages (TEXT ME) trial of a text message-based intervention for ongoing prevention of cardiovascular disease in people with coronary disease: a randomised controlled trial protocol. BMJ Open 2012;2:e000606. CENTRAL

Christa 2019 {published data only}

Christa E, Srivastava P, Chandran DS, Jaryal AK, Yadav RK, Roy A, et al. Effect of yoga-based cardiac rehabilitation on heart rate variability: randomized controlled trial in patients post-MI. International Journal of Yoga Therapy 2019;29(1):43-50. CENTRAL
Christa SE, Jaryal AK, Yadav RK, Roy A, Chandran DS, Deepak KK. Effects of yoga based cardiac rehabilitation on vascular and endothelial function in patients post myocardial infarction - a randomized controlled trial. FASEB Journal 2018;32:S1. CENTRAL

Claes 2020 {published data only}

Claes J, Cornelissen V, McDermott C, Moyna N, Pattyn N, Cornelis N, et al. Feasibility, acceptability, and clinical effectiveness of a technology-enabled cardiac rehabilitation platform (Physical Activity Toward Health-I): randomized controlled trial. Journal of Medical Internet Research 2020;22(2):19. CENTRAL

Clark 2017 {published data only}

Clark IN, Baker FA, Peiris CL, Shoebridge G, Taylor NF. Participant-selected music and physical activity in older adults following cardiac rehabilitation: a randomized controlled trial. Clinical Rehabilitation 2017;31(3):329-39. CENTRAL

Conboy 2020 {published data only}

Conboy L, Krol J, Tomas J, Yeh GY, Wayne P, Salmoirago-Blotcher E. Tai Chi for heart attack survivors: qualitative insights. BMJ Supportive & Palliative Care 2020;10(4):6. CENTRAL

Cugusi 2020 {published data only}

Cugusi L, Prosperini L, Mura G. Exergaming for quality of life in persons living with chronic diseases: a systematic review and meta-analysis. PM & R : the Journal of Injury, Function, and Rehabilitation 2020 Sept 10 [Epub ahead of print]. CENTRAL [DOI: 10.1002/pmrj.12444]

da Costa Torres 2016 {published data only}

da Costa Torres D, Da Silva PR, Lima Reis HJ, Paisani DM, Chiavegato LD. Effectiveness of an early mobilization program on functional capacity after coronary artery bypass surgery: randomized controlled trial. European Respiratory Journal 2016;48(S60):PA4419. CENTRAL
da Costa Torres D, dos Santos PM, Reis HJ, Paisani DM, Chiavegato LD. Effectiveness of an early mobilization program on functional capacity after coronary artery bypass surgery: a randomized controlled trial protocol. SAGE Open Medicine 2016;4:1-8. CENTRAL

Dalçóquio 2020 {published data only}

Dalçóquio T, de Mendonça Furtado RH, Arantes FB, dos Santos MA, Alves LS, et al. Effect of exercise training on platelet aggregation and on P2Y12 inhibitor resistance after myocardial infarction: a randomized clinical trial. Journal of the American College of Cardiology 2020;75:1618. CENTRAL

Davoodvand 2009 {published data only}

Davoodvand S, Elahi N, Haghighizadeh M. Effectiveness of short-term cardiac rehabilitation on clinical manifestations in post-MI patients. Hayat 2009;15(3):66-74. CENTRAL

De Bakker 2020 {published data only}

De Bakker M, Den Uijl I, Ter Hoeve N, Van Domburg RT, Geleijnse ML, Van dem Berg-Emons RJ, et al. Association between exercise capacity and health-related quality of life during and after cardiac rehabilitation in acute coronary syndrome patients: a substudy of the OPTICARE randomized controlled trial. Archives of Physical Medicine and Rehabilitation 2020;101(4):650-7. CENTRAL

Deng 2020 {published data only}

Deng BY, Shou XL, Ren AH, Liu XW, Wang QN, Wang BZ, et al. Effect of aerobic training on exercise capacity and quality of life in patients older than 75 years with acute coronary syndrome undergoing percutaneous coronary intervention. Physiotherapy Theory and Practice 2020 Sept 29 [Epub ahead of print]. CENTRAL [DOI: 10.1080/09593985.2020.1825580]

Devi 2014 {published data only}

Devi R, Powell J, Singh S. A web-based program improves physical activity outcomes in a primary care angina population: randomized controlled trial. Journal of Medical Internet Research 2014;16(9):e186. CENTRAL

DRKS00007569 {unpublished data only}

DRKS00007569. Evaluation of a multimodal motivation and training program for cardiac rehab aftercare (Vision 2 - Healthy Heart). www.drks.de/drks_web/navigate.do?navigationId=trial.HTML&TRIAL_ID=DRKS00007569 (date of registration 8 May 2015). CENTRAL

Edstrom‐Pluss 2009 {published data only}

Edstrom-Pluss C, Billing E, Held C, Henriksson P, Kiessling A, Karlsson MR, et al. Long-term beneficial effects of an expanded cardiac rehabilitation after an acute myocardial infarction or coronary artery by-pass grafting: a five year follow-up of a randomized controlled study. European Heart Journal 2009;30:75-6. CENTRAL

Engelen 2020 {published data only}

Engelen MM, Van Dulmen S, Puijk-Hekman S, Vermeulen H, Nijhuis-van der Sanden MW, Bredie SJ, et al. Evaluation of a web-based self-management program for patients with cardiovascular disease: explorative randomized controlled trial. Journal of Medical Internet Research 2020;22(7):14. CENTRAL

Espinosa 2004 {published data only}

Espinosa Caliani S, Bravo Navas JC, Gomez-Doblas JJ, Collantes Rivera R, Gonzalez Jimenez B, Martinez Lao M, et al. Postmyocardial infarction cardiac rehabilitation in low risk patients. Results with a coordinated program of cardiological and primary care. Revista Espanola de Cardiologia 2004;57:53-9. CENTRAL

Fontes‐Carvalho 2015 {published data only}

Fontes-Carvalho R, Sampaio F, Teixeira M, Gama V, Leite-Moreira AF. The role of a structured exercise training program on cardiac structure and function after acute myocardial infarction: study protocol for a randomized controlled trial. Trials 2015;16:90. CENTRAL

Francis 2019 {published data only}

Francis T, Kabboul N, Rac V, Mitsakakis N, Pechlivanoglou P, Bielecki J, et al. The effect of cardiac rehabilitation on health-related quality of life in patients with coronary artery disease: a meta-analysis. Canadian Journal of Cardiology 2019;35(3):352-64. CENTRAL

Franssen 2020 {published data only}

Franssen WM, Franssen GH, Spaas J, Solmi F, Eijnde BO. Can consumer wearable activity tracker-based interventions improve physical activity and cardiometabolic health in patients with chronic diseases? A systematic review and meta-analysis of randomised controlled trials. International Journal of Behavioral Nutrition and Physical Activity 2020;17(1):20. CENTRAL

Fu 2019 {published data only}

Fu C, Wang H, Wei Q, He C, Zhang C. Effects of rehabilitation exercise on coronary artery after percutaneous coronary intervention in patients with coronary heart disease: a systematic review and meta-analysis. Disability & Rehabilitation 2019;41(24):2881-7. CENTRAL

Gao 2007 {published data only}

Gao WG, Hu DY, Ma WL, Tang CZ, Li J, Hasimu B, et al. Effect of health management on the rehabilitation of patients undergoing coronary artery bypass graft. Journal of Clinical Rehabilitative Tissue Engineering Research 2007;11(25):4874-8. CENTRAL

Gao 2020 {published data only}

Gao L, Maddison R, Rawstorn J, Ball K, Oldenburg B, Chow C, et al. Economic evaluation protocol for a multicentre randomised controlled trial to compare Smartphone Cardiac Rehabilitation, Assisted self-Management (SCRAM) versus usual care cardiac rehabilitation among people with coronary heart disease. BMJ Open 2020;10(8):8. CENTRAL

Garcia‐Bravo 2020 {published data only}

Garcia-Bravo S, Cano-de-la-Cuerda R, Dominguez-Paniagua J, Campuzano-Ruiz R, Barrenada-Copete E, Lopez-Navas MJ, et al. Effects of virtual reality on cardiac rehabilitation programs for ischemic heart disease: a randomized pilot clinical trial. International Journal of Environmental Research and Public Health 2020;17(22):17. CENTRAL

Gerlach 2020 {published data only}

Gerlach S, Mermier C, Kravitz L, Degnan J, Dalleck L, Zuhl M. Comparison of treadmill and cycle ergometer exercise during cardiac rehabilitation: a meta-analysis. Archives of Physical Medicine and Rehabilitation 2020;101(4):690-9. CENTRAL

Ghashghaei 2012 {published data only}

Ghashghaei FE, Sadeghi M, Marandi SM, Ghashghaei SE. Exercise-based cardiac rehabilitation improves hemodynamic responses after coronary artery bypass graft surgery. Arya Atherosclerosis 2012;7:151-6. CENTRAL

Giallauria 2009 {published data only}

Giallauria F, Galizia G, Lucci R, D'Agostino M, Vitelli A, Maresca L, et al. Favourable effects of exercise-based cardiac rehabilitation after acute myocardial infarction on left atrial remodeling. International Journal of Cardiology 2009;136:300-6. CENTRAL

Giallauria 2012 {published data only}

Giallauria F, Acampa W, Ricci F, Vitelli A, Maresca L, Mancini M, et al. Effects of exercise training started within 2 weeks after acute myocardial infarction on myocardial perfusion and left ventricular function: a gated SPECT imaging study. European Journal of Preventive Cardiology 2012;19:1410-9. CENTRAL

Giallauria 2013 {published data only}

Giallauria F, Acampa W, Ricci F, Vitelli A, Torella G, Lucci R, et al. Exercise training early after acute myocardial infarction reduces stress-induced hypoperfusion and improves left ventricular function. European Journal of Nuclear Medicine & Molecular Imaging 2013;40:315-24. CENTRAL

Giannuzzi 2008 {published data only}

Giannuzzi P, Temporelli PL, Marchioli R, Maggioni AP, Balestroni G, Ceci V, et al. Global secondary prevention strategies to limit event recurrence after myocardial infarction: results of the GOSPEL study, a multicenter, randomized controlled trial from the Italian Cardiac Rehabilitation Network. Archives of Internal Medicine 2008;168(20):2194-204. CENTRAL

Gielen 2003 {published data only}

Gielen S, Erbs S, Linke A, Mobius-Winkler S, Schuler G, Hambrecht R. Home-based versus hospital-based exercise programs in patients with coronary artery disease: effects on coronary vasomotion. American Heart Journal 2003;145(1):e3. CENTRAL

Goel 2013 {published data only}

Goel K, Pack QR, Lahr B, Greason KL, Lopez-Jimenez F, Squires RW, et al. Cardiac rehabilitation is associated with reduced long-term mortality in patients undergoing combined heart valve and CABG surgery. European Journal of Preventive Cardiology 2013;22(2):159-68. CENTRAL

Gong 2015 {published data only}

Gong J, Chen X, Li S. Efficacy of a community-based physical activity program KM2H2 for stroke and heart attack prevention among senior hypertensive patients: a cluster randomized controlled phase-II trial. PLoS One 2015;10(10):e0139442. CENTRAL

Grant 2018 {published data only}

Grant E, Hochman J, Summapund J, Zhong H, Guo Y, Estrin D, et al. Engagement and outcomes among older adults with mobile health (mHealth) cardiac rehabilitation: pilot study. Journal of the American Geriatrics Society 2018;66:S284. CENTRAL

Ha 2011 {published data only}

Ha Yi-Kyung, Jung Yoen-Yi. Development and application of an early exercise program for open heart surgery patients. Journal of Korean Critical Care Nursing 2011;4:1p. CENTRAL

Hadadzadeh 2016 {published data only}

Hadadzadeh MH, Maiya AG, Shad B, Mirbolouk F, Padma KR, Devasia T, et al. Effects of early exercise-based cardiac rehabilitation on functional capacity in post-event CAD patients: a randomized controlled trial. Cardiopulmonary Physical Therapy Journal 2016;27:23. CENTRAL

Haddadzadeh 2011 {published data only}

Haddadzadeh MH, Maiya AG, Padmakumar R, Shad B, Mirbolouk F. Effect of exercise-based cardiac rehabilitation on ejection fraction in coronary artery disease patients: a randomized controlled trial. Heart Views 2011;12:51-7. CENTRAL

Hansen 2009 {published data only}

Hansen D, Dendale P, Leenders M, Berger J, Raskin A, Vaes J, et al. Reduction of cardiovascular event rate: different effects of cardiac rehabilitation in CABG and PCI patients. Acta Cardiologica 2009;64:639-44. CENTRAL

Hansen 2010 {published data only}

Hansen D, Dendale P, Raskin A, Schoonis A, Berger J, Vlassak I, et al. Long-term effect of rehabilitation in coronary artery disease patients: randomized clinical trial of the impact of exercise volume. Clinical Rehabilitation 2010;24:319-27. CENTRAL

Hanssen 2009 {published data only}

Hanssen TA, Nordrehaug JE, Eide GE, Hanestad BR. Does a telephone follow-up intervention for patients discharged with acute myocardial infarction have long-term effects on health-related quality of life? A randomised controlled trial. Journal of Clinical Nursing 2009;18:1334-45. CENTRAL

Hawkes 2009 {published data only}

Hawkes AL, Atherton J, Taylor CB, Scuffham P, Eadie K, Miller NH, et al. Randomised controlled trial of a secondary prevention program for myocardial infarction patients ('ProActive Heart'): study protocol. Secondary prevention program for myocardial infarction patients. BMC Cardiovascular Disorders2009;9(1):16. CENTRAL

He 2018 {published data only}

He C, Gan X, Cui N. Effects of cardiac rehabilitation training on rehabilitation of patients with coronary heart disease: a meta-analysis. Chinese Nursing Research 2018;32(15):2369-79. CENTRAL

He 2020b {published data only}

He W, Huang Y, Zhang Y, She W, Fang L, Wang Z. Cardiac rehabilitation therapy for coronary slow flow phenomenon [Kardiale Rehabilitationsbehandlung bei koronarem Slow-flow-Phanomen]. Herz 2020;45(5):468-74. CENTRAL

Heldal 2000 {published data only}

Heldal M, Sire S, Dale J. Randomised training after myocardial infarction: short and long-term effects of exercise training after myocardial infarction in patients on beta-blocker treatment. A randomized, controlled study. Scandinavian Cardiovascular Journal 2000;34(1):59-64. CENTRAL

Herring 2018 {published data only}

Herring LY, Dallosso H, Chatterjee S, Bodicoat D, Schreder S, Khunti K, et al. Physical Activity after Cardiac EventS (PACES) - a group education programme with subsequent text-message support designed to increase physical activity in individuals with diagnosed coronary heart disease: study protocol for a randomised controlled trial. Trials 2018;19(1):537. CENTRAL

Hoejskov 2019 {published data only}

Hoejskov I, Moons P, Hansen NV, La Cour S, Gluud C, Winkel P, et al. Early rehabilitation after coronary artery bypass grafting - Results from the SheppHeartCABG trial. European Journal of Preventive Cardiology 2017;24:S98. CENTRAL
Hoejskov IE, Moons P, Egerod I, Olsen PS, Thygesen LC, Hansen NV, et al. Early physical and psycho-educational rehabilitation in patients with coronary artery bypass grafting: a randomized controlled trial. Journal of Rehabilitation Medicine 2019;51(2):136-43. CENTRAL
Hojskov IE, Moons P, Hansen NV, La Cour S, Olsen PS, Gluud C, et al. SheppHeartCABG trial—comprehensive early rehabilitation after coronary artery bypass grafting: a protocol for a randomised clinical trial. BMJ Open 2017;7(1):e013038. CENTRAL

Hojskov 2016 {published data only}

Hojskov IE, Moons P, Hansen NV, Greve H, Olsen DB, La Cour S, et al. Early physical training and psycho-educational intervention for patients undergoing coronary artery bypass grafting. The SheppHeart randomized 2 × 2 factorial clinical pilot trial. European Journal of Cardiovascular Nursing 2016;15(6):425-37. CENTRAL

Houle 2011 {published data only}

Houle J, Doyon O, Vadeboncoeur N, Turbide G, Diaz A, Poirier P. Innovative program to increase physical activity following an acute coronary syndrome: randomized controlled trial. Patient Education & Counseling 2011;85:e237-44. CENTRAL

Huerre 2010 {published data only}

Huerre C, Guiot A, Marechaux S, Auffray JL, Bauchart JJ, Montaigne D, et al. Functional decline in elderly patients presenting with acute coronary syndromes: impact on midterm outcome. Archives of Cardiovascular Diseases 2010;103:19-25. CENTRAL

Indraratna 2020 {published data only}

Indraratna P, Tardo D, Yu J, Delbaere K, Brodie M, Lovell N, et al. Mobile phone technologies in the management of ischemic heart disease, heart failure, and hypertension: systematic review and meta-analysis. JMIR mHealth and uHealth 2020;8(7):17. CENTRAL

IRCT20130211012439N3 {unpublished data only}

IRCT20130211012439N3. Comparative evaluation of discharge planning and cardiac rehabilitation on the health outcomes of patients undergoing coronary artery bypass graft surgery. en.irct.ir/trial/36344 (registration date 16 January 2019). CENTRAL

IRCT2014061418075N2 {unpublished data only}

IRCT2014061418075N2. The effect of a cardiac rehabilitation program on quality of life in acute coronary syndrome ‎patients. apps.who.int/trialsearch/Trial2.aspx?TrialID=IRCT2014061418075N2 (date of registration 15 July 2014). CENTRAL

Ivers 2020 {published data only}

Ivers NM, Schwalm J, Bouck Z, McCready T, Taljaard M, Grace SL, et al. Interventions supporting long term adherence and decreasing cardiovascular events after myocardial infarction (ISLAND): pragmatic randomised controlled trial. BMJ (Clinical Research Ed.) 2020;369:m1731. CENTRAL

Izawa 2006 {published data only}

Izawa KP, Watanabe S, Oka K, Kobayashi T, Osada N, Omiya K. The effects of unsupervised exercise training on physical activity and physiological factors after supervised cardiac rehabilitation. Journal of the Japanese Physical Therapy Association 2006;9:1-8. CENTRAL

Jepma 2019 {published data only}

Jepma P, Jorstad HT, Snaterse M, Ter Riet G, Kragten HJ, Lachman S, et al. Successful lifestyle modification in older patients with coronary artery disease: results from the RESPONSE-2 Trial. European Geriatric Medicine 2019;10:S157. CENTRAL

Jepma 2020 {published data only}

Jepma P, Jorstad HT, Snaterse M, ter Riet G, Kragten H, Lachman S, et al. Lifestyle modification in older versus younger patients with coronary artery disease. Heart 2020;106(14):1066-72. CENTRAL

Ji 2019 {published data only}

Ji HG, Fang L, Yuan L, Zhang Q. Effects of exercise-based cardiac rehabilitation in patients with acute coronary syndrome: a meta-analysis. Medical Science Monitor 2019;25:5015-27. CENTRAL

Jiang 2007 {published data only}

Jiang X, Sit JW, Wong TK. A nurse-led cardiac rehabilitation programme improves health behaviours and cardiac physiological risk parameters: evidence from Chengdu, China. Journal of Clinical Nursing 2007;16(10):1886-97. CENTRAL

Jiang 2020 {published data only}

Jiang W, Zhang Y, Yan F, Liu H, Gao R. Effectiveness of a nurse-led multidisciplinary self-management program for patients with coronary heart disease in communities: a randomized controlled trial. Patient Education & Counseling 2020;103(4):854-63. CENTRAL

Jiang 2020b {published data only}

Jiang J, Chi Q, Wang Y, Jin X, Yu S. Five-animal frolics exercise improves anxiety and depression outcomes in patients with coronary heart disease: a single-blind randomized controlled trial. Evidence-based Complementary & Alternative Medicine 2020;6937158:[DOI:10.1155/2020/6937158]. CENTRAL

JPRN‐UMIN000005177 {unpublished data only}

JPRN-UMIN000005177. Japanese prospective multicenter study on outpatient cardiac rehabilitation after the percutaneous coronary intervention. apps.who.int/trialsearch/Trial2.aspx?TrialID=JPRN-UMIN000005177  (date of registration 3 March 2011). CENTRAL

JPRN‐UMIN000010031 {unpublished data only}

JPRN-UMIN000010031. Impact of comprehensive cardiac rehabilitation program on stabilization of coronary plaque after acute coronary syndrome. apps.who.int/trialsearch/Trial2.aspx?TrialID=JPRN-UMIN000010031 (date of registration 25 February 2013). CENTRAL

Kamei 2020 {published data only}

Kamei T, Kanamori T, Yamamoto Y, Edirippulige S. The use of wearable devices in chronic disease management to enhance adherence and improve telehealth outcomes: a systematic review and meta-analysis. Journal of Telemedicine and Telecare 2020 Aug 20 [Epub ahead of print]. CENTRAL [DOI: 10.1177/1357633X20937573]

Karpova 2009 {published data only}

Karpova ES, Kotel'nikova EV, Lipchanskaia TP, Poliakova NV, Liamina NP. Rehabilitative and prophylactic measures including physical training for the correction of risk factors in patients presenting with ischemic heart disease following percutaneous coronary interventions. Voprosy Kurortologii, Fizioterapii i Lechebnoi Fizicheskoi Kultury 2009;6:6-9. CENTRAL

Kavanagh 1973 {published data only}

Kavanagh T, Shephard RJ, Doney H, Pandit V. Exercise versus hypnotherapy in coronary rehabilitation. Canadian Family Physician 1973;19:62-6. CENTRAL

Kentala 1972 {published data only}

Kentala E. Physical fitness and feasibility of physical rehabilitation after myocardial infarction in men of working age. Annals of Clinical Research 1972;4(Suppl 9):1-84. CENTRAL

Keshavaraz 2020 {published data only}

Keshavaraz N, Naderifar M, Firouzkohi M, Abdollahimohammad A, Akbarizadeh MR. Effect of telenursing on the self-efficacy of patients with myocardial infarction: a quasi-experimental study. Signa Vitae 2020;16(2):92-6. CENTRAL

Kidholm 2016 {published data only}

Kidholm K, Rasmussen MK, Andreasen JJ, Hansen J, Nielsen G, Spindler H, et al. Cost-utility analysis of a cardiac telerehabilitation program: the teledialog project. Telemedicine and e-Health 2016;22(7):553-63. CENTRAL

Kim 2011 {published data only}

Kim C, Kim DY, Moon CJ. Prognostic influences of cardiac rehabilitation in Korean acute myocardial infarction patients. Annals of Rehabilitation Medicine 2011;35:375-80. CENTRAL

Kim 2012 {published data only}

Kim C, Choi HE, Kim BO, Lim MH. Impact of exercise-based cardiac rehabilitation on in-stent restenosis with different generations of drug eluting stent. Annals of Rehabilitation Medicine 2012;36:254-61. CENTRAL

Kim 2013 {published data only}

Kim HJ, Oh JK, Kim C, Jee H, Shin KA, Kim YJ. Effects of six-week cardiac rehabilitation and exercise on adiponectin in patients with acute coronary syndrome. Kardiologia Polska 2013;71:924-30. CENTRAL

Kim 2014 {published data only}

Kim S, Lee S, Kim G, Kang S, Ahn J. Effects of a comprehensive cardiac rehabilitation program in patients with coronary heart disease in Korea. Nursing & Health Sciences 2014;16(4):476-82. CENTRAL

Kirolos 2019 {published data only}

Kirolos I, Yakoub D, Pendola F, Picado O, Kirolos A, Levine YC, et al. Cardiac physiology in post myocardial infarction patients: the effect of cardiac rehabilitation programs-a systematic review and update meta-analysis. Annals of Translational Medicine 2019;7(17):10. CENTRAL

Köhler 2020 {published data only}

Köhler AK, Jaarsma T, Tingström P, Nilsson S. The effect of problem-based learning after coronary heart disease - a randomised study in primary health care (COR-PRIM). BMC Cardiovascular Disorders 2020;20:1-11. CENTRAL

Krachler 1997 {published data only}

Krachler M, Lindschinger M, Eber B, Watzinger N, Wallner S. Trace elements in coronary heart disease. Biological Trace Element Research 1997;60(3):175-85. CENTRAL

Kubilius 2012 {published data only}

Kubilius R, Jasiukeviciene L, Grizas V, Kubiliene L, Jakubseviciene E, Vasiliauskas D. The impact of complex cardiac rehabilitation on manifestation of risk factors in patients with coronary heart disease. Medicina (Kaunas, Lithuania) 2012;48:166-73. CENTRAL

Lavoie 2020 {published data only}

Lavoie A, Dubé V. Home-based motivational interviewing nursing intervention to reduce sedentary behaviour among elderly persons following coronary artery bypass surgery: a pilot study. Canadian Journal of Cardiovascular Nursing 2020;30(2):4-12. CENTRAL

Lee 2013 {published data only}

Lee HY, Kim JH, Kim BO, Byun YS, Cho S, Goh CW, et al. Regular exercise training reduces coronary restenosis after percutaneous coronary intervention in patients with acute myocardial infarction. International Journal of Cardiology 2013;167:2617-22. CENTRAL

Li 2004 {published data only}

Li H, Guo L, Sun JZ, Feng JZ, Wang P, Wu GL, et al. Effect of exercise therapy on the quality of life in patients after successful percutaneous transluminal coronary angioplasty. Chinese Journal of Clinical Rehabilitation 2004;8(9):1601-3. CENTRAL

Liao 2003 {published data only}

Liao X, Ma H, Dong Y. Effects of early rehabilitation programme on heart rate variability and quality of life in patients with uncomplicated acute myocardial infarction. Journal of Rehabilitation Medicine 2003;18(3):153-5. CENTRAL

Lie 2009 {published data only}

Lie I, Arnesen H, Sandvik L, Hamilton G, Bunch EH. Health-related quality of life after coronary artery bypass grafting. The impact of a randomised controlled home-based intervention program. Quality of Life Research2009;18(2):201-7. CENTRAL

Lin 2020 {published data only}

Lin MY, Weng WS, Apriliyasari RW, Truong PV, Tsai PS. Effects of patient activation intervention on chronic diseases: a meta-analysis. Journal of Nursing Research 2020;28(5):16. CENTRAL

Liu 2017 {published data only}

Liu SX, Chen YY, Xie KL, Zhang WL. Effects of aerobic exercise combined with resistance training on the cardiorespiratory fitness and exercise capacity of patients with stable coronary artery disease. Zhonghua Xin Xue Guan Bing Za Zhi 2017;45(12):1067-71. CENTRAL

Maddison 2015 {published data only}

Maddison R, Pfaeffli L, Whittaker R, Stewart R, Kerr A, Jiang Y, et al. A mobile phone intervention increases physical activity in people with cardiovascular disease: results from the HEART randomized controlled trial. European Journal of Preventive Cardiology 2015;22(6):701-9. CENTRAL

Madssen 2014 {published data only}

Madssen E, Arbo I, Granoien I, Walderhaug L, Moholdt T. Peak oxygen uptake after cardiac rehabilitation: a randomized controlled trial of a 12-month maintenance program versus usual care. PLoS One 2014;9(9):e107924. CENTRAL

Maldonado‐Martin 2018 {published data only}

Maldonado-Martin S, Jayo-Montoya JA, Matajira-Chia T, Villar-Zabala B, Goiriena JJ, Aispuru GR. Effects of combined high-intensity aerobic interval training program and Mediterranean diet recommendations after myocardial infarction (INTERFARCT Project): study protocol for a randomized controlled trial. Trials 2018;19(1):156. CENTRAL

Mameletzi 2011 {published data only}

Mameletzi D, Kouidi E, Koutlianos N, Deligiannis A. Effects of long-term exercise training on cardiac baroreflex sensitivity in patients with coronary artery disease: a randomized controlled trial. Clinical Rehabilitation 2011;25:217-27. CENTRAL

Mandic 2013 {published data only}

Mandic S, Hodge C, Stevens E, Walker R, Nye ER, Body D, et al. Effects of community-based cardiac rehabilitation on body composition and physical function in individuals with stable coronary artery disease: 1.6-year follow-up. Biomed Research International 2013;2013:7. CENTRAL

Manresa‐Rocamora 2020 {published data only}

Manresa-Rocamora A, Ribeiro F, Sarabia JM, Ibias J, Oliveira NL, Vera-Garcia FJ, et al. Exercise-based cardiac rehabilitation and parasympathetic function in patients with coronary artery disease: a systematic review and meta-analysis. Clinical Autonomic Research 2020;31(2):187-203. CENTRAL

Mao 2021 {published data only}

Mao S, Zhang XX, Chen MG, Wang CY, Chen QB, Guo LH, et al. Beneficial effects of baduanjin exercise on left ventricular remodelling in patients after acute myocardial infarction: an exploratory clinical trial and proteomic analysis. Cardiovascular Drugs and Therapy 2021;35:21-32. CENTRAL

Mares 2018 {published data only}

Mares MA, McNally S, Fernandez RS. Effectiveness of nurse-led cardiac rehabilitation programs following coronary artery bypass graft surgery: a systematic review. JBI Database of Systematic Reviews and Implementation Reports 2018;16(12):2304-29. CENTRAL

Martinello 2019 {published data only}

Martinello N, Saunders S, Reid R. The effectiveness of interventions to maintain exercise and physical activity in post-cardiac rehabilitation populations: a systematic review and meta-analysis of randomized controlled trials. Journal of Cardiopulmonary Rehabilitation and Prevention 2019;39(3):161-7. CENTRAL

Martinez 2011 {published data only}

Martinez DG, Nicolau JC, Lage RL, Toschi-Dias E, de Matos LD, Alves MJ, et al. Effects of long-term exercise training on autonomic control in myocardial infarction patients. Hypertension 2011;58:1049-56. CENTRAL

Mayer‐Berger 2014 {published data only}

Mayer-Berger W, Simic D, Mahmoodzad J, Burtscher R, Kohlmeyer M, Schwitalla B, et al. Efficacy of a long-term secondary prevention programme following inpatient cardiovascular rehabilitation on risk and health-related quality of life in a low-education cohort: a randomized controlled study. European Journal of Preventive Cardiology 2014;21:145-52. CENTRAL

McCleary 2020 {published data only}

McCleary N, Ivers NM, Schwalm JD, Witterman HO, Taljaard M, Desveaux L, et al. Interventions supporting cardiac rehabilitation completion: process evaluation investigating theory-based mechanisms of action. Health Psychology 2020;39(12):1048-61. CENTRAL

McDermott 2019 {published data only}

McDermott C, McCormack CM, McDermott L, O'Shea O, Kelly SM, McCarren A, et al. Comparison of selected health indices in Irish and Belgian participants commencing a home-based, technology enabled cardiac rehabilitation program. European Journal of Preventive Cardiology 2019;26:S40-S41. CENTRAL

McGregor 2020 {published data only}

McGregor G, Powell R, Kimani P, Underwood M. Does contemporary exercise-based cardiac rehabilitation improve quality of life for people with coronary artery disease? A systematic review and meta-analysis. BMJ Open 2020;10(6):19. CENTRAL

Mehani 2012 {published data only}

Mehani SH. Autonomic adaptation and functional capacity outcomes after hospital-based cardiac rehabilitation post coronary artery bypass graft. Indian Journal of Physiotherapy and Occupational Therapy2012;6(3):263. CENTRAL

Mezey 2008 {published data only}

Mezey B, Kullmann L, Smith K, Sarolta B, Sandori K, Belicza E, et al. Outpatient cardiac rehabilitation: initial experience in the first Hungarian multicenter study. Orvosi Hetilap 2008;149(8):353-9. CENTRAL

Midence 2016 {published data only}

Midence L, Arthur HM, Oh P, Stewart DE, Grace SL. Women's health behaviours and psychosocial well-being by cardiac rehabilitation program model: a randomized controlled trial. Canadian Journal of Cardiology 2016;32(8):956-62. CENTRAL
Midence L, Oh P, Grace SL. Women's health care use following cardiac rehabilitation. Journal of Cardiopulmonary Rehabilitation and Prevention 2015;35(5):374. CENTRAL
Midence L, Oh P, Grace SL. Women's risk factor control by cardiac rehabilitation program model: a randomized controlled trial. Journal of Cardiopulmonary Rehabilitation and Prevention 2015;35(5):374-5. CENTRAL

Minneboo 2017 {published data only}

Minneboo M, Lachman S, Snaterse M, Jorstad HT, Ter Riet G, Boekholdt S, et al. Community-based lifestyle intervention in patients with coronary artery disease: the RESPONSE-2 trial. Journal of the American College of Cardiology 2017;70(3):318-27. CENTRAL

Moholdt 2012a {published data only}

Moholdt T, Aamot IL, Granoien I, Gjerde L, Myklebust G, Walderhaug L, et al. Aerobic interval training increases peak oxygen uptake more than usual care exercise training in myocardial infarction patients: a randomized controlled study. Clinical Rehabilitation 2012;26:33-44. CENTRAL

Moholdt 2012b {published data only}

Moholdt T, Bekken Vold M, Grimsmo J, Slordahl SA, Wisloff U. Home-based aerobic interval training improves peak oxygen uptake equal to residential cardiac rehabilitation: a randomized, controlled trial. PLoS One 2012;7:e41199. CENTRAL

Molino‐Lova 2013 {published data only}

Molino-Lova R, Pasquini G, Vannetti F, Paperini A, Forconi T, Polcaro P, et al. Effects of a structured physical activity intervention on measures of physical performance in frail elderly patients after cardiac rehabilitation: a pilot study with 1-year follow-up. Internal and Emergency Medicine 2013;8:581-9. CENTRAL

Mozafari 2015 {published data only}

Mozafari A, Moini L, Mohebi S, Hejazi SF, Marvi M, Doram VO, et al. Quality of life and assessment of efficacy of rehabiliation on improvement of quality of life and its supbtypes after PCI in Qom. Arak Medical University Journal 2015;18(5):88-96. CENTRAL

Murphy 2012 {published data only}

Murphy SM, Edwards RT, Williams N, Raisanen L, Moore G, Linck P, et al. An evaluation of the effectiveness and cost effectiveness of the National Exercise Referral Scheme in Wales, UK: a randomised controlled trial of a public health policy initiative. Journal of Epidemiology & Community Health 2012;66:745-53. Erratum in: Journal of Epidemiology & Community Health 2012;66(11)1082. CENTRAL

Murphy 2020 {published data only}

Meehan G, Koshy A, Kunniardy P, Murphy A, Farouque O, Yudi M. A systematic review and meta-analysis of randomized controlled trials assessing smartphone based cardiac rehabilitation in patients with coronary heart diseae. Journal of the American College of Cardiology 2020;75:2004. CENTRAL
Murphy AC, Meehan G, Koshy AN, Kunniardy P, Farouque O, Yudi MB. Efficacy of smartphone-based secondary preventive strategies in coronary artery disease. Clinical Medicine Insights: Cardiology 2020;14:1-7. CENTRAL

NCT01941355 {unpublished data only}

NCT01941355. Trial of rehabilitation in phase 1 after coronary artery bypass grafting (SheppHeart). clinicaltrials.gov/NCT01941355 (first posted 13 September 2013). CENTRAL

NCT02219815 {unpublished data only}

NCT02219815. Pre-operative rehabilitation for reduction of hospitalization after coronary bypass and valvular surgery. clinicaltrials.gov/NCT02219815 (first posted 19 August 2014). CENTRAL

NCT02235753 {unpublished data only}

NCT02235753. High-intensity exercise after acute cardiac event (HITCARE). clinicaltrials.gov/NCT02235753  (first posted 10 September 2014). CENTRAL

NCT02584192 {unpublished data only}NCT02584192

NCT02584192. Efficacy of early home-based cardiac rehabilitation program for patients after acute myocardial infarction. clinicaltrials.gov/ct2/show/NCT02584192 (first posted 22 October 2015). CENTRAL

NCT02778165 {unpublished data only}NCT02778165

NCT02778165. My Cardiac Recovery (MyCaRe): a pilot RCT. clinicaltrials.gov/ct2/show/NCT02778165 (first posted 19 May 2016). CENTRAL

NCT03415841 {unpublished data only}NCT03415841

NCT03415841. Kardia - a smartphone-based care model for outpatient cardiac rehabilitation. clinicaltrials.gov/ct2/show/NCT03415841 (first posted 30 January 2018). CENTRAL

NCT03704025 {unpublished data only}NCT03704025

NCT03704025. Home-based exercise training in cardiac patients. clinicaltrials.gov/ct2/show/NCT03704025 (first posted 12 October 2018). CENTRAL

NCT04271566 {unpublished data only}NCT04271566

NCT04271566. Drug utilisation and lifestyle intervention study in patients attending cardiac outpatient clinic. clinicaltrials.gov/show/NCT04271566 (first posted 17 February 2020). CENTRAL

NCT04294940 {unpublished data only}NCT04294940

NCT04294940. Impact of a digital solution (CardiCare™) on cardiorespiratory fitness improvement in patients discharged from a phase 2 cardiac rehabilitation following an acute coronary syndrome. clinicaltrials.gov/show/NCT04294940 (first posted 4 March 2020). CENTRAL

NCT04313777 {unpublished data only}NCT04313777

NCT04313777. Virtual reality therapy in cardiology. clinicaltrials.gov/show/NCT04313777 (first posted 18 March 2020). CENTRAL

NCT04330560 {unpublished data only}NCT04330560

NCT04330560. Electronic Activity Tracking System (EATs). clinicaltrials.gov/show/NCT04330560 (first posted 1 April 2020). CENTRAL

NCT04407624 {unpublished data only}NCT04407624

NCT04407624. Effects of intermittent exercise training programs in patients with myocardial infarction. clinicaltrials.gov/show/NCT04407624 (first posted 29 May 2020). CENTRAL

NCT04409210 {unpublished data only}NCT04409210

NCT04409210. Cardio-cerebrovascular co-prevention and co-management based on Internet+. clinicaltrials.gov/show/NCT04409210 (first posted 1 June 2020). CENTRAL

NCT04441086 {unpublished data only}NCT04441086

NCT04441086. Emotion regulation intervention to sustain physical activity in rural-dwelling women and men after myocardial infarction. clinicaltrials.gov/show/NCT04441086 (first posted 22 June 2020). CENTRAL

Ngaage 2019 {published data only}

Ngaage D, Mitchell N, Dean A, Hirst C, Akowuah E, Doherty P, et al. Feasibility study of early outpatient review and early cardiac rehabilitation after cardiac surgery: mixed-methods research design - a study protocol. BMJ Open 2019;9(12):8. CENTRAL

Nichols 2020 {published data only}

Nichols S, Taylor C, Goodman T, Page R, Kallvikbacka-Bennett A, Nation F, et al. Routine exercise-based cardiac rehabilitation does not increase aerobic fitness: a CARE CR study. International Journal of Cardiology 2020;305:25-34. CENTRAL

Noites 2017 {published data only}

Noites A, Freitas CP, Pinto J, Melo C, Vieira A, Albuquerque A, et al. Effects of a phase IV home-based cardiac rehabilitation program on cardiorespiratory fitness and physical activity. Heart, Lung & Circulation 2017;26(5):455-62. CENTRAL

Okhomina 2020 {published data only}

Okhomina VI, Seals SR, Anugu P, Adu-Boateng G, Sims M, Marshall GD. Adherence and retention of African Americans in a randomized controlled trial with a yoga-based intervention: the effects of health promoting programs on cardiovascular disease risk study. Ethnicity & Health 2020;25(6):812-24. CENTRAL

Oliveira 2015 {published data only}

Oliveira NL, Ribeiro F, Alves AJ, Silva G, Silva N, Guimaraes JT, et al. Exercise-based cardiac rehabilitation improves arterial stiffness on myocardial infarction patients: a randomized controlled trial. Medicine & Science in Sports & Exercise 2014;45:324-5. CENTRAL
Oliveira NL, Ribeiro F, Silva G, Alves AJ, Silva N, Guimaraes JT, et al. Effect of exercise-based cardiac rehabilitation on arterial stiffness and inflammatory and endothelial dysfunction biomarkers: a randomized controlled trial of myocardial infarction patients. Atherosclerosis 2015;239(1):150-7. CENTRAL

Olsen 2015 {published data only}

Olsen RH, Pedersen LR, Jurs A, Snoer M, Haugaard SB, Prescott E. A randomised trial comparing the effect of exercise training and weight loss on microvascular function in coronary artery disease. International Journal of Cardiology 2015;185:229-35. CENTRAL
Olsen RH, Pedersen LR, Snoer M, Haugaard SB, Prescott E. The effect of a 12-week interval training or weight loss program on coronary flow reserve in overweight patients with coronary artery disease: primary outcome of the randomised controlled CUT-IT trial. Circulation 2016;134:S46. CENTRAL
Olsen RH, Pedersen LR, Snoer M, Jurs A, Haugaard SB, Prescott E. The effect of a 12-week interval training or weight loss program on coronary flow reserve in overweight patients with coronary artery disease: primary outcome of the randomised controlled CUT-IT trial. European Journal of Preventive Cardiology 2014;21:S46. CENTRAL
Pedersen LR, Olsen RH, Anholm C, Astrup A, Eugen-Olsen J, Fenger M, et al. Effects of 1 year of exercise training versus combined exercise training and weight loss on body composition, low-grade inflammation and lipids in overweight patients with coronary artery disease: a randomized trial. Cardiovascular Diebetology 2019;18(1):127. CENTRAL
Pedersen LR, Olsen RH, Anholm C, Walzern RL, Fenger M, Eugen-Olsen J, et al. Weight loss is superior to exercise in improving the atherogenic lipid profile in a sedentary, overweight population with stable coronary artery disease: a randomized trial. Atherosclerosis 2016;246:221-8. CENTRAL
Pedersen LR, Olsen RH, Haugaard SB, Prescott E. Weight loss or exercise to improve insulin sensitivity in overweight CAD patients? One year follow-up in the randomised CUT-IT trial. European Heart Journal 2016;37:925-6. CENTRAL
Pedersen LR, Olsen RH, Jurs A, Astrup A, Chabanova E, Simonsen L, et al. A randomised trial comparing weight loss with aerobic exercise in overweight individuals with coronary artery disease: the CUT-IT trial. European Journal of Preventive Cardiology 2015;22(8):1009-17. CENTRAL

Ozemek 2020 {published data only}

Ozemek C, Strath SJ, Riggin K, Harber MP, Imboden MT, Kaminsky LA. Pedometer feedback interventions increase daily physical activity in phase III cardiac rehabilitation participants. Journal of Cardiopulmonary Rehabilitation and Prevention 2020;40(3):183-8. CENTRAL

Parsa 2018 {published data only}

Parsa A, Sadeghi M, Roghani F, Golshani J, Khani A, Yazdekhasti S. Effects of changes in myocardial dysfunction on quality of life in patients undergoing coronary angioplasty after cardiac rehabilitation. Iranian Heart Journal 2018;19(1):52-60. CENTRAL

Passaglia 2020 {published data only}

Passaglia L, Nascimento BR, Brant LC, Ribeiro AL. Impact of text messages in a middle-income country to promote secondary prevention after acute coronary syndrome (IMPACS): a randomized trial. Journal of the American College of Cardiology 2020;75(11):2003. CENTRAL

Pedersen 2013 {published data only}

Pedersen LR, Olsen RH, Frederiksen M, Astrup A, Chabanova E, Hasbak P, et al. Copenhagen study of overweight patients with coronary artery disease undergoing low energy diet or interval training: the randomized CUT-IT trial protocol. BMC Cardiovascular Disorders 2013;13:106. CENTRAL

Peschel 2007 {published data only}

Peschel T, Sixt S, Beitz F, Sonnabend M, Muth G, Thiele H, et al. High, but not moderate frequency and duration of exercise training induces downregulation of the expression of inflammatory and atherogenic adhesion molecules. European Journal of Cardiovascular Prevention and Rehabilitation 2007;14(3):476-82. CENTRAL

Pfaeffli Dale 2015 {published data only}

Pfaeffli Dale L, Whittaker R, Dixon R, Stewart R, Jiang Y, Yannan C, et al. Acceptability of a mobile health exercise-based cardiac rehabilitation intervention: a randomized trial. Journal of Cardiopulmonary Rehabilitation and Prevention 2015;35(5):312-9. CENTRAL
Pfaeffli Dale L, Whittaker R, Jiang Y, Rolleston A, Stewart R, Maddison R. Effects of an mHealth cardiac rehabilitation intervention on lifestyle change: results from the Text4Heart randomised controlled trial. Heart, Lung and Circulation 2015;24:S77. CENTRAL

Piestrzeniewicz 2004 {published data only}

Piestrzeniewicz K, Navarro-Kuczborska N, Bolinska H, Jegier A, Maciejewski M. The impact of comprehensive cardiac rehabilitation in young patients after acute myocardial infarction treated with primary coronary intervention on the clinical outcome and leading again a "normal" life [Korzystne efekty kompleksowej rehabilitacji kardiologicznej u osob do 55 roku zycia, po zawale miesnia sercowego, leczonych za pomoca pierwotnej angioplastyki]. Polskie Archiwum Medycyny Wewnetrznej 2004;111(3):309-17. CENTRAL

Pluss 2011 {published data only}

Pluss CE, Billing E, Held C, Henriksson P, Kiessling A, Karlsson MR, et al. Long-term effects of an expanded cardiac rehabilitation programme after myocardial infarction or coronary artery bypass surgery: a five-year follow-up of a randomized controlled study. Clinical Rehabilitation 2011;25:79-87. CENTRAL

Pomeshkina 2017b {published data only}

Pomeshkina SA, Loktionova EB, Arkhipova NV, Barbarash OL. Efficacy of home-based exercise training and adherence to therapy in patients after coronary artery bypass grafting. Kardiologiia 2017;1:23-9. CENTRAL

Poortaghi 2011 {published data only}

Poortaghi S, Atri SB, Safayian A, Baghernia A. General health improves with home-based cardiac rehabilitation program. Saudi Medical Journal 2011;32:407-11. CENTRAL

Poortaghi 2013 {published data only}

Poortaghi S, Baghernia A, Golzari SE, Safayian A, Atri SB. The effect of home-based cardiac rehabilitation program on self efficacy of patients referred to cardiac rehabilitation center. BMC Research Notes 2013;6:287. CENTRAL

Powell 2018 {published data only}

Powell R, McGregor G, Ennis S, Kimani PK, Underwood M. Is exercise-based cardiac rehabilitation effective? A systematic review and meta-analysis to re-examine the evidence. BMJ Open 2018;8(3):14. CENTRAL

Pozehl 2018 {published data only}

Pozehl BJ, McGuire R, Duncan K, Kupzyk K, Norman J, Artinian NT, et al. Effects of the HEART camp trial on adherence to exercise in patients with heart failure. Journal of Cardiac Failure 2018;24(10):654-60. CENTRAL

Pratesi 2019 {published data only}

Pratesi A, Baldasseroni S, Barucci R, Pallante R, Foschini A, Venturini S, et al. Effects of cardiac rehabilitation in maintaining physical performance of patients aged >75 years over the long-term period, after an acute coronary syndrome or heart surgery. European Geriatric Medicine 2016;7:S20. CENTRAL
Pratesi A, Baldasseroni S, Burgisser C, Orso F, Barucci R, Silverii M, et al. Long-term functional outcomes after cardiac rehabilitation in older patients. Data from the Cardiac Rehabilitation in Advanced aGE: EXercise TRaining and Active follow-up (CR-AGE EXTRA) randomised study. European Journal of Preventive Cardiology 2019;26(14):1470-8. CENTRAL

Raghuram 2014 {published data only}

Raghuram N, Parachuri VR, Swarnagowri MV, Babu S, Chaku R, Kulkarni R, et al. Yoga based cardiac rehabilitation after coronary artery bypass surgery: one-year results on LVEF, lipid profile and psychological states--a randomized controlled study. Indian Heart Journal 2014;66(5):490-502. CENTRAL

Rakhshan 2019 {published data only}

Rakhshan M, Toufigh A, Dehghani A, Yakatalab S. Effect of cardiac rehabilitation on sexual satisfaction among patients after coronary artery bypass graft surgery. Journal of Cardiopulmonary Rehabilitation and Prevention 2019;39(6):E26-E30. CENTRAL

Rauch 2016 {published data only}

Rauch B, Davos CH, Doherty P, Saure D, Metzendorf M, Salzwedel A, et al. The prognostic effect of cardiac rehabilitation in the era of acute revascularisation and statin therapy: a systematic review and meta-analysis of randomized and non-randomized studies - the Cardiac Rehabilitation Outcome Study (CROS). European Journal of Preventive Cardiology 2016;23(18):1914-39. CENTRAL

Regan 2020 {published data only}

Regan R, Sampath KK, Devan H, Arumugam A. Effectiveness of physiotherapy interventions on disease-specific and generic outcomes for individuals with cardiovascular diseases in India – a systematic review and meta-analysis. Physical Therapy Reviews 2020;25(3):159-74. CENTRAL

Ribeiro 2012 {published data only}

Ribeiro F, Alves AJ, Teixeira M, Miranda F, Azevedo C, Duarte JA, et al. Exercise training enhances autonomic function after acute myocardial infarction: a randomized controlled study. Revista Portuguesa de Cardiologia 2012;31:135-41. CENTRAL

Rideout 2012 {published data only}

Rideout A, Lindsay G, Godwin J. Patient mortality in the 12 years following enrolment into a pre-surgical cardiac rehabilitation programme. Clinical Rehabilitation 2012;26:642-7. CENTRAL

Roviaro 1984 {published data only}

Roviaro S, Holmes DS, Holmsten RD. Influence of a cardiac rehabilitation program on the cardiovascular, psychological, and social functioning of cardiac patients. Journal of Behavioral Medicine 1984;7(1):61-81. CENTRAL

Sadeghi 2013 {published data only}

Sadeghi M, Garakyaraghi M, Khosravi M, Taghavi M, Sarrafzadegan N, Roohafza H. The impacts of cardiac rehabilitation program on echocardiographic parameters in coronary artery disease patients with left ventricular dysfunction. Cardiology Research and Practice2013;2013. CENTRAL

Sagar 2012 {published data only}

Sagar N, Bangi NA, Moiz JA. Effect of supervised versus home based phase II cardiac rehabilitation program on exercise capacity and quality of life in post CABG patients. Indian Journal of Physiotherapy and Occupational Therapy - An International Journal2012;6:59-64. CENTRAL

Salzwedel 2020 {published data only}

Salzwedel A, Jensen K, Rauch B, Doherty P, Metzendorf MI, Hackbusch M, et al. Effectiveness of comprehensive cardiac rehabilitation in coronary artery disease patients treated according to contemporary evidence based medicine: update of the Cardiac Rehabilitation Outcome Study (CROS-II). European Journal of Preventive Cardiology 2020;27(16):1756-74. CENTRAL

Sangster 2015 {published data only}

Sangster J, Furber S, Allman-Farinelli M, Phongsavan P, Redfern J, Haas M, et al. Effectiveness of a pedometer-based telephone coaching program on weight and physical activity for people referred to a cardiac rehabilitation program. A randomized controlled trial. Journal of Cardiopulmonary Rehabilitation and Prevention 2015;35(2):124-9. CENTRAL

Sankaran 2019 {published data only}

Sankaran S, Dendale P, Coninx K. Evaluating the impact of the HeartHab app on motivation, physical activity, quality of life, and risk factors of coronary artery disease patients: multidisciplinary crossover study. JMIR mHealth and uHealth 2019;7(4):e10874. CENTRAL

Sato 2010 {published data only}

Sato S, Makita S, Uchida R, Ishihara S, Masuda M. Effect of Tai Chi training on baroreflex sensitivity and heart rate variability in patients with coronary heart disease. International Heart Journal 2010;51:238-41. CENTRAL

Sawatzky 2014 {published data only}

Sawatzky JA, Kehler DS, Ready AE, Lerner N, Boreskie S, Lamont D, et al. Prehabilitation program for elective coronary artery bypass graft surgery patients: a pilot randomized controlled study. Clinical Rehabilitation2014;28:648-57. CENTRAL

Schneider 2020 {published data only}

Schneider LH, Hadjistavropoulos HD, Dear BF, Titov N. Efficacy of internet-delivered cognitive behavioural therapy following an acute coronary event: a randomized controlled trial. Internet Interventions 2020;21:12. CENTRAL

Schwaab 2011 {published data only}

Schwaab B, Waldmann A, Katalinic A, Sheikhzadeh A, Raspe H. Inpatient cardiac rehabilitation versus medical care - a prospective multicentre controlled 12 months follow-up in patients with coronary heart disease. European Journal of Cardiovascular Prevention & Rehabilitation 2011;18:581-6. CENTRAL

Sen 2018 {published data only}

Sen N, Tanwar S, Jain A. Better cardiovascular outcomes of combined specific indian yoga and aerobic exercise in obese coronary patients with type 2 diabetes. Journal of the American College of Cardiology 2018;71(11):2115. CENTRAL

Shabani 2010 {published data only}

Shabani R, Gaeini AA, Nikoo MR, Nikbackt H, Sadegifar M. Effect of cardiac rehabilitation program on exercise capacity in women undergoing coronary artery bypass graft in Hamadan-Iran. International Journal of Preventive Medicine 2010;1:247-51. CENTRAL

Shikhova 2010 {published data only}

Shikhova EV, Guliaeva SF, Tsarev Iu K, Chervotkina LA. Clinical and cost effectiveness of rehabilitation programs including physical exercises for patients with ischemic heart disease under conditions of resort and outpatient clinics. Voprosy Kurortologii, Fizioterapii i Lechebnoi Fizicheskoi Kultury 2010;6:9-12. CENTRAL

Siqueira‐Catania 2013 {published data only}

Siqueira-Catania A, Cezaretto A, de Barros CR, Salvador EP, Dos Santos TC, Ferreira SR. Cardiometabolic risk reduction through lifestyle intervention programs in the Brazilian public health system. Diabetology & Metabolic Syndrome 2013;5:21. CENTRAL

Sokhteh 2020 {published data only}

Sokhteh AS, Mofrad ZP, Rafizadeh O, Yaghoubinia F. The effect of cardiac rehabilitation program on functional capacity and waist to hip ratio in patients with coronary artery disease: a clinical trial. Japan Journal of Nursing Science 2020 Oct 27 [Epub ahead of print]. CENTRAL [DOI: 10.1111/jjns.12386]

Soleimannejad 2014 {published data only}

Soleimannejad K, Nouzari Y, Ahsani A, Nejatian M, Sayehmiri K. Evaluation of the effect of cardiac rehabilitation on left ventricular diastolic and systolic function and cardiac chamber size in patients undergoing percutaneous coronary intervention. Journal of Tehran University Heart Center 2014;9:54-8. CENTRAL

Son 2008 {published data only}

Son YJ. The development and effects of an integrated symptom management program for prevention of recurrent cardiac events after percutaneous coronary intervention. Journal of Korean Academy of Nursing 2008;38(2):217-28. CENTRAL

Stahle 1999 {published data only}

Stahle A, Nordlander R, Ryden L, Mattsson E. Effects of organized aerobic group training in elderly patients discharged after an acute coronary syndrome. A randomized controlled study. Scandinavian Journal of Rehabilitation Medicine 1999;31:101-7. CENTRAL

Stammers 2015 {published data only}

Stammers AN, Kehler DS, Afilalo J, Avery LJ, Bagshaw SM, Grocott HP, et al. Protocol for the PREHAB study - Pre-operative Rehabilitation for reduction of Hospitalization After coronary Bypass and valvular surgery: a randomised controlled trial. BMJ Open 2015;5(3):e007250. CENTRAL

Stenlund 2005 {published data only}

Stenlund T, Lindström B, Granlund M, Burell G. Cardiac rehabilitation for the elderly: Qi Gong and group discussions. European Journal of Cardiovascular Prevention and Rehabilitation 2005;12(1):5-11. CENTRAL

Su 2020 {published data only}

Su JJ, Yu DS, Paguio JT. Effect of eHealth cardiac rehabilitation on health outcomes of coronary heart disease patients: a systematic review and meta-analysis. Journal of Advanced Nursing 2020;76(3):754-72. CENTRAL

Subedi 2020 {published data only}

Subedi N, Rawstorn JC, Gao L, Koorts H, Maddison R. Implementation of telerehabilitation interventions for the self-management of cardiovascular disease: systematic review. JMIR mHealth and uHealth 2020;8(11):17. CENTRAL

Taguchi 2015 {published data only}

Taguchi T, Adachi H, Hoshizaki H, Oshima S, Kurabayashi M. Effect of physical training on ventilatory patterns during exercise in patients with heart disease. Journal of Cardiology 2015;65:343-8. CENTRAL

Takeyama 2000 {published data only}

Takeyama J, Itoh H, Kato M, Koike A, Aoki K, Fu LT, et al. Effects of physical training on the recovery of the autonomic nervous activity during exercise after coronary artery bypass grafting: effects of physical training after CABG. Japanese Circulation Journal 2000;64(11):809-13. CENTRAL

Taylor‐Piliae 2020 {published data only}

Taylor-Piliae RE, Finley BA. Tai Chi exercise for psychological well-being among adults with cardiovascular disease: a systematic review and meta-analysis. European Journal of Cardiovascular Nursing 2020;19(7):580-91. CENTRAL

Thakkar 2016 {published data only}

Thakkar J, Redfern J, Thiagalingam A, Chow CK. Patterns, predictors and effects of texting intervention on physical activity in CHD - insights from the TEXT ME randomized clinical trial. European Journal of Preventive Cardiology 2016;23(17):1894-902. CENTRAL

Thompson 2020 {published data only}

Thompson G, Davison GW, Crawford J, Hughes CM. Exercise and inflammation in coronary artery disease: a systematic review and meta-analysis of randomised trials. Journal of Sport Sciences 2020;38(7):814-26. CENTRAL

Tokmakidis 2003 {published data only}

Tokmakidis SP, Volaklis KA. Training and detaining effects of a combined-strength and aerobic exercise program on blood lipids in patients with coronary artery disease. Journal of Cardiopulmonary Rehabilitation 2003;23(3):193-200. CENTRAL
Volaklis KA, Douda HT, Kokkinos PF, Tokmakidis SP. Physiological alterations to detraining following prolonged combined strength and aerobic training in cardiac patients. European Journal of Cardiovascular Prevention and Rehabilitation 2006;13(3):375-80. CENTRAL

Treskes 2020 {published data only}

Treskes RW, Van Winden LA, Van Keulen N, Van der Vekde ET, Beeres SL, Atsma DE, et al. Effect of smartphone-enabled health monitoring devices vs regular follow-up on blood pressure control among patients after myocardial infarction: a randomized clinical trial. JAMA Network Open 2020;3(4):e202165. CENTRAL

Turkstra 2013 {published data only}

Turkstra E, Hawkes AL, Oldenburg B, Scuffham PA. Cost-effectiveness of a coronary heart disease secondary prevention program in patients with myocardial infarction: results from a randomised controlled trial (ProActive Heart). BMC Cardiovascular Disorders 2013;13(1):33. CENTRAL

Uhlemann 2012 {published data only}

Uhlemann M, Adams V, Lenk K, Linke A, Erbs S, Adam J, et al. Impact of different exercise training modalities on the coronary collateral circulation and plaque composition in patients with significant coronary artery disease (EXCITE trial): study protocol for a randomized controlled trial. Trials 2012;13:167. CENTRAL

Ul‐Haq 2019 {published data only}

Ul-Haq Z, Khan D, Hisam A, Yousafzai YM, Hafeez S, Zulfiqar F, et al. Effectiveness of cardiac rehabilitation on health-related quality of life in patients with myocardial infarction in Pakistan. Journal of the College of Physicians and Surgeons--Pakistan 2019;29(9):803-9. CENTRAL

Van Steenbergen 2020 {published data only}

Van Steenbergen GJ, Van Veghel D, Ter Woorst J, Van Lieshout D, Dekker L. IMPROV-ED trial: eHealth programme for faster recovery and reduced healthcare utilisation after CABG. Netherlands Heart Journal 2020;29(2):80-7. CENTRAL

Vieira 2017 {published data only}

Vieira A, Melo C, Machado J, Gabriel J. Virtual reality exercise on a home-based phase III cardiac rehabilitation program, effect on executive function, quality of life and depression, anxiety and stress: a randomized controlled trial. Disability and Rehabilitation. Assistive Technology 2018;13(2):112-23. CENTRAL
Vieira AS, Cristina Damas Argel de Melo M, Andreia Raquel Santos Noites SP, Machado JP, Joaquim Gabriel MM. The effect of virtual reality on a home-based cardiac rehabilitation program on body composition, lipid profile and eating patterns: a randomized controlled trial. European Journal of Integrative Medicine 2017;9:69-78. CENTRAL

Walters 2010 {published data only}

Walters DL, Sarela A, Fairfull A, Neighbour K, Cowen C, Stephens B, et al. A mobile phone-based care model for outpatient cardiac rehabilitation: the care assessment platform (CAP). BMC Cardiovascular Disorders 2010;10:8. CENTRAL

Wang J 2020 {published data only}

Wang J. Clinical efficacy of early cardiac rehabilitation nursing for patients with acute myocardial infarction after interventional therapy. International Journal of Clinical and Experimental Medicine 2020;13(10):7986-92. CENTRAL

Wang JW 2020 {published data only}

Wang JW, Zeng ZC, Dong R, Sheng JJ, Lai YQ, Yu JB, et al. Efficacy of a WeChat based intervention to adherence to secondary prevention in patients undergoing coronary artery bypass graft in China: a randomized controlled trial. Journal of Telemedicine & Telecare 2020;0(0):1-9. CENTRAL

Wang ZP 2019 {published data only}

Wang ZP, Ji LL, Xiang AX, Wang YC, Jiang DJ, Zhang N, et al. Effect of cardiac rehabilitation on cardiopulmonary function in patients with diabetes mellitus complicated with acute myocardial infarction and heart failure. Investigacion Clinica 2019;60(3):506-14. CENTRAL

Wang ZQ 2019 {published data only}

Wang ZQ, Peng X, Li K, Wu CJ. Effects of combined aerobic and resistance training in patients with heart failure: a meta-analysis of randomized, controlled trials. Nursing & Health Sciences 2019;21(2):148-56. CENTRAL

Wienbergen 2020 {published data only}

Weinbergen H, Fach A, Erdmann J, Katalinic A, Eisemann N, Krawitz P, et al. New technologies for intensive prevention programs after myocardial infarction: rationale and design of the NET-IPP trial. Clinical Research in Cardiology 2020;110(2):153-61. CENTRAL

Wong 2020 {published data only}

Wong EM, Chair SY, Leung DY, Sit JW, Chan AW, Leung KC. The effect of an e-health web-based support programme on psychological outcomes and health related quality of life among Chinese patients with coronary heart disease: a parallel-group randomised controlled trial. Lancet 2018;388:86. CENTRAL
Wong EM, Chair SY, Leung DYP, Sit JW. Randomized controlled trial on amount of physical exercise of a home-based e-health educational intervention for middle-aged adults with coronary heart disease. Journal of the Hong Kong College of Cardiology 2016;24:A21. CENTRAL
Wong EM, Leung DYP, Chair S, Sit JW. Effects of a web‐based educational support intervention on total exercise and cardiovascular risk markers in adults with coronary heart disease. Worldviews on Evidence-Based Nursing 2020;17(4):283-92. CENTRAL

Wood 2008 {published data only}

Wood DA, Kotseva K, Connolly S, Jennings C, Mead A, Jones J, et al. Nurse-coordinated multidisciplinary, family-based cardiovascular disease prevention programme (EUROACTION) for patients with coronary heart disease and asymptomatic individuals at high risk of cardiovascular disease: a paired, cluster-randomised controlled trial. Lancet2008;371:1999-2012. CENTRAL

Wosornu 1996 {published data only}

Wosornu D, Bedford D, Ballantyne D. A comparison of the effects of strength and aerobic exercise training on exercise capacity and lipids after coronary artery bypass surgery. European Heart Journal 1996;17(6):854-63. CENTRAL

Xia 2018 {published data only}

Xia T, Huang F, Peng Y, Huang B, Pu X, Yang Y, et al. Efficacy of different types of exercise-based cardiac rehabilitation on coronary heart disease: a network meta-analysis. Journal of General Internal Medicine 2018;33(12):2201-9. CENTRAL

Ximenes 2015 {published data only}

Ximenes NN, Borges DL, Lima RO, Barbosa e Silva MG, Silva LN, Costa MA, et al. Effects of resistance exercise applied early after coronary artery bypass grafting: a randomized controlled trial. Brazilian Journal of Cardiovascular Surgery 2015;30(6):620-5. CENTRAL

Yamamoto 2016 {published data only}

Yamamoto S, Hotta K, Ota E, Mori R, Matsunaga A. Effects of resistance training on muscle strength, exercise capacity, and mobility in middle-aged and elderly patients with coronary artery disease: a meta-analysis. Journal of Cardiology 2016;68(2):125-34. CENTRAL

Yang 2017 {published data only}

Yang X, Li Y, Ren X, Xiong X, Wu L, Li J, et al. Effects of exercise-based cardiac rehabilitation in patients after percutaneous coronary intervention: a meta-analysis of randomized controlled trials. Scientific Reports 2017;7:44789. CENTRAL

Yonezawa 2009 {published data only}

Yonezawa R, Masuda T, Matsunaga A, Takahashi Y, Saitoh M, Ishii A, et al. Effects of phase II cardiac rehabilitation on job stress and health-related quality of life after return to work in middle-aged patients with acute myocardial infarction. International Heart Journal2009;50(3):279-90. CENTRAL

Yudi 2020 {published data only}

Yudi M, Farouque O, Jelinek M. Can a smartphone-based secondary prevention program facilitate early mobilisation in patients with acute coronary syndromes? Heart Lung and Circulation 2015;24:S450. CENTRAL
Yudi MB, Clark DJ, Tsang D, Jelinek M, Kalten K, Joshi S, et al. SMARTphone-based, early cardiac REHABilitation in patients with acute coronary syndromes: a randomized controlled trial. Coronary Artery Disease 2020;16(1):170. CENTRAL
Yudi MB, Clark DJ, Tsang D, Jelinek M, Kalten K, Joshi S, et al. SMARTphone-based, early cardiac REHABilitation in patients with acute coronary syndromes [SMART-REHAB Trial]: a randomized controlled trial protocol. BMC Cardiovascular Disorders 2016;16:170. CENTRAL

Zetta 2011 {published data only}

Zetta S, Smith K, Jones M, Allcoat P, Sullivan F. Evaluating the angina plan in patients admitted to hospital with angina: a randomized controlled trial. Cardiovascular Therapeutics 2011;29(2):112-24. CENTRAL

Zhang 2019 {published data only}

Zhang H, Chang R. Effects of exercise after percutaneous coronary intervention on cardiac function and cardiovascular adverse events in patients with coronary heart disease: systematic review and meta-analysis. Journal of Sports Science & Medicine 2019;18(2):213-22. CENTRAL

Zhang 2020 {published data only}

Zhang YP, Hu RX, Han M, Lai BY, Liang SB, Chen BJ, et al. Evidence base of clinical studies on Qi Gong: a bibliometric analysis. Complementary Therapies in Medicine 2020;50:8. CENTRAL

Zhao 2018 {published data only}

Zhao F, Lin Y, Zhai L, Gao C, Zhang J, Ye Q, et al. Effects of cardiac rehabilitation qigong exercise in patients with stable coronary artery disease undergoing phase III rehabilitation: a randomized controlled trial (with video). Journal of Traditional Chinese Medical Sciences 2018;5(4):420-30. CENTRAL

Zheng 2008 {published data only}

Zheng H, Luo M, Shen Y, Ma Y, Kang W. Effects of 6 months exercise training on ventricular remodelling and autonomic tone in patients with acute myocardial infarction and percutaneous coronary intervention. Journal of Rehabilitation Medicine 2008;40(9):776-9. CENTRAL

Zhu 2013 {published data only}

Zhu LX, Ho SC, Sit JW. The effect of a TTM-based exercise stage-matched intervention on angina in patients with coronary heart disease: a randomized controlled trial. International Journal of Cardiology 2013;1:S6. CENTRAL

Zhu 2014 {published data only}

Zhu L, Ho S, Sit JW, He H. Effect of a transtheoretical model-based stage-matched exercise intervention on exercise behavior and angina in patients with coronary heart disease: a randomized controlled trial: retraction. Journal of Cardiovascular Nursing2014;29(5):471. Retraction of doi:10.1097/JCN.0000000000000162. CENTRAL

Referencias de los estudios en espera de evaluación

Aronov 2006 {published data only}

Aronov DM, Krasnitski VB, Bubnova MG, Posdniakov IuM, Ioseliani DV, Shchegol'kov AN, et al. Exercise in outpatient complex rehabilitation and secondary prophylaxis in patients with ischemic heart disease after acute coronary events (a cooperative trial in Russia). Terapevticheskii Arkhiv 2006;78(9):33-8. CENTRAL

Belardinelli 2007 {published data only}

Belardinelli R, Lacalaprice F, Piccoli G, Iacobone G, Piva R. Long-term benefits of cardiac rehabilitation in patients with incomplete revascularization: 5-year follow-up. Circulation 2007;116(16):3543. CENTRAL

Bubnova 2015 {published data only}

Bubnova M, Aronov D, Krasnitsky V, Novikova N. Effectiveness of physical rehabilitation in hypertensive patients after acute myocardial infarction treated with primary coronary intervention. Journal of Hypertension 2015;33:e136. CENTRAL

Chen 2020 {published data only}

Chen M, Liang X, Kong L, Wang J, Wang F, Hu X, et al. Effect of Baduanjin Sequential Therapy on the quality of life and cardiac function in patients with AMI after PCI: a randomized controlled trial. Evidence-based Complementary & Alternative Medicine 2020;8171549:[DOI:org/10.1155/2020/8171549]. CENTRAL

Ghroubi 2012 {published data only}

Ghroubi S, Elleuch W, Abid L, Kammoun S, Elleuch MH. The effects of cardiovascular rehabilitation after coronary stenting [Apport de la readaptation cardiovasculaire dans les suites d'une angioplastie transluminale]. Annals of Physical and Rehabilitation Medicine 2012;55:e307+e309. CENTRAL

Lubinskaya 2014 {published data only}

Lubinskaya E, Nikolaeva O. Cost-effectiveness of 2-year comprehensive cardiac rehabilitation program after coronary bypass surgery. European Journal of Preventive Cardiology 2014;21:S74. CENTRAL

Marques‐Sule 2016 {published data only}

Marques-Sule E, Sempere-Rubio N, Villaplana-Torres LA, Espi-Lopez GV, Mesa Rico R, Timonet Andreu E, et al. Cardiac rehabilitation in order to manage arterial pressure in elders after acute coronary syndrome. European Journal of Cardiovascular Nursing 2016;15:S103-4. CENTRAL
Marques-Sule E, Sempere-Rubio N, Villaplana-Torres LA, Espi-Lopez GV, Mesa Rico R, Timonet Andreu E, et al. Effectiveness of an exercise-based physiotherapy programme on exercise capacity after an acute coronary syndrome. European Journal of Cardiovascular Nursing 2016;15:S51-2. CENTRAL

NCT00725088 {unpublished data only}

NCT00725088. Study of rehabilitation therapy on patients after acute myocardial infarction. clinicaltrial.gov/NCT00725088 (first posted 30 July 2008). CENTRAL

Pater 2000 {published data only}

Pater C, Jacobsen C, Rollag A, Sandvik L, Erikssen J, Kogstad E. Design of a randomized controlled trial of comprehensive rehabilitation in patients with myocardial infarction, stabilized acute coronary syndrome, percutaneous transluminal coronary angioplasty or coronary artery bypass grafting: Akershus Comprehensive Cardiac Rehabilitation Trial (the CORE Study). Current Controlled Trials in Cardiovascular Medicine 2000;1(3):177-83. CENTRAL

Pomeshkina 2014 {published data only}

Pomeshkina SS, Loktionova EB, Arkhipova NV, Barbarash OL. Physical exercise and compliance with nonpharmacologic treatment of patients with coronary artery disease undergoing coronary artery bypass grafting. European Journal of Preventive Cardiology 2014;21:S107. CENTRAL

Rymuza 2019 {published data only}

Rymuza H, Dabrowski R, Krauze N, Kowalik I, Smolis-Bak E, Ciszewski A, et al. Exercise training after acute coronary syndromes in the octogenarians has beneficial effect on the course of the disease and the exercise tolerance: single-center, prospective 12-months evaluation. European Heart Journal 2019;40(Suppl 1):2814. CENTRAL

Sin'kova 2014 {published data only}

Sin'kova MN, Isakov LK, Pepeliaeva TV, Tarasov NI, Tepliakov AT, Mikharliamov FI. The economic analysis of the total cost of rehabilitation of the patients suffering from coronary heart disease. Voprosy Kurortologii, Fizioterapii, i Lechebnoi Fizicheskoi Kultury 2014;6:22-5. CENTRAL

Von Roeder 2011 {unpublished data only}

Von Roeder MD, Adams V, Walther C, Erbs S, Linke A, Hambrecht R, et al. Exercise training vs. PCI/stenting in stable coronary artery disease: long term effects on antiatherosclerotic mediators. European Heart Journal 2011;32:226-7. CENTRAL

Walther 2010 {unpublished data only}

Walther C, Fiess A. Preoperative exercise training is associated with less peri- and postoperative adverse events but similar long term outcome in patients with stable coronary artery disease. European Journal of Cardiovascular Prevention and Rehabilitation 2010;17:S59. CENTRAL

ACTRN12616001204437 {unpublished data only}

ACTRN12616001204437. Tai Chi for stress and cardiovascular function. www.anzctr.org.au/Trial/Registration/TrialReview.aspx?id=369625 (date registered 31 August 2016). CENTRAL

CTRI/2017/07/008951 {unpublished data only}

CTRI/2017/07/008951. Efficacy of YOGA in Indian patients with coronary artery disease. www.ctri.nic.in/Clinicaltrials/pdf_generate.php?trialid=16214&EncHid=&modid=&compid=%27,%2716214det%27 (registered on 3 July 2017). CENTRAL

CTRI/2017/10/009981 {unpublished data only}

CTRI/2017/10/009981. Efficacy of yoga based cardiac rehabilitation on clinical outcomes in post CABG patients: a randomized controlled trial. www.ctri.nic.in/Clinicaltrials/pdf_generate.php?trialid=16258&EncHid=&modid=&compid=%27,%2716258det%27 (registered on 3 October 2017). CENTRAL

CTRI/2019/06/019948 {unpublished data only}

CTRI/2019/06/019948. Effect of cardiac rehabilitation in patients undergone myocardial infarction and percutaneouscoronary intervention. www.ctri.nic.in/Clinicaltrials/pdf_generate.php?trialid=32819&EncHid=&modid=&compid=%27,%2732819det%27 (registered on 28 June 2019). CENTRAL

NCT00756379 {published data only}

NCT00756379. Century trial, a randomized lifestyle modification study for management of stable coronary artery disease (Century). clinicaltrials.gov/ct2/show/NCT00756379 (first posted 22 September 2008). CENTRAL

NCT02025257 {unpublished data only}

NCT02025257. Effects of exercise in patients with coronary artery disease aged 80 years or older. clinicaltrials.gov/NCT02025257 (first posted 1 January 2014). CENTRAL

NCT03102346 {unpublished data only}

NCT03102346. efficAcy and Safety of Home-baSed Cardiac rehabIlitation in ChineSe Revascularized patienTs (ASSIST). clinicaltrials.gov/ct2/show/NCT03102346 (first posted 5 April 2017). CENTRAL

NCT03375944 {published data only}

NCT03375944. Utilisation of telemedicine in optimal cardiac rehabilitation program in patients after myocardial revascularization (RESTORE). clinicaltrials.gov/ct2/show/NCT03375944 (first posted 18 December 2017). CENTRAL

NCT03584828 {published data only}

NCT03584828. Tele-cardiac rehabilitation program. clinicaltrials.gov/ct2/show/NCT03584828 (first posted 12 July 2018). CENTRAL

NCT03905187 {published data only}

NCT03905187. Stress management modified cardiac rehabilitation in patients after acute myocardial infarction or heart failure. https://clinicaltrials.gov/ct2/show/NCT03905187 (first posted 5 April 2019). CENTRAL

NCT03978130 {published data only}

NCT03978130. Rehabilitation at home using mobile health in older adults after hospitalization for ischemic heart disease (RESILIENT). clinicaltrials.gov/ct2/show/NCT03978130 (first posted 6 June 2019). CENTRAL

NCT04425057 {unpublished data only}

NCT04425057. Effect of a high intensity interval training in elderly with ischemic heart disease. clinicaltrials.gov/ct2/show/NCT04425057 (first posted 11 June 2020). CENTRAL

NCT04438356 {unpublished data only}

NCT04438356. M-Health care for patients after AMI on disease perception, self-efficacy, anxiety and cardio-respiratory fitness. clinicaltrials.gov/ct2/show/NCT04438356 (first posted 18 June 2020). CENTRAL

NCT04511182 {unpublished data only}

NCT04511182. Early individualized-exercise based cardiac rehabilitation programs in patients with acute myocardial infarction. clinicaltrials.gov/ct2/show/NCT04511182 (first posted 13 August 2020). CENTRAL

NCT04858503 {published data only}

NCT04858503. An internet-based cardiac rehabilitation enhancement (i-CARE) Intervention to support self-care of patients with coronary artery disease. clinicaltrials.gov/ct2/show/NCT04858503 (first posted 26 April 2021). CENTRAL

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Referencias de otras versiones publicadas de esta revisión

Anderson 2016

Anderson L, Thompson DR, Oldridge N, Zwisler AD, Rees K, Martin N, et al. Exercise-based cardiac rehabilitation for coronary heart disease. Cochrane Database of Systematic Reviews 2016, Issue 1. Art. No: CD001800. [DOI: 10.1002/14651858.CD001800.pub3]

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Sibilitz KL, Berg SK, Tang LH, Risom SS, Gluud C, Lindschou J, et al. Exercise-based cardiac rehabilitation for adults after heart valve surgery. Cochrane Database of Systematic Reviews 2016, Issue 3. Art. No: CD010876. [DOI: 10.1002/14651858.CD010876.pub2]

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Characteristics of studies

Characteristics of included studies [ordered by study ID]

Andersen 1981

Study characteristics

Methods

Study design: RCT

Country: Denmark

Dates participants recruited: NR

Maximum follow‐up: 37 months

Post MI randomised four weeks after discharge.

Participants

Inclusion criteria: < 66 yrs with 1st MI

Exclusion criteria: participants without motivation and participants with impairment of the motorial apparatus that excluded training

N randomised: total: 75; intervention: 38; comparator: 37

Diagnosis (% of participants): post MI: 100%

Age (mean ±SD): intervention: 52.2 ± 7.5; comparator: 55.6 ± 6.3

Percentage male: intervention: 100%; comparator: 100%
Ethnicity: NR

Interventions

Intervention: aerobic activity e.g. running, cycling, skipping + weights for 1 hour x 2 weekly for 2 months, then x 1 week for 10 months. Then continue at home.

Components: exercise only

Setting: centre‐based initially, followed by home

Exercise programme modality: e.g. running, cycling, skipping
Length of session: 1 hour
Frequency: twice a week for two months, and then weekly for 10 months
Intensity: initial load of 150 kpm/min (24.5 W). increased with 150 kpm/min every 6 mins
Resistance training included? yes ‐ weights

Total duration: 12 months

Co‐interventions: none described

Comparator: non‐trained group (although some participants trained on own initiative)

Co‐interventions: none described

Outcomes

Total and CHD mortality

Non‐fatal MI

Outcomes measured at 1, 13, 25 and 37 months post‐discharge

Source of funding

NR

Conflicts of interest

NR

Notes

88 participants were randomised, but 13 failed to follow up. Therefore, 75 took part in the study.

Several participants in control group trained on own initiative, but were analysed as intention‐to‐treat.
Triallists concluded that physical training after MI appears to reduce consequences and to improve PWC, but PWC declines once participant is on their own.
Physical training had no effect on period of convalescence or return to work, but age and previous occupation were of significance.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"random numbers"

Allocation concealment (selection bias)

Unclear risk

Allocation concealment not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

15% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points

Aronov 2010

Study characteristics

Methods

Study design: multicentre RCT (20 cities)

Country: Russia

Dates participants recruited: NR

Maximum follow‐up: 1 year

Participants

Inclusion criteria: people 3 to 8 weeks after MI, unstable angina or reconstructive coronary arteries intervention. In some cases (at discretion of the researchers), people with stable angina after hospital treatment with unconfirmed diagnosis of MI or unstable angina were included in the study.

Exclusion criteria: none reported

N Randomised: total: 392; intervention: 197; comparator: 195

Diagnosis (% of participants):

Stable angina: intervention: 62.7; comparator: 77.7

Post MI: intervention: 78.4; comparator: 77.3

Unstable angina: intervention: 5.0; comparator: 10.9

(not mutually exclusive)

Age (mean ± SD): intervention: 51.9 ± 7.2; comparator: 51.9 ± 7

Percentage male: intervention: 95.5; comparator: 91.7
Ethnicity: NR

Interventions

Intervention: participants of the main group received moderate‐intensity PT (50% to 60% of the performed capacity by bicycle ergometry (BE) test) 3 times per week with duration of exercises from 45 minutes to 1 hour for 1 year

Components: exercise only

Setting: NR

Exercise programme modality: cycling
Length of session: 45‐60 mins
Frequency: 3 times a week
Intensity: 50% to 60% of the performed capacity by bicycle ergometry test
Resistance training included? No

Total duration: 1 year

Co‐interventions: participants received standard medical therapy described below.

Comparator: participants received standard medical therapy which included beta‐blocker, acetylsalicylic acid or other antithrombotic drug, as well as nitrate, and ACE inhibitor. Some participants took lipid‐lowering drugs.

Co‐interventions: none described

Outcomes

Mortality and MI

Source of funding

NR

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Method of randomisation not described….“patients were randomised into 2 groups….”

Allocation concealment (selection bias)

Unclear risk

Allocation concealment not described

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding of assessments not described

Incomplete outcome data (attrition bias)
All outcomes

Low risk

Withdrawals were similar for both groups.

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points.

Aronov 2019

Study characteristics

Methods

Study design: single‐centre RCT

Country: Russia

Dates participants recruited: NR

Maximum follow‐up: 12 months

Participants

Inclusion criteria: male participants with coronary artery disease that underwent CABG 3 to 8 weeks before enrolment

Exclusion criteria: early post‐surgery stenocardia, pericarditis (diagnosed by echocardiography), pericardial effusion with a volume of pericardial fluid exceeding 200 mL, separation of the pericardial layers in diastole more than 1 cm, or moderate pericardial effusion with signs of inflammation), sternal diastasis and other post‐surgery complications (impaired wound healing, suture sinuses or pain), cardiac arrhythmia, heart failure, maximal power output in cycle ergometer test < 50 W, hypertension ( ≥ 180/100 mmHg), history of stroke or transient ischaemia, carotid artery narrowing by ≥ 50%, intermittent claudication syndrome, relapsing thromboembolism complications, severe diabetes mellitus, morbid obesity, pulmonary disorders, concurrent diseases that impede physical training.

N randomised: total: 36; intervention: 18; comparator: 18

Diagnosis (% of participants): intervention: received CABG 17 (94%), history of MI 13 (72.2%), history of angina 13 (72.2%); comparator: received CABG 17 (94%), history of MI 10 (55.6%), history of angina 15 (83.3%).

Age (mean ±SD): intervention: 58.6 ± 7.0; comparator 55.9 ± 7.0

Percentage male: 100%

Ethnicity: NR

Interventions

Intervention: “School for coronary bypass patients” ‐ an integrated cardiac rehabilitation program. Weekly group information sessions (60 to 80 min) under guidance by a cardiologist. Sessions focused on most common topics related to rehabilitation after CABG: cardiac diseases, cardiovascular risk factors, smoking cessation, stress management, anxiety and depression, and “hearthealthy” diet and cooking. Supervised physical training 3 times per week for 4 months. 60‐minute sessions including breathing exercise, physical drill complexes and cycling on a stationary bicycle at moderate intensity (50% to 60% max. power assessed by graded cycle ergometer test). After 4 months centre‐based CR, participants continued home‐based exercise for 6 months. Participants provided with written instructions and a video with recommendations to follow the programme for a year. Participants instructed to perform self‐assessment of their physical well being at home. Exercises included breathing, physical drill and walking.

Components: exercise plus education plus individual counselling sessions upon request

Setting: centre‐ and then home‐based

Exercise programme modality: breathing exercises, physical drills, centre‐based stationary cycling, and home‐based walking
Length of session: 1 hour
Frequency: three sessions per week
Intensity: 50% to 60% maximal power
Resistance training included? No

Total duration: 10 months

Co‐interventions: none described

Comparator: control group participants attended the same educational sessions as intervention group. Participants received a recommendation to follow physical training at home on their own.

Co‐interventions: none described

Outcomes

Total mortality, revascularisations, hospitalisations, HRQoL

Source of funding

NR

Conflicts of interest

None declared

Notes

Authors contacted for further clinical outcomes and QoL data but no response received

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

No information provided regarding methods used to generate allocation sequence

Allocation concealment (selection bias)

Unclear risk

No information provided regarding methods used to conceal allocation sequence

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

No information provided regarding blinding of outcome assessment for any of the main outcomes of interest

Incomplete outcome data (attrition bias)
All outcomes

Low risk

Only 1 participant in control group reported as withdrawn for non‐medical reasons

Selective reporting (reporting bias)

Unclear risk

No protocol paper or clinical trials registration available

Bäck 2008

Study characteristics

Methods

Study design: single‐centre RCT

Country: Sweden

Dates participants recruited: 2004 to 2006

Maximum follow‐up: 8 months (6 months following PCI)

Participants

Inclusion criteria: coronary artery stenosis documented by angiography or previous coronary artery bypass grafting, classes I‐III angina pectoris, classified according to Canadian Cardiovascular Society.

Exclusion criteria: disabling disease that hindered regular exercise, or if the individual has already engaged in exercise more than 3 days/week

N randomised: total: 37; intervention: 21; comparator: 16

Diagnosis (% of participants): stable CAD: 100%

Age (years): 63.6 years; intervention: 61.5 (59.8 to 65.5); comparator: 64 (58.5 to 71.0)

Percentage male: 86.5%; intervention: 81.0%; comparator: 93.8%

Ethnicity: NR

Interventions

Intervention: participants were asked to exercise at home on a bicycle ergometer for 30 min (including a 10‐minute warm‐up and a 5‐minute cool‐down), 5 days a week for 8 months. The training programme was initiated 2 months before the PCI. Twice a week the training participants were allowed to exchange cycling for an equivalent exercise such as jogging or swimming.

Components: exercise and education

Setting: home

Exercise programme modality: bicycle ergometer
Length of session: 30 min
Frequency: 5 times a week.
Intensity: 70% of V02max.
Resistance training included? Resistance exercise with elastic bands, 3 times a week

Total duration: 8 months

Co‐interventions: participants in both groups were invited to participate in the CR care consisting of group‐based lifestyle education and aerobic as well as resistance exercise twice a week during months 4 to 6.

Comparator: usual care

Co‐interventions: as above

Outcomes

PCI at 2 months before PCI and 6 months after PCI

Source of funding

The Swedish Heart Association, the Research and Development Council for Southern Gothenberg and Bohuslan, and Rene Eanders Foundation

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomised"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

8.1% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points (although absolute values not always given)

Belardinelli 2001

Study characteristics

Methods

Study design: single‐centre RCT

Country: Italy

Dates participants recruited: NR

Maximum follow‐up: 33 (SD 7) months

Participants

Inclusion criteria: successful procedure of coronary angioplasty in 1 or 2 native epicardial coronary arteries and ability to exercise

Exclusion criteria: previous coronary artery procedures, cardiogenic shock, unsuccessful angioplasty (defined as residual stenosis > 30% of initial value), complex ventricular arrhythmias, uncontrolled hypertension and diabetes mellitus, creatinine > 2.5 mg/dL, orthopedic or neurological limitations to exercise or unstable angina after procedure and before enrolment

N randomised: total:118; intervention: 59; comparator: 59

Diagnosis (% of participants):

Myocardial infarction: intervention: 51; comparator: 47

Hypercholesterolemia: intervention: 61; comparator: 54

Diabetes: intervention: 17; comparator: 20

Hypertension: intervention: 42; comparator: 47

LVEF (%): intervention: 52 (SD 16); comparator: 50 (SD 14)

Age (mean ± SD): intervention: 53 ± 11; comparator: 59 ± 10

Percentage male: intervention: 83.1%; comparator: 84.8%

Percentage white: NR

Interventions

Intervention: exercise sessions were performed at the hospital gym and were supervised by a cardiologist. After a 15‐min phase of stretching and callisthenics, participants pedaled on an electronically‐braked cycle ergometer at the target work rate for 30 min. This working phase was preceded by a 5‐min loadless warm‐up and followed by 3 min of unloaded cool‐down pedaling.

Components: exercise only

Setting: supervised in hospital gym

Exercise programme modality: electronically‐braked cycle ergometer
Length of session: 53 min.
Frequency: 3 sessions/week
Intensity: 60% of peak oxygen uptake (VO2)
Resistance training included? Yes ‐ callisthenics

Total duration: six months

Co‐interventions: none described

Comparator: control participants were recommended to perform basic daily mild physical activities but to avoid any physical training. A list of acceptable physical activities was provided, together with a diary to report daily activities.

Co‐interventions: none described

Outcomes

Cardiac mortality; myocardial infarction; coronary angioplasty (percutaneous transluminal coronary angioplasty, coronary stent); coronary artery bypass graft; health‐related quality of life: MOS Short‐Form General Health Survey

Source of funding

NR

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Not reported

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

Cardiac events of 12 participants who were excluded not accounted for

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points.

Bell 1998

Study characteristics

Methods

Study design: multicentre RCT (5 sites), participants randomised 4 to 6 days post‐event.

Two independent 2‐way evaluations: conventional CR versus the Heart Manual (HM) and HM versus usual care

Country: UK

Dates participants recruited: NR

Maximum follow‐up: 1 year

Participants

Inclusion criteria: post MI < 65 years

Exclusion criteria: physical infirmity which precludes exercise, inability to speak or read English, dementia or psychosis, age over 75 years, residency more than 20 miles from the coronary care unit (CCU), serious persisting complications which had not been stabilised at time of proposed randomisation including: continuing post‐infarct ischaemia, clinically significant heart failure, important cardiac arrhythmias, conduction disturbances (LBBB > mobitz type 1, 2nd degree AV block), concurrent illnesses (e.g. severe respiratory disease, renal insufficiency, etc.), any other condition which, in the consultant's opinion, would interfere with the individual's successful participation in the programme, or previous participation in the rehabilitation programme

N randomised: total: 353; intervention: 251; comparator: 102

Diagnosis (% of participants): MI: 100%

Age (mean ±SD): for women: 60.7 ± 7.2 to 64.3 ± 7.3; for men: 57.8 ± 8.9 to 59.4 ± 9.4

Percentage male: 78%

Ethnicity: NR

Interventions

Intervention:

Heart Manual group: the Heart Manual is a comprehensive home‐based programme which includes an exercise regimen, relaxation and stress management techniques, specific self‐help treatments for psychological problems commonly experienced by MI patients and advice on coronary risk‐related behaviours.

Components: exercise, education and psychological

Setting: home

Exercise programme modality: walking
Length of session: NR
Frequency: NR
Intensity: NR
Resistance training included? NR

Total duration: up to 6 weeks

Co‐interventions: relaxation and stress management techniques, specific self‐help treatments for psychological problems commonly experienced by MI patients and advice on coronary risk‐related behaviours

Conventional CR group: 1 to 2 group classes per week, walking etc., other days for 8 to 12 weeks with multidisciplinary team

Comparator: usual care

Co‐interventions: none described

Outcomes

Total mortality, health‐related quality of life: Nottingham Health Profile

Source of funding

British Heart Foundation

Conflicts of interest

NR

Notes

Hospital readmissions significantly reduced in Heart Manual group compared with conventional CR and control in initial six‐month period

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"Randomisation was achieved by providing each hospital with a series of sealed envelopes containing cards evenly distributed between conditions. The envelopes were taken sequentially and, before opening the envelope, the patient's surname was written diagonally across the sealed flap, in such a way that when the envelope was opened the name was 'torn in two'. Opened envelopes were retained and returned to the trial coordinator. The importance of remaining neutral when advising the patients of the outcome of randomisation was emphasised in the written protocol and was reinforced during the sessions which were held to familiarise facilitators with the protocol."

Allocation concealment (selection bias)

Low risk

"Randomisation was achieved by providing each hospital with a series of sealed envelopes containing cards evenly distributed between conditions. The envelopes were taken sequentially and, before opening the envelope, the patient's surname was written diagonally across the sealed flap, in such a way that when the envelope was opened the name was 'torn in two'. Opened envelopes were retained and returned to the trial coordinator. The importance of remaining neutral when advising the patients of the outcome of randomisation was emphasised in the written protocol and was reinforced during the sessions which were held to familiarise facilitators with the protocol."

Comment: participants were informed of outcome of randomisation.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

Low risk

1.5% lost to follow‐up and reported description of withdrawals and/or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points.

Bengtsson 1983

Study characteristics

Methods

Study design: single‐centre RCT

Country: Sweden

Dates participants recruited: October 1973 to January 1975

Maximum follow‐up: 14 months

Participants

Inclusion criteria: participants > 65 years with MI

Exclusion criteria: severe cardiac failure, post myocardial infarction (PMI)‐syndrome, aortic regurgitation, cerebral infarct hemiparesis, disease of hip, status post‐poliomyelitis, amputation of lower extremity, diabetes with retinopathy, hyper/hypo thyroidism, hyperparathyroidism, mental illness

N randomised: total: 87; intervention: 44; comparator: 43

Diagnosis (% of participants): AMI: 100%

Age (years ± SD): intervention: 55.3 ± 6.6; comparator: 57.1 ± 6.6

Percentage male: 85%

Ethnicity: NR

Interventions

Intervention: physical training under the supervision of a specially‐trained physiotherapist attached to the cardiological unit. Exercises consisted of interval training of large muscle groups on a mechanically‐braked ergometer bicycle, callisthenics and jogging for 30 minutes twice weekly over a period of 3 months. The intensity of the exercises was graded individually on the basis of the findings at the exercise tolerance test, and a maximum heart rate at exercise was prescribed.

Components: exercise, counselling and social measures

Setting: supervised at the cardiological unit

Exercise programme modality: ergometer cycling
Length of session: 30 min.
Frequency: twice per week
Intensity: 90% of the max heart rate at the exercise tolerance test
Resistance training included? Interval training of large muscle groups, callisthenics

Total duration: 3 months

Co‐interventions: Counselling was given, supplying practical information on avoiding weight gain, to stop smoking, to keep on with the physical exercise and to resume leisure activities as much as possible.

Comparator: conventional care

Co‐interventions: none described

Outcomes

Total mortality, CHD mortality, non‐fatal MI up to average 14 months

Source of funding

NR

Conflicts of interest

NR

Notes

Most emphasis on social/ psychological aspects.

171 participants were randomised and at discharge, the cardiologist decided whether the participant was fit to take part in the rehabilitation programme ‐ 45 participants were excluded at this point. Seven people in the intervention group declined to take part, but six of these were seen at follow‐up and included in the analysis because "control group probably had a comparable number who would have declined further treatment."

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"allocated at random"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

Description of withdrawals and dropouts: intervention group 29%; control group 33% lost to follow‐up from 126 who took part. 171 were randomised and then 45 excluded by cardiologist.

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points.

Bertie 1992

Study characteristics

Methods

Study design: single‐centre RCT; participants were randomised on day of discharge after MI

Country: UK

Dates participants recruited: NR

Maximum follow‐up: 24 months

Participants

Inclusion criteria: men and women with AMI

Exclusion criteria: uncontrolled heart failure; serious rhythm disturbances which persisted and required treatment at time of discharge; another disabling disease

N randomised: total: 110; intervention: 57; comparator: 53

Diagnosis (% of participants): AMI: 100%

Age (mean ± SD): intervention: 52.1 ± 1.3; comparator: 52.7 ± 1.3

Percentage male: NR

Ethnicity: NR

Interventions

Exercise: a formal rehabilitation programme at the hospital started 3 weeks post‐discharge. The programme concentrated mainly on standard pulse‐monitored group exercise, supervised by a physiotherapist. Participants completed a circuit of 12 exercises, and after a five‐minute interval, they repeated the circuit, up to a maximum of four circuits.

Components: exercise

Setting: supervised group sessions in the hospital gymnasium

Exercise programme modality: "group exercises"
Length of session: NR
Frequency: twice per week
Intensity: NR

Total duration: 4 weeks

Co‐interventions: health, smoking and dietary advice and a relaxation technique

Comparator: standard hospital care

Co‐interventions: all participants were asked to stop smoking and given dietary advice either for weight reduction or because of elevated serum cholesterol. To boost confidence, each participant was asked to walk up two flights of stairs under supervision and was given advice on mobilisation on discharge.

Outcomes

Total mortality, non‐fatal MI, revascularisation; assessments at day of discharge, 3rd week after discharge; after rehabilitation (for intervention group); four months after infarct and 12 to 24 months after infarct)

Source of funding

NR

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomised"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

24% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points.

Bethell 1990

Study characteristics

Methods

Study design: single‐centre RCT

Country: UK

Dates participants recruited: 1 December 1979 to March 1984

Maximum follow‐up: 5 years

Participants

Inclusion criteria: < 65 years post MI; history of chest pain typical of MI, progressive ECG changes, rise and fall in aspartate transaminase concentrations with at least one reading above 40 units/mL

Exclusion criteria: medical or orthopaedic problems that precluded their taking part in the exercise course; insulin‐dependent diabetes mellitus; atrial fibrillation; on investigator's personal general practice list

N randomised: total: 200; intervention: 99; comparator: 101

Diagnosis (% of participants): MI: 100%

Age (mean ± SD): intervention: 54.2 ± 7.2; comparator: 54.2 ± 7.2

Percentage male: intervention: 100%; comparator: 100%

Ethnicity: NR

Interventions

Intervention: treatment participants entered a three‐month course of three times a week circuit training.

Components: exercise only

Setting: centre

Exercise programme modality: 8 stage circuit aerobic training
Length of session: NR
Frequency: 3 times a week
Intensity: 70% to 85% predicted HR max.
Resistance training included? Yes ‐ weight training

Total duration: 3 months

Co‐interventions: NR

Comparator: participants were given a short talk on the sort of exercise that they might safely take unsupervised

Co‐interventions: NR

Outcomes

Total mortality, CHD mortality, non‐fatal MI

(11 year follow‐up published in 1999. Five‐year follow‐up data from unpublished material used for meta analysis.)

Source of funding

British Heart Foundation and Wessex Regional Health Authority

Conflicts of interest

NR

Notes

229 participants were randomised; 14 in the intervention group and 15 in control dropped out before the first exercise test due to death, refusal or other problems. Therefore 200 took part in the study.

Cardiac mortality of 3% per annum, once participants survived to be in the trial. Suggests more severely affected participants were not included.
Significant predictors of cardiac death were pulmonary oedema on admission, complications during admission, one or more previous infarcts, increasing age and low initial fitness.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Random letter sequence

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

16% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points.

Bettencourt 2005a

Study characteristics

Methods

Study design: single‐centre RCT (1:3 randomisation)

Country: Portugal

Dates participants recruited: 1 September 2001 to 31 December 2002

Maximum follow‐up: 1 year

Participants

Inclusion criteria: participants without previous cardiological follow‐up, with > 4 years’ education, following hospitalisation for acute coronary syndrome (ACS)

Exclusion criteria: none stated

N randomised: total: 126; intervention: 31; comparator: 95

Diagnosis (% of participants):

Unstable angina: intervention 20; comparator: 27

Non‐Q wave MI: intervention 33; comparator: 31

Anterior MI: intervention 23; comparator: 20

Inferior MI: intervention 24; comparator: 21

MI of undetermined location: intervention 10; comparator 11

Age (years): intervention: 56 (range: 31‐80); comparator: 58 (range: 33‐86)

Percentage male: intervention: 84 %; comparator 83%

Ethnicity: NR

Interventions

Intervention: the sessions took place in the hospital’s gymnasium under qualified supervision. They consisted of a warm‐up period at the beginning of each session, 20 to 30 minutes on a treadmill or ergometric bicycle and a recovery period with low intensity activities. The exercise programme was initially based on the maximum heart rate reached on the exercise test prior to beginning the programme (performed on average five weeks after the ACS).

Components: exercise only

Setting: aerobic exercise in supervised group sessions

Exercise programme modality: treadmill and bicycle
Length of session: 60 minutes
Frequency: 3 times/week
Intensity: NR
Resistance training included? No

Total duration: 12 weeks, followed by one session a month for the remainder of the year

Co‐interventions: none described

Comparator: standard follow‐up consisting of a mean of 3.5 consultations per year following the first event

Co‐interventions: none described

Outcomes

HRQoL

Source of funding

The Commission to Foster Health Care Research

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"...the patients were randomly allocated to our hospital’s cardiac rehabilitation program or standard cardiological follow‐up."

Allocation concealment (selection bias)

High risk

Allocation concealment not described

Blinding of outcome assessment (detection bias)
All outcomes

High risk

“nature of the intervention being assessed did not permit blinding”

Incomplete outcome data (attrition bias)
All outcomes

Low risk

There was no loss to follow‐up.

Selective reporting (reporting bias)

Low risk

All outcomes described in the methods were reported in the results section for both time points.

Briffa 2005

Study characteristics

Methods

Study design: multicentre open RCT (2 sites)

Country: Australia

Dates participants recruited: 2‐year period. No dates given.

Maximum follow‐up: 1 year

Participants

Inclusion criteria: uncomplicated acute myocardial infarction (AMI) or recovery from unstable angina aged under 75 years, self‐caring, adequately literate in the English language, residing in the geographical area of the health service

Exclusion criteria: presentation with uncompensated heart failure, uncontrolled arrhythmias, severe and symptomatic aortic stenosis, or other conditions precluding physical activity

N randomised: total: 113; intervention: 57; comparator: 56

Diagnosis (% of participants):

AMI: intervention 36.8; comparator 48.2

Unstable angina: intervention 63.2; comparator 51.8

Thrombolytic therapy: intervention 14.0; comparator 25.0

PCI/CAGS: intervention 59.6; comparator 46.4

Prior AMI, PCI, CAGS: intervention 36.8; comparator 50.0

Age (Mean ± SD): intervention: 60.8 ± 8.7; comparator: 61.9 ± 9.4

Percentage male: intervention 72%; comparator 75%

Ethnicity: NR

Interventions

Intervention: comprehensive exercise‐based outpatient cardiac rehabilitation

Components: exercise plus education plus psychosocial counselling

Setting: hospital‐based, supervised exercise

Exercise programme modality: aerobic circuit training interspaced with resistance training
Length of session: 60 to 90 minutes
Frequency: 3 times per week
Intensity: NR
Resistance training included? Yes

Total duration: 6 weeks

Co‐interventions: 45 minutes of education (12 occasions) and 45 minutes of psychosocial counselling (6 occasions). If necessary, additional one‐on‐one counselling was provided.

Comparator: conventional care: participants from both groups received individualised medical treatment including non‐invasive and invasive cardiological procedures, surgical revascularisation, pharmacotherapy, and lifestyle counselling, as determined by their usual doctors.

Co‐interventions: none described ("Access to community cardiac rehabilitation programs was limited for the conventional management group")

Outcomes

Costs, HRQoL

Source of funding

University of Sydney, the Cardiac Society of Australia and New Zealand, and the National Heart Foundation of Australia; NHMRC; Department of Cardiology, Royal Prince Alfred Hospital

Conflicts of interest

"None identified"

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"...randomisation using dynamic balancing was performed"

Allocation concealment (selection bias)

Low risk

“Central randomisation of participants was performed at the National Health and Medical Research Council Clinical Trials Centre”

Blinding of outcome assessment (detection bias)
All outcomes

High risk

“Open” trial so we assume that outcomes were not blinded

Incomplete outcome data (attrition bias)
All outcomes

Low risk

One person was lost to follow‐up and 5 participants changed groups; 2 participants were excluded from each group i.e. 4/113 (4%)

Selective reporting (reporting bias)

Low risk

All outcomes described in the methods section are reported in results.

Bubnova 2019

Study characteristics

Methods

Study design: single‐centre RCT

Country: Russia

Dates participants recruited: NR

Maximum follow‐up: 12 months.

Participants

Inclusion criteria: male and female participants of working age (male < 60 years, female < 55 years) with acute MI (3 to 8 weeks prior), signed informed consent to participate, absence of generally accepted contraindications to performing exercise training

Exclusion criteria: left ventricular aneurysm with thrombosis, stroke, serious disturbances in the rhythm and conduction of the heart, uncontrolled arterial hypertension with blood pressure ≥ 180/100 mmHg, NYHA class III‐IV heart failure, thromboemboli, aortic aneurysm, history of syncope, thrombophlebitis, phlebothrombosis, musculoskeletal disorders, moderate to severe diabetes, severe concomitant diseases, chronic respiratory, hepatic or renal failure

N randomised: total: 300; intervention: 155; comparator: 145. Groups then split into 3 subgroups according to rehabilitation potential (intervention: low n = 32, average n = 55, high n = 68; control: low n = 22, average n = 64, high n = 59)

Diagnosis (% of participants): 100% acute MI (68% STEMI)

Age (mean ±SD): intervention: 49.9 ± 7.2; comparator 50.9 ± 6.1

Percentage male: intervention: 93.5%, comparator: 92.4%

Ethnicity: NR

Interventions

Intervention: physical rehabilitation classes consisting of gymnastics exercises carried out for 60 minutes in groups under supervision of a cardiologist 3 times per week for 1 year.

Components: exercise only

Setting: centre‐based

Exercise programme modality: gymnastic exercises
Length of session: 1 hour
Frequency: three sessions per week
Intensity: not reported
Resistance training included? No

Total duration: 1 year

Co‐interventions: none described

Comparator: no exercise training

Co‐interventions: none described

Outcomes

HRQoL, mortality, MI

Source of funding

Not reported

Conflicts of interest

None declared

Notes

Paper translated from Russian

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"Patients were randomized using the envelope method"; no further detail reported

Allocation concealment (selection bias)

Unclear risk

"Patients were randomized using the envelope method"; no further detail reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

No detail regarding outcome assessment blinding was reported

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

No PRISMA flow diagram provided, no N in tables and text unclear about attrition, appears that there was no loss to follow‐up

Selective reporting (reporting bias)

Unclear risk

No published protocol, outcomes described in methods appear to be reported in the results. Cardiovascular complications unclear

Bubnova 2020

Study characteristics

Methods

Study design: single‐centre RCT (4 arms)

Country: Russia

Dates participants recruited: NR

Maximum follow‐up: 12 months

Participants

Inclusion criteria: patients after AMI ( > 3 weeks) and percutaneous coronary interventions (PCI) at the age of < 60 years for men and < 55 years for women

Exclusion criteria: inadequately controlled hypertension, aortic or left ventricular (LV) aneurysm with thrombosis, serious arrhythmias, NYHA class III‐IV HF, BMI ≥ 40 kg/m2, moderate/severe diabetes and other severe comorbidities

N randomised: total: 312; intervention 1 (BMI < 30 kg/m2) = 78; intervention 2 (BMI ≥ 30 kg/m2) = 78; comparator 1 (BMI < 30 kg/m2) = 78; comparator 2 (BMI ≥ 30 kg/m2) = 78

Diagnosis (% of participants): 100% post MI with PCI

Age (mean ±SD): intervention 1 (BMI < 30 kg/m2) = 51.9±7.9; intervention 2 (BMI ≥ 30 kg/m2) = 51.7±6.8; comparator 1 (BMI < 30 kg/m2) = 52.2±7.2; comparator 2 (BMI ≥ 30 kg/m2) = 52.6±6.7

Percentage male: intervention 1 (BMI < 30 kg/m2) = 93.6%; intervention 2 (BMI ≥ 30 kg/m2) = 96.2%; comparator 1 (BMI < 30 kg/m2) = 94.9%; comparator 2 (BMI ≥ 30 kg/m2) = 93.6%

Ethnicity: NR

Interventions

Intervention: physical rehabilitation programme included group exercise classes lasting 60 minutes 3 times/week involving a set of gymnastic exercises of moderate intensity

Components: exercise only

Setting: centre‐based

Exercise programme modality: gymnastic exercises
Length of session: 1 hour
Frequency: three sessions per week
Intensity: 60% of the threshold value according to cycle ergometer test
Resistance training included? No

Total duration: 1 year

Co‐interventions: none described

Comparator: control participants did not use exercise training programme

Co‐interventions: none described

Outcomes

Mortality, MI, HRQoL

Source of funding

Not reported

Conflicts of interest

None declared

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

“Patients were randomised into four groups depending on BMI”. Authors provided further information: "randomly assigned to the physical training or to the control group using a computer programme".

Allocation concealment (selection bias)

Low risk

Authors provided further information: "The allocation sequence was concealed from enrolling researcher".

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

No information provided regarding blinding

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

No PRISMA flow diagram or description of attrition

Selective reporting (reporting bias)

Unclear risk

No published protocol available, but outcomes described in methods appear to be reported.

Byrkjeland 2015

Study characteristics

Methods

Study design: single‐centre RCT

Country: Norway

Dates participants recruited: August 2010 to March 2012

Maximum follow‐up: 12 months

Participants

Inclusion criteria: type 2 diabetes and verified CAD by angiography

Exclusion criteria: presence of proliferative retinopathy, end‐stage renal disease, cancer, stroke or acute MI within the last 3 months, unstable angina, uncompensated heart failure, serious arrhythmia, severe valvular disease, severe rheumatologic disease, chronic obstructive pulmonary disease (COPD) stadium Global Initiative for Chronic Obstructive Lung Disease (GOLD) IV, thromboembolic disease, ongoing infections, severe musculoskeletal disorders and other disabilities limiting the ability for physical activity

N randomised: total: 137; intervention: 69; comparator: 68

Diagnosis (% of participants): stable angina 51 (37%); previous MI 62 (45%).

Age (mean ±SD): intervention: 64.6 ± 7.9; comparator: 63.2 ± 7.2

Percentage male: intervention: 45 (87%); comparator: 50 (81%)

Ethnicity: NR

Interventions

Intervention: 12‐month combined aerobic and resistance training programme

Components: exercise only

Setting: both centre‐ and home‐based

Exercise programme modality: circuits containing aerobic and resistance exercises, interval uphill walking/running training, interval step training, spinning on a bike
Length of session: 1 hour
Frequency: three sessions per week (2 supervised centre‐based, 1 home‐based)
Intensity: rating of perceived exertion (RPE) 12 to 14 or ≥ 15 for high‐intensity interval training
Resistance training included? Yes, as part of circuit training and separate resistance training included

Total duration: 12 months

Co‐interventions: none described

Comparator: continuation of normal follow‐up with general practitioner

Co‐interventions: none described

Outcomes

Serious cardiovascular events (composite outcome ‐ worsening of stable angina pectoris and chronic heart failure, unstable angina pectoris, AMI, stroke, sudden cardiac arrest)

Source of funding

"no specific grant from any funding agency in the public, commercial or not‐for‐profit sectors"

Conflicts of interest

None declared

Notes

Authors contacted to request clinical outcome data, but no response received

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"Randomisation was performed by use of consecutively numbered...in a 1:1 ratio according to tables of random numbers, arranged by the Unit of Epidemiology and Biostatistics."

Allocation concealment (selection bias)

Low risk

"Consecutively numbered, non‐translucent envelopes"

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

“The ventilatory threshold (VT) was calculated by the ventilatory equivalent method and was determined by two blinded, independent investigators.” Presume other outcomes were not blinded

Incomplete outcome data (attrition bias)
All outcomes

High risk

17/69 (24%) participants in the intervention group lost to follow‐up or excluded from analysis due to < 40% adherence to exercise intervention (9/69, 13%)

Selective reporting (reporting bias)

Unclear risk

Published protocol paper not available, clinical trials.gov registration gives very vague information about proposed outcomes

Campo 2020

Study characteristics

Methods

Study design: multicentre RCT (3 sites)

Country: Italy

Dates participants recruited: January 2017 to April 2018

Maximum follow‐up: 12 months

Participants

Inclusion criteria: age ≥ 70 years, hospital admission for ACS, short physical performance battery (SPPB) score from 4 to 9 at the inclusion visit (30 ± 5 days after discharge)

Exclusion criteria: participants with SPPB score ≥ 10 or ≤ 3. Multivessel disease with indication for surgical revascularisation or staged PCI, inability to be discharged to home, congestive HF, LVEF < 30%, severe valvular disease

N randomised: total: 235; intervention: 118; comparator: 117

Diagnosis (% of participants): intervention: STEMI 33 (28%), NSTEMI 75 (65%), unstable angina 10 (7%); comparator: STEMI 31 (26%), NSTEMI 77 (66%), unstable angina 9 (8%)

Age (median, range): intervention: 76, 72 to 80; comparator: 77, 73 to 80

Percentage male: intervention: 92 (78%); comparator: 89 (76%)

Ethnicity (White, %): NR

Interventions

Intervention: 4 supervised sessions (1, 2, 3, 4 months after discharge) combined with an individualised home‐based exercise programme. Centre‐based sessions supervised by sports physician and nurse, and included moderate treadmill walk, strength and balance exercises (30 to 40 min). Participants received a walking programme to perform at home along with a selection of callisthenic exercises based on the Otago Exercise Programme. Participants encouraged to perform exercises 2 times per week for approx 20 mins. After the 4 month supervised session, a long‐term home‐based exercise programme was designed by the sports physician.

Components: exercise only

Setting: 4 centre‐based sessions, home‐based afterwards

Exercise programme modality: walking, callisthenics, strength and balance
Length of session: 30 to 60 minutes
Frequency: at least 3 to 4 times per week
Intensity: RPE 11 to 13
Resistance training included? No

Total duration: 6 months

Co‐interventions: health education

Comparator: standard of care

Co‐interventions: health education – 15 minute visit with study doctor, who explained the importance of aerobic physical activity (30 to 60 min/day, moderate intensity, e.g. brisk walking for at least 3 days/week). A detailed brochure explaining the benefits of physical exercise provided to all participants.

Outcomes

Total and cardiovascular mortality, ACS, hospitalisations, HRQoL

Source of funding

"Investigator‐driven clinical trial conducted by the University of Ferrara"

Conflicts of interest

None declared

Notes

None

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

“Randomization is performed….via a dedicated website and stratified according the following three variables: sex, clinical presentation (ST‐segment elevation ACS vs. non ST‐segment elevation ACS) and SPPB score at the inclusion (4–6 vs. 7–9). A dedicated website assigns a unique treatment code"

Allocation concealment (selection bias)

Low risk

“Randomization is performed….via a dedicated website and stratified according the following three variables: sex, clinical presentation (ST‐segment elevation ACS vs. non ST‐segment elevation ACS) and SPPB score at the inclusion (4–6 vs. 7–9). A dedicated website assigns a unique treatment code"

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

“The assessment staff was blinded to the intervention. Participants were asked not to disclose their assigned group and not to talk about their interventions during the assessment. All events were centrally adjudicated by the clinical events committee whose members were unaware of patient randomisation assignment.”

Incomplete outcome data (attrition bias)
All outcomes

Low risk

Low numbers of participants missing from 1 year follow‐up (6 and 7 from each group, < 20%), numbers balanced and reasons provided.

Selective reporting (reporting bias)

Low risk

Published protocol paper available, all outcomes listed in protocol paper are reported at 1 year.

Carlsson 1998

Study characteristics

Methods

Study design: single‐centre RCT

Country: Sweden

Dates participants recruited: NR

Maximum follow‐up: 1 year

Participants

Inclusion criteria: AMI; CABG < 2 weeks prior; PCI < 2 weeks prior

Exclusion criteria: signs of unstable angina; signs of ST‐depression at exercise test of more than 3 mm in 2 chest leads or more than 2 mm in two limb leads at four weeks post‐discharge from hospital, signs of CHF, severe, non‐cardiac disease; drinking problems, not a Swedish speaker

N randomised: total: 235; intervention: 118; comparator: 117

Diagnosis (% of participants): CABG: 25%; AMI: 75%

Age (mean ±SD):

AMI patients: intervention: 62.2 ± 5.8; comparator: 61.7 ± 6

CABG patients: intervention: 62.7 ± 4.8; comparator: 59.8 ± 4.8

Percentage male: NR

Ethnicity: NR

Interventions

Intervention: continuous physical exercise programme 2 to 3 times weekly for 2 to 3 months. The exercise sessions lasted one hour and were comprised of the following parts: 10 minutes of warm‐up; 40 minutes of interval walking or jogging; 10 minute cool‐down period (consisting of relaxation and light stretching exercises). Individual exercise schedules were provided in order to maintain the effects of the exercise programme beyond the discharge from the hospital training centre.

Components: exercise plus education

Setting: centre and then home

Exercise programme modality: walking or jogging
Length of session: 60 minutes
Frequency: 2 to 3 times/week
Intensity: NR
Resistance training included? No

Total duration: 2 to 3 months

Co‐interventions: 9 hours of nurse counselling in individual and group sessions over 1 year; smoking cessation 1.5 hours, dietary management 5.5 hours

Comparator: usual care, which included two or three visits to their general practitioners during the first year

Co‐interventions: all participants were informed about CAD risk factors and the effect of lifestyle changes on the prognosis.

Outcomes

Mortality

Source of funding

NR

Conflicts of interest

NR

Notes

Groups of 20 participants randomly allocated to intervention and control groups (usual care). Randomised 4 weeks post discharge.
In first 3 weeks post discharge, all participants had 2 visits by nurse & 1 by cardiologist, plus all participants invited to join regular exercise group x 1 per week for 30 mins information and 30 mins easy interval training.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Not reported

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

< 20% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points.

Carson 1982

Study characteristics

Methods

Study design: single‐centre RCT; participants randomised 6 weeks post‐admission

Country: UK

Dates participants recruited: NR (recruited over a 3.5 year period)

Maximum follow‐up: 3 years

Participants

Inclusion criteria: MI; diagnosis based on ECG changes and/or elevation of serum glutamic oxaloacetic transaminase or lactic dehydrogenase taken on three consecutive days.

Exclusion criteria: > 70 years; heart failure at follow‐up clinic; cardio‐thoracic ratio exceeding 59%; severe chronic obstructive lung disease; hypertension requiring treatment; diabetes requiring insulin; disabling angina during convalescence; orthopaedic or medical disorders likely to impede progress in the gym, personality disorders likely to render participant unsuitable for the course.

N randomised: total: 303; intervention: 151; comparator: 152

Diagnosis (% of participants): MI: 100%

Age (mean ± SE): intervention: 50.3 ± 0.65; comparator: 52.8 ± 0.67

Percentage male: intervention: 100%; comparator: 100%

Ethnicity: NR

Interventions

Intervention: participants attended the hospital gym twice weekly for 12 weeks. They were supervised by a doctor and physical educationalist and full resuscitative equipment was available. The exercises were arranged on a circuit basis and pure isometric exercise was avoided.

Components: exercise only

Setting: centre

Exercise programme modality: exercises arranged on a circuit basis
Length of session: NR
Frequency: twice per week
Intensity: NR
Resistance training included? No

Total duration: 12 weeks

Co‐interventions: none described

Comparator: did not attend gym

Co‐interventions: none described

Outcomes

Total mortality, non‐fatal MI at 5 months, 1 year, 2 years and 3 years after MI (mean follow‐up 2.1 years)

Source of funding

Department for Health and Social Security Grant

Conflicts of interest

NR

Notes

There appears to be a reduction in mortality in exercise participants with inferior MI.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomly allocated"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

21% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points described in the methods.

Chaves 2019

Study characteristics

Methods

Study design: superiority RCT with waiting‐list control (single centre)

Country: Brazil

Dates participants recruited: March 2015 to April 2017

Maximum follow‐up: 12 months ‐ 6 months waiting‐list control

Participants

Inclusion criteria: participants aged > 18 years and living in the Belo Horizonte area, with coronary artery disease: post myocardial infarction undergone percutaneous coronary intervention or coronary artery bypass graft surgery and had been referred to CR

Exclusion criteria: cardiac conditions associated with some risk during high‐intensity exercise (e.g. heart failure with EF < 45%, complex ventricular dysrhythmia), any comorbid physical condition (e.g. leg amputation, advanced cancer, disabling stroke, Parkinson’s disease), or serious mental illness that would interfere with the ability to exercise, according to CR clinical practice guidelines, or any visual or cognitive condition that would preclude the participant from completing the questionnaires

N randomised: total: 115; intervention 1 (exercise only): 39; intervention 2 (comprehensive CR): 37; comparator: 39

Diagnosis (% of participants): participants with CAD after MI or those undergoing PCI/CABG. MI 107 (93%), angina 69 (60%), PCI 68 (59.1%), CABG 29 (25.5%).

Age (mean): intervention 1: 59 ± 9.9; intervention 2: 60.7 ± 8.8; comparator: no CR (n = 16) 55.9± 6.7, exercise only (n = 12) 60.7 ± 13.3, comprehensive CR (n = 11) 60.6 ± 8.4

Percentage male: intervention 1: 28 (71.8%); intervention 2: 27 (73%); comparator: no CR (n = 16) 11 (68.8%), exercise only (n = 12) 12 (100%), comprehensive CR (n = 11) 4 (36.4%)

Ethnicity (white, %): NR

Interventions

Intervention: CR program led by a physician and staffed by physiotherapists. Exercise programme 6 months, consisting of 36 1‐hour supervised sessions descending in frequency. Participants provided individualised exercise prescription based on exercise test. Participants requested to exercise in their communities on non‐centre‐based exercise days to accumulated ≥ 30 minutes of MVPA on ≥ 5 days per week.

Comprehensive CR participants were offered an additional 24, weekly 30‐minute education sessions, delivered in groups by a health educator, and received a validated education workbook to accompany the sessions.

Components: exercise only (group 1); exercise plus education (group 2)

Setting: centre‐based (with request to complete home‐based exercise in addition)

Exercise programme modality: treadmill/bike/walking
Length of session: 1 hour
Frequency: 3 times per week for 4 weeks, 2 times per week for 4 weeks, once per week for 16 weeks.
Intensity: 50% to 80% heart rate reserve
Resistance training included? NR

Total duration: 6 months

Co‐interventions: education sessions provided for comprehensive CR group (group 2). Educational curriculum included: information about the CR program, their aerobic exercise prescription and safety, managing angina, irregular heartbeats, diabetes, exercising in cold and hot weather, the heart (anatomy, pathophysiology, diagnoses, and treatment) and cardiac medications risk factor profile, goal setting and action planning, resistance training, nutrition (fats, fibre, reading food labels, sodium), psychosocial risk, and sexual intimacy, how much physical activity is good, aerobic and resistance training progression, relapse planning, and graduation.

Comparator: waiting‐list control – all participants received follow‐up appointments with their physician as deemed medically important. Participants in the control arm received CR after 6‐month mortality ascertained. Participants elected whether they wanted to have exercise only or comprehensive CR, or no CR.

Co‐interventions: none

Outcomes

Cardiovascular mortality, MI, revascularisations, hospitalisations

Source of funding

Professor Britto was supported by Conselho Nacional de Desenvolvimento Científico e Tecnológico (CNPq no. 305786/2014‐8), Fundacao de Amparo a Pesquisa do Estado de Minas Gerais (FAPEMIG no. PPM‐00869‐15 and CS00290‐16) and Coordination for the Improvement of Higher Education Personnel (CAPES)

Conflicts of interest

None declared

Notes

Outcomes at 6 months only used for this review, as waiting‐list control participants elected which arm of the study to go into after this point.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

“The randomisation sequence was generated by a professor not involved in the study using the randomization.com website in random blocks of four, with a 1:1:1 allocation ratio.”

Allocation concealment (selection bias)

Low risk

“To ensure allocation concealment, the principal investigator (RB) had the allocation sequence in a password‐protected file, and only provided randomisation information to the PhD student once it was confirmed the participant was eligible.”

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

“A master’s student blinded to random allocation was responsible for post‐test assessments, outcome ascertainment and data entry.”

Incomplete outcome data (attrition bias)
All outcomes

High risk

Loss to follow‐up: control 9/39 (23%), comprehensive CR 5/37 (14%), exercise‐only CR 8/39 (20%)

Selective reporting (reporting bias)

Low risk

Outcomes reported in protocol are reported in main paper in addition to event and rate.

DeBusk 1994

Study characteristics

Methods

Study design: multicentre RCT (5 sites); participants were randomised 3rd day post MI

Country: USA

Dates participants recruited: NR

Maximum follow‐up: 12 months

Participants

Inclusion criteria: men and women aged 70 years or younger who were hospitalised for AMI.

Exclusion criteria: none described

N randomised: total: 585; intervention: 293; comparator: 292

Diagnosis (% of participants): MI: 100%

Age (mean): intervention: 57 ± 8; comparator: 57 ± 8

Percentage male: intervention: 78.5%; comparator: 79.1%

Ethnicity (white, %): intervention: 78.0%; comparator: 75.9%

Interventions

Intervention: the exercise prescription was based on a heart rate range corresponding to 60% to 85% of the peak heart rate achieved during treadmill testing. Participants were instructed to exercise at the prescribed heart rate for 30 minutes per day 5 days per week. Participants walked briskly, jogged, rode a bicycle, or swam. After 4 weeks, the ceiling of the heart‐rate training range was raised to 100% of the peak treadmill exercise heart rate or 85% of the age‐predicted max HR.

Components: exercise plus education

Setting: nurse‐managed, home‐based

Exercise programme modality: walking, jogging, cycling or swimming
Length of session: 30 minutes per day
Frequency: 5 days per week
Intensity: 60% to 85% of the peak heart rate achieved during treadmill testing, then raised to 100%
Resistance training included? No

Total duration: 12 months

Co‐interventions: all medically eligible participants received exercise training; all smokers received the smoking cessation intervention; and all participants received dietary counselling and, if needed, lipid‐lowering drug therapy

Comparator: usual care including physician counselling on smoking cessation, nutritionist counselling on dietary change during hospitalisation, and physician‐managed, lipid‐lowering drug therapy after hospital discharge

Co‐interventions: group outpatient smoking cessation programmes were available for a $50 fee. Group exercise rehabilitation, not generally provided, was available to participants at various community facilities at an average cost of $1800 to $2700 for 3 months' participation.

Outcomes

Total mortality

Source of funding

Grant support: By HL38874 from the National Heart, Lung, and Blood Institute, Bethesda, Maryland and a Shannon Award from the National Institutes of Health, Bethesda, Maryland. Dr. Thomas participated as a Clinical Scholar of the Robert Wood Johnson Foundation.

Conflicts of interest

NR

Notes

Levels of psychological distress dropped significantly for both groups by 12 months.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomly allocated"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

33% lost to follow‐up; no description of withdrawals and dropouts

Selective reporting (reporting bias)

Low risk

All outcomes reported for all time points described.

Dorje 2019

Study characteristics

Methods

Study design: single‐centre RCT

Country: China

Dates participants recruited: November 2016 to March 2017

Maximum follow‐up: 12 months.

Participants

Inclusion criteria: participants aged 18 or older with documented coronary heart disease (including MI and unstable or stable angina) who were treated with PCI during their index admission. Participants were required to own an operational smartphone, have an active WeChat account or be willing to create one and have sufficient Chinese language proficiency to enable communication with the cardiac rehabilitation and secondary prevention coach via WeChat.

Exclusion criteria: contraindications to exercise rehabilitation, an inability to operate a smartphone for the purpose of the trial (e.g. vision, hearing, and cognitive or dexterity impairment), no internet access at their place of residence, or pre‐existing comorbid disease with a life expectancy less than 1 year.

N randomised: total: 312; intervention: 156; comparator: 156

Diagnosis (% of participants): post PCI (100%)

Age (mean): intervention: 61.9 ± 8.7; comparator: 59.1 ± 9.4

Percentage male: intervention: 126 (81%); comparator: 128 (82%)

Ethnicity (white, %): NR

Interventions

Intervention: smartphone‐based home cardiac rehabilitation delivered via WeChat platform. Included a simplified and culturally sensitive WeChat based education programme addressing coronary heart disease knowledge and awareness.

Exercise component: individualised walking programme based on baseline 6MWT, with time and intensity of walking increased gradually over the first 8 weeks.

Physical activity monitored using WeChat’s inbuilt pedometer function to monitor step counts, along with a WeChat interfaced blood pressure and heart rate monitor.

Support provided for medication adherence and risk factor modification (dietary change, lipid control, smoking cessation) provided as required by participants.

Data readings automatically transmitted to a secure data portal and reviewed by cardiac rehabilitation coach on a regular basis and provided individualised feedback.

Components: exercise plus education

Setting: Home‐based

Exercise programme modality: walking
Length of session: NR
Frequency: at least 5 times per week
Intensity: NR
Resistance training included? No

Total duration: 6 months

Co‐interventions: none described

Comparator: standard care as provided by their community doctors and cardiologists. Typically involves brief inpatient health education provided by a ward nurse, medication management and ad‐hoc follow‐up visits to a cardiologist or health care provider according to the participant’s self‐assessment of their own cardiovascular health

Co‐interventions: none described

Outcomes

HRQoL, adverse cardiac events

Source of funding

Curtin University

Conflicts of interest

None declared

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"The randomisation sequence was computer‐generated by permuted block randomisation (block size of 10), by staff from the study coordinating centre at Curtin University who were not involved with the recruitment of study participants."

Allocation concealment (selection bias)

Low risk

"The randomisation sequence was computer generated by staff from the study coordinating centre at Curtin university who were not involved with the recruitment of study participants."

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

“To maintain blinding of research personnel involved in follow‐up assessments to group allocation, participants received a WeChat message before each follow‐up visit, to remind them not to reveal their allocation to study personnel. Study personnel who helped participants to set up the SMART‐CR/SP system on their smartphone or provided technology training before the commencement of the trial were not involved in assessments.”

Incomplete outcome data (attrition bias)
All outcomes

Low risk

Missing participants balanced across the two groups (intervention: 22/156 (14%); control: 25/156 (16%)) with similar reasons, and maximum‐likelihood estimation methods used in models to account for missing data.

Selective reporting (reporting bias)

High risk

Protocol paper (table 1) states that quality of life assessments would be carried out at 12 month follow‐up, but these data have not been reported. All‐cause mortality data not formally reported, just states that no adverse cardiac events occurred – unclear whether this is at 6 or 12 months.

Dugmore 1999

Study characteristics

Methods

Study design: single‐centre RCT

Country: UK

Dates participants recruited: between 1984 and 1988

Maximum follow‐up: 5 years

Participants

Inclusion criteria: MI according to conventional WHO cardiac enzyme and ECG criteria of MI

Exclusion criteria: NR

N randomised: total: 124; intervention: 62; comparator: 62

Diagnosis (% of participants): MI: 100%

Age (years): intervention: 54.8; comparator: 55.7

Percentage male: 98% intervention: NR; comparator: NR

Ethnicity: NR

Interventions

Intervention: participants received regular aerobic and local muscular endurance training three times a week for 12 months. This consisted of warm‐up and cool‐down exercises, sit ups, wall bar/bench step ups, cycle ergometry, and a major component centred on the training of aerobic capacity, using walking and jogging. Training programmes were individually designed and based on the results of regular exercise tests and trial exercise prescriptions.

Components: exercise only

Setting: centre

Exercise programme modality: walking, jogging and cycle ergometry
Length of session: individually designed
Frequency: 3 times a week
Intensity: varied between approx 50% to 65% of measured peak oxygen uptake (VO2) in the poor prognosis participants and 65% to 80% of peak VO2 in those with a good prognosis
Resistance training included? Yes ‐ local muscular endurance training

Total duration: 12 months

Co‐interventions: none described.

Comparator: received no formal exercise training throughout the same 12‐month period

Co‐interventions: none described

Outcomes

CV mortality; non‐fatal MI; HRQL at 4, 8, 12 months

Source of funding

NR

Conflicts of interest

NR

Notes

The population was subdivided into groups with good and bad prognoses. There were 36 participants with a good prognosis and 26 with a poor prognosis. Each group were matched with control participants.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomly allocated"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

Low risk

All participants accounted for

Selective reporting (reporting bias)

Low risk

All outcomes reported for all time points described.

Engblom 1996

Study characteristics

Methods

Study design: single‐centre open RCT

Country: Finland

Dates participants recruited: February 1986 to December 1987

Maximum follow‐up: 5 years

Participants

Inclusion criteria: participants who underwent elective CABG

Exclusion criteria: any other serious disease; > 65 years of age

N randomised: total: 228; intervention: 119; comparator: 109

Diagnosis (% of participants):

Previous unstable angina: intervention: 29; comparator: 31

Previous MI: intervention: 42; comparator: 46

Hypertension: intervention: 31; comparator: 23

LVEF: intervention: 70.3; comparator: 71.4

Age (mean ± SD): intervention: 54.1 ± 5.9; comparator: 54.3 ± 6.2

Percentage male: 88%

Ethnicity: NR

Interventions

Intervention: 6 to 8 weeks after the CABG, participants followed a 3‐week general CR program, mainly based on exercises, including 24 hours of supervised activities consisting of ergometer cycle training, ball games, outdoor activities, gymnastics and swimming. The participants were also advised to increase their physical activity in leisure time.

Components: exercise and education

Setting: supervised group sessions at centre

Exercise programme modality: ergometer cycle training, ball games, outdoor activities, gymnastics and swimming
Length of session: NR
Frequency: NR
Intensity: NR
Resistance training included? NR

Total duration: 3 weeks (plus an additional 5 days over a 30‐month period)

Co‐interventions: participants participated in a 4‐stage CR programme over 30 months, including dietary counselling and advice about the importance of healthy nutrition and economical cooking.

Comparator: all of the participants in both groups received standard postoperative care which consisted of visits to the cardiac outpatient clinic 2, 6, 12, 24, 36 and 60 months after the CABG

Co‐interventions: none described

Outcomes

Mortality, CABG, HRQoL: Nottingham Health Profile

Source of funding

Grants from the Sauli Viikari Fund within the Cultural Foundation of Varsinais‐Suomi, Turku, Finland

Conflicts of interest

NR

Notes

Five years after CABG, only 20% of participants were working, despite 90% of participants being in functional classes 1‐2. Almost half of participants had retired pre‐CABG. Many other factors affect return to work post‐CABG ‐ age, education, physical requirements of the job, type of occupation, self‐employed status, non‐work income, personality type, self‐perception of working capacity and mostly length of absence from work pre‐CABG.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Not reported

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

13% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes were reported for all time points described.

Erdman 1986

Study characteristics

Methods

Study design: single‐centre RCT

Country: the Netherlands

Dates participants recruited: September 1976 to March 1978

Maximum follow‐up: 5 years

Participants

Inclusion criteria: first MI within 6 months before the first psychological investigation; < 65 years; meet three psychological inclusion criteria ‐ one or more symptoms of the anxiety reaction, diminished self‐esteem, positive motivation to take part in the programme

Exclusion criteria: severe cardiomyopathy, severe valvular disorders, inadequate performance on exercise, unstable angina pectoris

N randomised: total: 80; intervention: 40; comparator: 40

Diagnosis (% of participants): MI: 100 %

Age (years): 51 years (range 35 to 60 years); intervention: NR; comparator: NR

Percentage male: intervention: 100%; comparator: 100%

Ethnicity: NR

Interventions

Intervention: two 1½ hour sessions of fitness training a week in a conventional gymnasium, supervised by a cardiologist. Each session consisted of a 15‐min warm‐up, gymnastics and jogging (both 15 min); sport such as volleyball, soccer and hockey (30 min), and relation exercises (15 min).

Components: exercise and education

Setting: supervised group sessions in centre

Exercise programme modality: gymnastics, jogging and team sports
Length of session: 90 min
Frequency: twice a week.
Intensity: NR
Resistance training included? No

Total duration: 6 months

Co‐interventions: in cases of severe psychopathology, a psychologist or a psychiatrist was consulted.

Comparator: home rehabilitation ‐ participants received an educational brochure with guidelines and advice about physical fitness training and jogging.

Co‐interventions: treatment with either beta blockers or anticoagulants was given upon indication only and not as a prophylactic measure.

Outcomes

Mortality, non‐fatal MI at 5 years

Source of funding

Dutch Heart Foundation

Conflicts of interest

NR

Notes

Complex presentation of results.
Authors conclude that participants who will benefit from rehabilitation can be detected on psychological grounds. Those who have engaged in habitual exercise, but feel seriously disabled, yet do not feel inhibited in a group, will benefit from rehab.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"randomly allocated by means of a table for random numbers"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

29% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points.

Fletcher 1994

Study characteristics

Methods

Study design: single‐centre RCT

Country: USA

Dates participants recruited: NR

Maximum follow‐up: 6 months

Participants

Inclusion criteria: ≤ 73 years; CAD and physical disability. CAD documented by history of MI, coronary artery bypass surgery, PCI or angiographically demonstrated CAD; have the functional use of more than 2 extremities, 1 being an arm, in order to perform the exercise test and training protocols.

Exclusion criteria: uncontrolled hypertension or diabetes mellitus, clinically significant cardiac dysrhythmias, unstable angina pectoris, cognitive deficits, or other problems that would interfere with compliance to the prescribed exercise and diet protocol.

N randomised: total: 88; intervention: 41; comparator: 47

Diagnosis (% of participants): CAD and a physical disability

Age (mean ±SD): intervention: 62 ± 8; comparator: 63 ± 7

Percentage male: intervention: 100%; comparator: 100%

Ethnicity: NR

Interventions

Intervention: participants were provided with a wheelchair ramp with rollers and a telephone electrocardiographic recording device. They were instructed to exercise using the ramp which essentially transformed their wheelchair into a stationary wheelchair ergometer. Specific instructions were to exercise 5 days/week for 20 minutes a day for a total of 100 minutes each week.

Components: exercise plus education

Setting: home

Exercise programme modality: stationary wheelchair ergometer
Length of session: 20 min
Frequency: 5 days/week
Intensity: 85% of predicted maximal heart rate
Resistance training included? No

Total duration: 6 months

Co‐interventions: both groups received didactic and written dietary instruction from a registered dietitian on the American Heart Association Step I low‐cholesterol, low‐saturated fat diet.

Comparator: usual care

Co‐interventions: participants in the control group received dietary instruction and were instructed to follow activity guidelines provided by their primary physician and health care team.

Outcomes

Total mortality, non‐fatal MI at 6 months

Source of funding

United States Department of Education

Conflicts of interest

NR

Notes

The treatment programme decreased myocardial oxygen demand.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomized"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

"The same experienced cardiologist interpreted all echocardiograms and was unaware of randomization procedures"

Incomplete outcome data (attrition bias)
All outcomes

High risk

32% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes reported for all time points.

Fridlund 1991

Study characteristics

Methods

Study design: single‐centre RCT

Country: Sweden

Dates participants recruited: September 1985 to March 1988

Maximum follow‐up: 5 years

Participants

Inclusion criteria: 65 years or younger at the time of MI; independent living in the Health Care District after discharge from hospital; meaningful communication and rehabilitation that was not hindered by the MI or other serious illness

Exclusion criteria: cerebral or cardiac disorders or serious alcohol abuse

N randomised: total: 178; intervention: 87; comparator: 91

Diagnosis (% of participants):

MI: 100%

Angina: intervention: 32.1%; comparator: 33.3%

Age (years): intervention: 55; comparator: 57.6

Percentage male: 87% intervention: 86.8%; comparator: 87.3%

Ethnicity: NR

Interventions

Intervention: participants and their spouses visited the hospital for a 2‐hour group session each week for 6 months. These group sessions consisted of a physical and a psychosocial part and were carried out together with a support team consisting of a physiotherapist, a physician and a rehabilitation nurse. The physical part consisted of both exercise and relaxation.

Components: exercise plus psychosocial support

Setting: centre

Exercise programme modality: NR
Length of session: 2 hrs
Frequency: once a week
Intensity: NR
Resistance training included? NR

Total duration: 6 months

Co‐interventions: the psychosocial part contained eleven themes concerning lifestyle and risks after MI, and psychosocial consequences of MI

Comparator: routine cardiac follow‐up

Co‐interventions: none described

Outcomes

Total mortality, non‐fatal MI, revascularisations

Source of funding

Swedish Heart Lung Foundation, National Association for Heart and Lung Patients, Sweden, and the County Council, Halland, Sweden

Conflicts of interest

NR

Notes

Positive long‐term effects on physical condition, life habits, cardiac health knowledge. No effects found for cardiac events or psychological condition.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomly subdivided"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

32% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points (although absolute values not always given).

Giallauria 2008

Study characteristics

Methods

Study design: single‐centre RCT

Country: Italy

Dates participants recruited: NR

Maximum follow‐up: 6 months

Participants

Inclusion criteria: acute ST elevation MI

Exclusion criteria: residual myocardial ischaemia, severe ventricular arrhythmias, AV block, valvular disease requiring surgery, pericarditis, severe renal dysfunction (creatinine > 2.5 mg/dL)

N randomised: total: 61; intervention: 30; comparator: 31

Diagnosis (% of participants): MI: 100%

Age (mean ±SD): intervention: 55.9 ± 3.1; comparator: 55.1 ± 3.7

Percentage male: intervention: 73%; comparator: 71%

Ethnicity: NR

Interventions

Intervention: training sessions were supervised under continuous electrocardiography monitoring. Each session was preceded by a 5‐min warm‐up and followed by a 5‐min cool‐down. Exercise was performed for 30 min on a bicycle ergometer with the target of 60% to 70% of VO2 peak achieved at the initial symptom‐limited cardiopulmonary exercise test. Exercise workload was gradually increased until the achievement of the predefined target.

Components: exercise only

Setting: supervised in centre

Exercise programme modality: bicycle ergometer
Length of session: 40 min
Frequency: 3 times a week
Intensity: target of 60% to 70% of VO2 peak achieved at the initial symptom‐limited cardiopulmonary exercise test
Resistance training included? No

Total duration: 6 months

Co‐interventions: none described

Comparator: discharged with generic instructions on maintaining physical activity and a correct lifestyle

Co‐interventions: none described

Outcomes

Fatal/non‐fatal MI (6 month follow‐up)

Source of funding

"None"

Conflicts of interest

"None"

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomized"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

"The physician performing all Doppler‐echocardioraphy studies was....blinded to the patient allocation into the study protocol."

Incomplete outcome data (attrition bias)
All outcomes

Low risk

All participants were accounted for.

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points.

Hambrecht 2004

Study characteristics

Methods

Study design: single‐centre RCT

Country: Germany

Dates participants recruited: March 1997 to March 2001

Maximum follow‐up: 1 year

Participants

Inclusion criteria: angina pectoris according to Canadian Cardiovascular Society class I–III, with documented myocardial ischaemia during stress‐electrocardiogram and/or 99mTc scintigraphy and amenable to PCI. Only participants living within a 25 km radius of the host institution were recruited.

Exclusion criteria: acute coronary syndromes or recent myocardial infarction ( < 2 months); left main coronary artery stenosis > 25%; reduced left ventricular function (ejection fraction < 40%); significant valvular heart disease; insulin‐dependent diabetes mellitus; previous coronary artery bypass graft or PCI; and conditions excluding regular exercise

N randomised: total: 101; intervention: 51; comparator: 50

Diagnosis (% of participants):

Stable CAD: 100%

(class I to III angina pectoris)

Age (years ± SEM): intervention: 62 ± 1; comparator: 60 ± 1

Percentage male: 100 %

Ethnicity: NR

Interventions

Intervention: during the first 2 weeks, participants exercised in the hospital 6 times/day for 10 min on a bicycle ergometer at 70% of the symptom‐limited max HR. Before discharge, a maximal symptom‐limited ergospirometry was performed to calculate the target heart rate for home training, which was defined as 70% of the maximal heart rate during symptom‐limited exercise. Participants were asked to exercise on their bicycle ergometer close to the target heart rate for 20 min per day and to participate in one 60 min group training session of aerobic exercise/week.

Components: exercise only

Setting: supervised exercise in hospital, followed by unsupervised at home plus weekly group training

Exercise programme modality: bicycle ergometer
Length of session: 10 minutes
Frequency: 6 times a day.
Intensity: 70% of symptom‐limited max heart rate
Resistance training included? No

Total duration: 2 weeks, followed by 20 min per day unsupervised at 70% plus 60 min aerobic group training per week

Co‐interventions: all participants were recommended to receive acetylsalicyl acid, β‐blockers, angiotensin‐converting enzyme inhibitors and statins according to common guidelines.

Comparator: stent angioplasty: “the target lesion was treated with PCI after a bolus of 10,000 IU of heparin with a 6F guiding catheter.”

Co‐interventions: all participants were given acetylsalicylic acid 100 mg/d and clopidogrel 300 mg/d on the day before the procedure.

Outcomes

Clinical symptoms, angina‐free exercise capacity, myocardial perfusion, cost‐effectiveness, and frequency of a combined clinical end point (death of cardiac cause, stroke, CABG, angioplasty, acute myocardial infarction, and worsening angina with objective evidence resulting in hospitalisation)

Source of funding

“This study was supported by an unconditional scientific grant from Aventis Germany".

Conflicts of interest

NR

Notes

2 year results of this study are reported by Walther 2008.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

“Patients were randomly assigned to either stent angioplasty or exercise training by drawing an envelope with the treatment assignment enclosed.”

Allocation concealment (selection bias)

Unclear risk

Allocation concealment not described

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

“Initially and after 12 months the angina pectoris status of all patients was classified according to CCS class by a physician blinded for patient assignment.”

Incomplete outcome data (attrition bias)
All outcomes

Low risk

Discontinued study, n: intervention 2/51; comparator 2/50

Disabling stroke, n: intervention 1/51; comparator 1/50

Refused angiography, n: intervention 1/51; comparator 0/50

Selective reporting (reporting bias)

Low risk

All outcomes reported.

Haskell 1994

Study characteristics

Methods

Study design: multicentre RCT (4 sites)

Country: USA

Dates participants recruited: February 1984 to March 1987

Maximum follow‐up: 4 years

Participants

Inclusion criteria: men and women < 75 years of age with clinically‐indicated coronary arteriography who lived within a 5‐hour drive of Stanford University and considered capable of following the study protocol. After arteriography, participants received PCI or CABG and remained eligible if at least one major coronary artery had a segment with lumen narrowing between 5% and 69% that was unaffected by revascularisation procedures.

Exclusion criteria: severe congestive heart failure, pulmonary disease, intermittent claudication, or non‐cardiac life‐threatening illnesses; no qualifying segments, medical complication occurred during angiography, left ventricular ejection fraction of less than 20%, or participant was in another research study

N randomised: total: 300; intervention: 145; comparator: 155

Diagnosis (% of participants): CHD: 100%

Age (mean ± SD): intervention: 58.3 ± 9.2; comparator: 56.2 ± 8.2

Percentage male: 86%

Ethnicity: NR

Interventions

Intervention: a physical activity programme consisting of an increase in daily activities such as walking, climbing stairs and household chores, and a specific endurance exercise training programme* with the exercise intensity based on the subject's treadmill exercise test performance.

Components: exercise plus education

Setting: home

Exercise programme modality: stationary cycling or walking
Length of session: 30 min
Frequency: 5 days a week.
Intensity: 70% to 85% of the peak heart rate attained on exercise testing at 3 weeks, an average of 96 to 121 beats/min
Resistance training included? No

Total duration: NR

Co‐interventions: each risk‐reduction participant met with a nurse to design an individualised risk‐reduction programme based on the participant's risk profile, his or her motivation, and resources for making specific changes. Participants were instructed by a dietitian in a low‐fat, low‐cholesterol, and high‐carbohydrate diet with a goal of < 20% of energy intake from fat, < 6% from saturated fat, and < 75 mg of cholesterol per day. Current or recent ex‐smokers were provided with an individualised stop‐smoking or relapse‐prevention programme by a staff psychologist.

Comparator: usual care

Co‐interventions: none described

Outcomes

Total and CHD mortality, non‐fatal MI, revascularisation at year 1, 2, 3 and 4

Source of funding

National Heart, Lung, and Blood Institute and a gift from the Claude R. Lambe Charitable Foundation. Lipid drugs for participants in the risk reduction group provided by the Upjohn Company, Merck & Company, and Parke‐Davis, Inc.

Conflicts of interest

NR

Notes

*This exercise programme followed guidelines developed previously for home‐based exercise training of cardiac patients (Miller 1984).

The rate of change in the minimal coronary artery diameter was 47% less in intervention than comparator. This was still significant when adjusted for age and baseline segment diameter (P = 0.03).

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"Randomization was performed using a random‐numbers table."

Allocation concealment (selection bias)

Low risk

"....sequentially numbered, sealed opaque envelopes for each stratification category that were provided by the biostatistician".

Blinding of outcome assessment (detection bias)
All outcomes

High risk

"The staff collecting data in the clinic were not blinded to group assignment of subjects".

Incomplete outcome data (attrition bias)
All outcomes

High risk

18% lost to follow‐up; no description of withdrawals or dropouts.

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points.

Hassan 2016

Study characteristics

Methods

Study design: single‐centre RCT

Country: Egypt

Dates participants recruited: NR

Maximum follow‐up: 12 months

Participants

Inclusion criteria: age 40 to 60, within the first year after PCI, mean BMI ≤ 35 kg/m2

Exclusion criteria: people with renal failure, chronic liver disease; people with arrhythmia, chest disease and those who could not fulfil the questionnaire or cooperate through the performed procedures

N randomised: total: 60; intervention: 30; comparator: 30

Diagnosis (% of participants): post PCI

Age (mean ±SD): intervention: 52.6 ± 5; comparator: 53.8 ± 5

Percentage male: intervention: 70%; comparator: 67%

Ethnicity: NR

Interventions

Intervention: participants received mild to moderate exercise training and educational program of secondary prevention. Participants in the CR program were requested to attend their exercise program 3 times per week for 6 months.

Components: exercise plus education

Setting: centre‐based

Exercise programme modality: bicycle ergometer
Length of session: 40 to 50 min
Frequency: 3 days/week.
Intensity: RPE 11‐14
Resistance training included? No

Total duration: 6 months

Co‐interventions: none described

Comparator: participants received instructions about risk factors after PCI once, and were followed up one year later.

Co‐interventions: none described

Outcomes

HRQoL

Source of funding

NR

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

“Patients...were selected and assigned to two equal groups in number.” No further information

Allocation concealment (selection bias)

Unclear risk

No information provided

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

No information provided

Incomplete outcome data (attrition bias)
All outcomes

Low risk

All participants completed all follow‐up assessments.

Selective reporting (reporting bias)

Unclear risk

Study protocol and trial registration unavailable

Hautala 2017

Study characteristics

Methods

Study design: single‐centre RCT

Country: Finland

Dates participants recruited: February 2011 to May 2014

Maximum follow‐up: 12 months

Participants

Inclusion criteria: CAD patients who suffered from acute coronary syndrome, with coronary angiography to confirm the CAD.

Exclusion criteria: NYHA class ≥ III, scheduled or emergency procedure for bypass surgery, unstable angina pectoris, severe peripheral atherosclerosis, diabetic retinopathy or neuropathy, or inability to perform regular home‐based exercises, for example, due to severe musculo‐skeletal problems

N randomised: total: 204; intervention: 109; comparator: 95

Diagnosis (% of participants): intervention: NSTEMI 47 (48%); STEMI 44(45%); comparator: NSTEMI 45 (58%); STEMI 28 (36%)

Age (mean): intervention: 60 ± 11; comparator: 62 ± 9

Percentage male: intervention: 80 (73%); comparator: 67 (71%)

Ethnicity (white, %): NR

Interventions

Intervention: the 1‐year exercise training intervention consisted of home‐based aerobic (30 to 40 min) and gym‐based strength exercises (30 to 40 min).
On the first two visits to the gym, participants were provided instruction on use of the gym, a home‐base exercise training program for the first month, how to fill in the exercise training diary, use of the RPE scale to evaluate the average intensity of a single exercise session, a schedule for gym visits, and use of an accelerometer. Thereafter, the participants exercised in the gym once per week for 6 months in groups of no more than eight participants.

A wrist‐worn accelerometer was provided to improve motivation and adherence. Participants instructed to continuously wear the accelerometer and monitor their own daily PA.

After 6 months, home‐based exercise continued and checkpoint visits to monitor progression of exercise training were scheduled at 9 and 12 months.

Components: exercise plus other components such as dietary counselling or check‐up by a medical doctor when appropriate.

Setting: both centre and home (1 centre‐based resistance training session per week for 6 months).

Exercise programme modality: walking, running, cycling or cross‐country skiing
Length of session: 30 to 40 minutes
Frequency: 4 to 5 per week
Intensity: RPE 12‐15 (aerobic), RPE 13 (resistance)
Resistance training included? Yes ‐ strength exercise circuit targeted at major muscle groups at moderate intensity (2‐3 X 7 sets, ≥ 10 repetitions/set) RPE 13.

Total duration: 1 year

Co‐interventions: None described

Comparator: usual care – participants did not receive any individually‐tailored exercise prescriptions.

Co‐interventions: none described

Outcomes

Mortality, hospitalisations, HRQoL, cost effectiveness

Source of funding

NR

Conflicts of interest

JMA is a partner of ESiOR Oy, which provides health economic and outcome research services to pharmaceutical and medical device companies. The other authors report no conflicts of interest.

Notes

Authors provided further data relating to clinical outcomes and HRQoL.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

No information provided regarding method used to generate allocation sequence

Allocation concealment (selection bias)

Unclear risk

No information provided regarding method used to conceal the allocation sequence

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

No information provided regarding blinding of outcome assessors

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

Missing data balanced in numbers (intervention 28%, control 26%); missing data were imputed using appropriate methods, but reasons for loss to follow‐up not reported.

Selective reporting (reporting bias)

Unclear risk

No published protocol available, clinical trial registry available, but outcome information is limited

He 2020

Study characteristics

Methods

Study design: single‐centre RCT

Country: China

Dates participants recruited: August 2014 to October 2016

Maximum follow‐up: 3 years

Participants

Inclusion criteria: (1) fulfilling Third Universal Definition of Myocardial Infarction criteria; (2) a coronary angiography that show no artery stenosis ≥ 50% in any infarct‐related artery; (3) no other clinically overt cause or account for the acute presentation

Exclusion criteria: (1) sepsis, cardiac contusion, pulmonary embolism, overlooked obstructive coronary artery disease (CAD), coronary emboli or thrombus, Takotsubo syndrome, and myocarditis; (2) limited exercise tolerance (ejection fraction <35%, chronic obstructive pulmonary disease with FEV1 <50%, severe anaemia); (3) age ≥ 75 years old; (4) physical disability or mental confusion; (5) individuals refused to participate in the trial

N randomised: total: 524; intervention: 262; comparator: 262

Diagnosis (% of participants): 100% MI with PCI

Age (mean ±SD): intervention: 60.6 ± 12.7; comparator 60.9 ± 12.9

Percentage male: intervention: 45.8%, comparator: 47.7%

Ethnicity: NR

Interventions

Intervention: participants exercised 3x per week in the hospital for 20 to 30 min on a treadmill or bicycle at 65% to 75% of symptom limited maximal heart rate. After discharge, moderate continuous training was performed – cycling or treadmill running continuously at a moderate intensity (65% to 75% max HR) for 47 mins 3x per week. Participants used MI electronic band to monitor heart rate and physicians used WeChat software to instruct and supervise individuals each month during the follow‐up period. The home‐based program consisted of 52 exercise sessions (3x per week) each year.

Components: exercise only

Setting: centre‐ and home‐based

Exercise programme modality: treadmill walking/running or cycling
Length of session: 20 to 30 minutes increasing to 47 minutes
Frequency: three sessions per week
Intensity: 65% to 75% of the symptom limited heart rate max
Resistance training included? No

Total duration: 3 years

Co‐interventions: none described

Comparator: control participants did not receive CR

Co‐interventions: none described

Outcomes

MACE at 3 years, HRQoL at 1 year

Source of funding

Supported by Zhejiang Provincial Science Foundation of China under Grant No. LY20H020006 and Zhejiang Provincial Basic Public Welfare Research Program of China under Grant No. LGF19H020007

Conflicts of interest

None declared

Notes

Authors emailed to request further data (mortality, MI, hospitalisation) but no response

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

“randomly allocated either to an exercise‐based cardiac rehabilitation group (CR+ group) or a control group (CR− group) on a 1:1 base by drawing an envelope with the assignment enclosed.”

Allocation concealment (selection bias)

Unclear risk

“drawing an envelope with the assignment enclosed”

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

“Only the members of The Safety and Monitoring Committee knew the group allocation. Data collectors and researchers were blind to the study group assignment.”

Incomplete outcome data (attrition bias)
All outcomes

Low risk

Loss to follow‐up balanced across groups and reasons provided.

1 year (SF‐36) intervention: 30/262 = 11%, control: 26/262 = 10%

"10.7% dropout reported over the 3 year study period."

Selective reporting (reporting bias)

Unclear risk

Protocol paper and trial registration unavailable

Heller 1993

Study characteristics

Methods

Study design: cluster‐randomised multicentre RCT

Country: Australia

Dates participants recruited: 18 September 1990 to 5 December 1991

Maximum follow‐up: 6 months

Participants

Inclusion criteria: < 70 years with a suspected heart attack registered by the Newcastle collaborating centre of the WHO MONICA Project and discharged alive from hospital

Exclusion criteria: renal failure or other special dietary requirements and those considered by their physicians to have 'endstage' heart disease

N randomised: total: 450; intervention: 213; comparator: 237

Diagnosis (% of participants): MI: 100%

Age (mean ± SD): intervention: 59 ± 8; comparator: 58 ± 8

Percentage male: 71%

Ethnicity: NR

Interventions

Intervention: a mail‐out programme designed to help participants reduce dietary fat, obtain regular exercise by walking and to quit smoking.

  • 1st package: Step 1 "Facts on fat" kit, together with walking programme information, encouragement to walk in the form of a magnetic reminder sticker, and "Quit for Life" programme for smokers.

  • 2nd package: Steps 2‐3 "Facts on fat" kit; exercise log.

  • 3rd package: Steps 4‐5 "Facts on fat" kit, together with information regarding local "Walking for Pleasure" groups.

Components: exercise plus education

Setting: home

Exercise programme modality: walking
Length of session: NR
Frequency: NR
Intensity: NR
Resistance training included? NR

Total duration: 6 months.

Co‐interventions: supplementary telephone contact was also used and a letter was sent to the family doctor regarding the benefit of aspirin and β blockers for secondary prevention.

Comparator: usual care

Co‐interventions: none described

Outcomes

Total mortality, HRQL

Study outcomes assessed at 6 months

Source of funding

National Health and Medical Research Council of Australia

Conflicts of interest

NR

Notes

Low use of preventative services (dietary, anti smoking) by both groups
10% of participants received CR ‐ mostly having had CABG

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Cluster‐randomisation by GP. "All general practices were randomly allocated to intervention or usual care within those strata." Method of randomisation not described.

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

17% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points.

Higgins 2001

Study characteristics

Methods

Study design: single‐centre RCT

Country: Australia

Dates participants recruited: June 1995 to January 1997

Maximum follow‐up: Mean = 51 weeks; range = 36 to 56 weeks post PCI

Participants

Inclusion criteria: participants scheduled for PCI

Exclusion criteria: major co‐morbidity such as malignancy, a history of cerebrovascular accident, or other severe, chronic debilitating disease; previous CABG or peri‐PCI complications; unemployment in previous year; MI within 1 month pre‐procedure; surgical management at home time during the 1 year duration of study.

N randomised: total: 105; intervention: 54; comparator: 51

Diagnosis (% of participants):

Previous MI: intervention: 52%; comparator: 51%

Previous PCI: intervention: 10%; comparator: 16%

Age (years): intervention: 48 (range 31 to 63); comparator: 47 (range 26 to 63)

Percentage male: intervention: 83 %; comparator: 96 %

Ethnicity: NR

Interventions

Intervention: individualised comprehensive CR programme based on the principles of social cognitive theory involved a moderate‐intensity walking programme with a graded increase in the frequency and duration of exercise. In the 2 months post‐PCI, the clinician made 3 home visits to each participant and went walking with them as part of this visit. In addition, during home visits, participants were taught to monitor their rate of perceived exertion (RPE) during their walking programme and to document the frequency, duration and RPE of those sessions in an exercise log.

Components: exercise plus psychological plus education

Setting: home

Exercise programme modality: walking
Length of session: not specified – goal setting was based on personalised risk‐factor profiles
Frequency: NR
Intensity: NR
Resistance training included? No

Total duration: not specified

Co‐interventions: the intervention group received the same education sessions as the control group as well as an individualised, comprehensive CR program based on the principles of social cognitive theory. Strategies used to modify risk factors included (1) goal setting, (2) self‐monitoring and feedback, (3) skills training, (4) reinforcement of target behaviours, and (5) the provision of social support by the clinician. Vocational counselling included specific recommendations regarding return to work. The clinician also made monthly calls when she provided counselling and guidance.

Comparator: whilst hospitalised, control participants received two, one‐to‐one bedside education sessions; one 45 min session pre‐PCI and one 60 min session post‐PCI. Teaching media included videotapes of the procedure, photographs of coronary anatomy during the procedure, and equipment. Post‐PCI education included providing information about the pathology and risk factors for CHD and instruction on wound and medication management.

Co‐interventions: the clinician made 3 monthly post‐discharge CHD information‐focused telephone calls to each control participant.

Outcomes

Mortality

Source of funding

“Prince Charles Hospital Private Practice Fund supported the research”

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"Patients ……were randomly assigned to either control or intervention.”

Allocation concealment (selection bias)

Unclear risk

Allocation concealment not described

Blinding of outcome assessment (detection bias)
All outcomes

High risk

Assessments do not appear to be blinded.

Incomplete outcome data (attrition bias)
All outcomes

High risk

Although all withdrawals and exclusions were clearly described and the number of withdrawals were similar in the intervention (5) and control (4) groups, 11 (20%) and 5 (10%) participants were lost from the intervention and control groups, respectively.

Selective reporting (reporting bias)

Low risk

All outcomes have been reported at all time points.

Hofman‐Bang 1999

Study characteristics

Methods

Study design: single‐centre RCT

Country: Sweden

Dates participants recruited: February 1993 to December 1995

Maximum follow‐up: 2 years

Participants

Inclusion criteria: (a) at least one significant stenosis suitable for PTCA and at least one additional ‐ although clinically non‐significant ‐ stenosis or plaque, measurable with quantitative computerised angiography (QCA); (b) age < 65 years; (c) employed; (d) absence of other diseases of importance for the programme or with poor prognosis; and (e) able to perform a bicycle ergometer test with a minimum exercise capacity of 70 watts.

Exclusion criteria: none described

N randomised: total: 87; intervention: 46; comparator: 41

Diagnosis (% of participants): treated with percutaneous transluminal angioplasty

Age (mean): intervention: 53; comparator: 53

Percentage male: 83.9%

Ethnicity: NR

Interventions

Intervention: started with a 4‐week residential stay at the intervention unit. The programme included intense health education and activities promoting behavioural changes ‐ stress management, diet, exercise and smoking habits. Each subject was assigned a daily individual task including self‐observation, Type A behavioural drills, relaxation training and exercise. Followed by 11‐month structured maintenance programme.

Components: exercise plus psychological plus education

Setting: centre followed by home

Exercise programme modality: NR
Length of session: NR
Frequency: NR
Intensity: NR
Resistance training included? NR

Total duration: 12 months

Co‐interventions: maintenance programme consisted of continuous self‐observation and self‐recording of important everyday lifestyle behaviours, feedback of behaviour changes, and of regular follow‐up contacts between the participant and his/her personal coach for verbal feedback, problem‐solving, and replanning discussions when needed.

Comparator: standard care

Co‐interventions: none described

Outcomes

Cardiovascular mortality, MI, CABG, PTCA, hospitalisations, health‐related quality of life: Angina Pectoris Quality of Life Questionnaire (APQLQ) recorded during the 2 years' follow‐up.

Source of funding

AMF Insurance Co., the SPP Insurance Co., and The Swedish Heart and Lung Foundation

Conflicts of interest

NR

Notes

93 participants were randomly assigned to an intervention group or a control group, respectively. Six subjects (two in the intervention group and four in the control group) refused further participation in close connection to randomisation.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomly assigned"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

21.8% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points.

Holmbäck 1994

Study characteristics

Methods

Study design: single‐centre RCT

Country: Sweden

Dates participants recruited: "during a 2‐year period"

Maximum follow‐up: 1 year

Participants

Inclusion criteria: acute MI patients under 65 years of age

Exclusion criteria: not stated, but individuals have been excluded for being incapable of performing strenuous training due to poor left ventricular function or arrhythmias, orthopaedic disorders, other incapacitating somatic diseases or mental disorders.

N randomised: total: 69; intervention: 34; comparator: 35

Diagnosis (% of participants): post‐MI: 100%

Age (mean years [range]): intervention: 55 (38 to 65); comparator: 55 (43 to 63)

Percentage male: 97%

Ethnicity: NR

Interventions

Intervention: started 8 weeks post‐MI and participants trained over a 12‐week period for at least 45 minutes (effective time) twice a week with interval training involving large muscle groups: bicycling (10 min), callisthenics (10 min), jogging (15 min) ending with relaxation (10 min).

Components: exercise only

Setting: not described, but assumed in a centre

Exercise programme modality: bicycling 10 mins, callisthenics 10 min, jogging
Length of session: at least 45 mins
Frequency: twice per week.
Intensity: 70% to 85% of peak heart at the bicycle test for initial session and workload individually adjusted to obtain the desired maximum heart rate if possible
Resistance training included? Yes ‐ callisthenics

Total duration: 12 weeks

Co‐interventions: none described

Comparator: received regular medical care with no emphasis on exercise

Co‐interventions: none described

Outcomes

Total mortality, non‐fatal MI & revascularisation
Health‐related quality of life: self‐report questionnaire

Evaluations at 6 weeks and 1 year post‐MI

Source of funding

Research support was given by Malmöhus County Council

Conflicts of interest

NR

Notes

Study authors found no benefit from exercise training. Outcomes were related to self‐rated levels of physical and psychological well being.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"Randomization was performed according to random numbers in sealed envelopes".

Allocation concealment (selection bias)

Low risk

"Randomization was performed according to random numbers in sealed envelopes".

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Evaluations were "supervised by independent investigators".

Incomplete outcome data (attrition bias)
All outcomes

High risk

14.5% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes reported for all time points (although absolute values not always given).

Houle 2012

Study characteristics

Methods

Study design: multicentre RCT (2 sites)

Country: Canada

Dates participants recruited: April 2007 to April 2008

Maximum follow‐up: 12 months

Participants

Inclusion criteria: participants hospitalised for an ACS (unstable angina, non‐ST–elevation or ST elevation myocardial infarction) and willing to travel to the CR centre every 3 months to meet the clinical nurse specialist and able to read and speak French

Exclusion criteria: inability to perform activities of daily living (such as feeding themselves, bathing, dressing, grooming, work, homemaking and leisure); enrolment in another research project or in a heart failure clinic where serial follow‐up creates a bias and contraindication to exercise testing; medical diagnosis of debilitating chronic illness (such as cancer without remission), musculoskeletal or neurological disorder (such as multiple sclerosis, Parkinson's disease, etc.); people with a previous history of stroke could be included if they had no residual effects related to their stroke); serious and unstable mental incapacities or major depression

N randomised: total: 65; intervention: 32; comparator: 33

Diagnosis (% of participants):

Unstable angina: intervention: 50%; comparator: 52%

STeMI: intervention: 28%; comparator: 27%

Non STeMI: intervention:22%; comparator: 21%

Age (mean ± SD): intervention: 58 ± 8; comparator: 59 ± 9

Percentage male: total: 78%; intervention: 81%; comparator: 76%

Ethnicity: NR

Interventions

Intervention: participants received a pedometer‐based programme concomitantly with a socio‐cognitive intervention led by a clinical nurse specialist. Participants used 1 pedometer blinded and used a second one to monitor their daily steps since discharge.

Components: exercise plus education plus socio‐cognitive intervention

Setting: home

Exercise programme modality: walking
Length of session: not specified
Frequency: not specified
Intensity: not specified
Resistance training included? No

Total duration: 12 months

Co‐interventions: participants received a socio‐cognitive intervention led by a clinical nurse specialist, and a blinded pedometer with instructions about how to wear the pedometer correctly during 7 consecutive days from morning to bedtime.

Comparator: participants received the usual advice by the nurse or the physician, or both, at discharge regarding physical activity, diet and medication. They had no restriction to go to a centre‐based cardiac rehabilitation programme or to consult a health care professional such as a nutritionist, an exercise specialist or a psychologist. Participants in both groups received usual medical follow‐up by their own physicians (cardiologist and family physician).

Co‐interventions: participants received a blinded pedometer and instructions about how to wear the pedometer correctly during 7 consecutive days from morning to bedtime.

Outcomes

HRQoL

Source of funding

Heart and Stroke Foundation of Canada, Research centre of Institut Universitaire de Cardiologie et Pneumologie de Québec, and Pfizer Canada

Conflicts of interest

"Authors had no conflict of interest to declare".

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"They were randomly allocated to the experimental group or to the usual care group using a randomization table".

Allocation concealment (selection bias)

Unclear risk

Allocation concealment not described

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Physical activity recorded by a blinded pedometer. However, blinding of assessors of other tests and measurements not described.

Incomplete outcome data (attrition bias)
All outcomes

High risk

Loss to follow‐up was high in both groups: 9/32 (28%) and 11/33 (33%) were lost to follow‐up from the intervention and control groups.

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points described either in the paper or in the supplementary material online.

Kallio 1979

Study characteristics

Methods

Study design: multicentre RCT (2 sites)

Country: Finland

Dates participants recruited: May 1973 to October 1975

Maximum follow‐up: 3 years

Participants

Inclusion criteria: participants treated in hospital for acute myocardial infarction based on WHO criteria

Exclusion criteria: NR

N randomised: total: 375; intervention: 188; comparator: 187

Diagnosis (% of participants): AMI: 100%

Age (mean): intervention: 54.4; comparator: 54.1

Percentage male: 80.3%

Ethnicity: NR

Interventions

Intervention: the programme was started two weeks after discharge from hospital and consisted of medical examinations by an internist at least monthly for the first six months after AMI, then when necessary or at least 3‐monthly. A physical exercise programme, tailored to the individual’s working capacity determined in a bicycle ergometer test, was recommended, and for most participants, it was done under supervision. The rehabilitation programme was most intensive during the first three months after myocardial infarction.

Components: exercise, education and psychological

Setting: supervised in a centre

Exercise programme modality: NR
Length of session: NR
Frequency: NR
Intensity: NR
Resistance training included? NR

Total duration: NR

Co‐interventions: besides the internist, the team included a social worker, a psychologist, a dietitian, and a physiotherapist. Health education consisted of anti‐smoking and dietary advice, and discussions on psychosocial problems.

Comparator: usual care

Co‐interventions: none described

Outcomes

Total mortality; cardiovascular mortality (follow‐up 3 years).

Source of funding

Social Insurance Institution

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomly allocated"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

Low risk

1% lost to follow‐up

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points.

Kovoor 2006

Study characteristics

Methods

Study design: multicentre RCT (2 sites)

Country: Australia

Dates participants recruited: NR

Maximum follow‐up: 6 months

Participants

Inclusion criteria: AMI; < 75 years of age; no angina; < 2 mm ST‐segment depression with exercise and if they attained > 7‐METS workload; left ventricular ejection fraction > 40% or no inducible ventricular tachycardia

Exclusion criteria: participants were excluded if there was 2 mm ST‐segment depression with exercise or if 7‐METS workload was attained.

N randomised: total: 142; intervention: 70; comparator: 72

Diagnosis (% of participants): AMI: 100%

Age (mean): intervention: 56.2; comparator: 55.8

Percentage male: intervention: 89%; comparator: 86%

Ethnicity: NR

Interventions

Intervention: exercise (conventional treatment group): 5 week rehabilitation program consisted of exercise, education and counselling sessions that were held 2 to 4 times per week, including work at 6 weeks after AMI.

Components: exercise, education and psychological

Setting: NR

Exercise programme modality: NR
Length of session: NR
Frequency: 2 to 4 times per week
Intensity: NR
Resistance training included? NR

Total duration: 5 weeks

Co‐interventions: the 2 groups of participants were encouraged to exercise at home on a regular basis. Participants were given the telephone numbers of the cardiologist and the nurse co‐ordinator so they could be contacted in case of problems.

Comparator: control group (ERNA ‐ early return to normal activities group): return to work at 2 weeks after AMI without a formal CR programme.

Co‐interventions: this group of participants was contacted over the telephone by the nurse co‐ordinator once per week for 5 weeks. The 2 groups were encouraged to exercise at home on a regular basis. Participants were given the telephone numbers of the cardiologist and the nurse co‐ordinator so they could be contacted in case of problems.

Outcomes

Total mortality; fatal/non‐fatal mortality; CABG; PCI; HRQoL. Costs reported in Hall 2002.

Assessment at 6 weeks and at 6 months

Source of funding

National Health and Medical Research Council, Sydney, Australia

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Method of randomisation not described

Allocation concealment (selection bias)

Low risk

"Randomization schedules were generated by an independent investigator and were kept in opaque sealed envelopes."

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

"GHPS .... scans being analyzed in a blinded fashion by an independent nuclear medicine specialist." Blinding of other outcome assessments not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

20.4% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points

La Rovere 2002

Study characteristics

Methods

Study design: single‐centre RCT

Country: Italy

Dates participants recruited: 1984 to 1985

Maximum follow‐up: 10 years

Participants

Inclusion criteria: post‐MI patients admitted at Centro Medico di Montescano in 1984 to 1985

Exclusion criteria: atrial fibrillation or abnormal sinus node function, insulin‐dependent diabetes, exercise‐induced myocardial ischaemia, and arterial BP > 160/90

N randomised: total: 95; intervention: 49; comparator: 46

Diagnosis (% of participants): uncomplicated MI: 100%

Age (mean): intervention: 51; comparator: 52

Percentage male: 100%

Ethnicity: NR

Interventions

Intervention: the exercise sessions (30 minutes, 5 times a week) consisted of callisthenics and stationary bicycle ergometry

Components: exercise, education and psychological

Setting: supervised in a centre

Exercise programme modality: stationary bicycle ergometry
Length of session: 30 minutes
Frequency: 5 times a week
Intensity: 75% of heart rate at peak V02, rising to 85% in the second and third weeks and 95% in the final week
Resistance training included? Yes ‐ callisthenics

Total duration: 4 weeks

Co‐interventions: sessions were held by cardiologists and psychologists, dealing with secondary prevention of cardiovascular disease and stressing dietary changes and smoking cessation.

Comparator: no training

Co‐interventions: all participants attended sessions, held by a cardiologist and a psychologist, dealing with secondary prevention of cardiovascular disease and stressing dietary changes and smoking cessation.

Outcomes

Cardiac mortality; non‐fatal MI; CABG at 3 to 4 month intervals from the time of entry into the study for the first 3 years and contacted periodically by telephone thereafter.

Source of funding

NR

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomized"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

Low risk

All participants accounted for

Selective reporting (reporting bias)

High risk

Results not reported for all time points collected

Lear 2015

Study characteristics

Methods

Study design: multicentre RCT (2 sites)

Country: Canada

Dates participants recruited: February 2009 to April 2011

Maximum follow‐up: 16 months

Participants

Inclusion criteria: participants residing in either the region serviced by the Northern Health Authority of British Columbia, or the Coast Garibaldi region, which is inaccessible by road, and residents must travel by either air or ferry to reach the Vancouver area. Participants must have been admitted for either acute coronary syndrome or revascularisation procedure, be at low or moderate risk based on the American Association of Cardiovascular and Pulmonary Rehabilitation guidelines at the time, had regular Internet access (home, work, or other environment), no physical limitations to regular physical activity, and be fluent in English.

Exclusion criteria: people with previous experience with cardiac rehabilitation, depression, uncontrolled diabetes mellitus, and other significant comorbidities that may interfere with effective cardiovascular management, pregnant women and those who the attending physician thought were unsuitable for participation.

N randomised: total: 78; intervention: 38; comparator: 40

Diagnosis (% of participants): intervention: NSTEMI 47 (48%) STEMI 44(45%); comparator: NSTEMI 45 (58%) STEMI 28 (36%).

Age (median, IQR): intervention: 61.7, 51.3‐65.2; comparator: 58.4 (52.8‐64.7).

Percentage male: intervention: 34 (90%); comparator: 32 (80%)

Ethnicity (white, %): NR

Interventions

Intervention: web‐based virtual cardiac rehabilitation program.

30‐minute in‐person training session on the use of the virtual CR program. Participants supplied with heart rate monitor and blood pressure monitor.

Virtual CR program included online intake forms (medical, risk factor and lifestyle), scheduled one on one chat sessions with the program nurse or case manager, exercise specialist and dietician (3 times each during 12 weeks), weekly education sessions with interactive slide presentations, data capture for exercise stress test and blood test results, progress notes and monthly 'ask an expert' group chat sessions.

The home‐page displayed the tasks that needed to be completed for each week. Participants were asked to wear heart rate monitor whilst exercising and upload exercise data at least twice per week into the system.

Components: exercise plus education

Setting: home‐based

Exercise programme modality: NR
Length of session: NR
Frequency: NR
Intensity: NR
Resistance training included? NR

Total duration: 16 weeks

Co‐interventions: none described

Comparator: usual care (care from primary care physician); participants were given simple guidelines for safe exercising and healthy eating habits and a list of internet‐based resources.

Co‐interventions: none described

Outcomes

Cardiovascular‐related emergency room and major events

Source of funding

Heart and Stroke Foundation of BC and Yukon and in part by Canada Health Infoway. Dr Lear holds the Pfizer/Heart and Stroke Foundation Chair in Cardiovascular Prevention Research at St. Paul’s Hospital.

Conflicts of interest

None declared

Notes

Authors contacted for specific clinical outcomes, but no response received.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

“The random allocation was computer generated by a statistician unassociated with the trial who was the only one to have access to the list during the study.”

Allocation concealment (selection bias)

Low risk

“The list was incorporated into a telephone randomization system to which the randomization research coordinator called for treatment allocation. The randomization research coordinator informed the participants of their group assignment.”

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Outcome assessment reported to be blind – stress test technicians blinded, medical records were adjudicated by the study cardiologist (A.I.) blinded to the participant group assignment and categorized into emergency room visit events only and major cardiovascular events (revascularization, unstable angina requiring hospitalization, stroke, and death of any kind).”

“The vCRP was evaluated in a 16‐month randomized controlled trial with blinded outcome assessment”.

Incomplete outcome data (attrition bias)
All outcomes

Low risk

Low numbers of missing data in both groups, for similar reasons (intervention 12%, control 8%).

Selective reporting (reporting bias)

Low risk

No published protocol, but outcomes listed in trial registration appear to be reported.

Leizorovicz 1991

Study characteristics

Methods

Study design: multicentre RCT (4 sites)

Country: France

Dates participants recruited: February 1981 to May 1984

Maximum follow‐up: 2 years

Participants

Inclusion criteria: admitted to participating coronary care units with suspected MI; < 65 years old with typical MI, no major irreversible complication or disability

Exclusion criteria: contraindication to exercise testing; i.e. recent stroke, disability of lower limbs, uncontrolled heart failure, severe rhythm disturbances, SBP > 180 mmHg, severe angina pectoris, or abnormalities triggered by baseline exercise test.

N randomised: total: 182; intervention: 61; comparator (usual care): 60 counselling programme: 61 (no data analysed in this review)

Diagnosis (% of participants): MI: 100%

Age (mean): intervention: 51; comparator: 49

Percentage male: 100%

Ethnicity: NR

Interventions

Intervention: the programme started within a few days of randomisation and included three training sessions a week on a cycloergometer, walking and gymnastics.

Components: exercise and education

Setting: centre

Exercise programme modality: cycloergometer, walking and gymnastics
Length of session: 25 min
Frequency: 3 times per week
Intensity: 80% of max HR and then decreased progressively over 2 min (increased as the sessions progressed)
Resistance training included? No

Total duration: 6 weeks

Co‐interventions: also included respiratory physiotherapy, relaxation, recommendations on control of cardiovascular risk factors (smoking habits, diet); recommendations to continue regular physical training at the end of the 6‐week programme.

Comparator: participants in the usual care group were referred to their usual private practitioner or cardiologist or both.

Co‐interventions: None described

Outcomes

Non‐fatal MI, angina, surgery

Source of funding

Institut National de la Same et de la Recherche Medicale, by the Hospices Civils de Lyon and by the Association pour la Promotion et la Realisation d'Essais Therapeutiques

Conflicts of interest

NR

Notes

Only 14% of all MI patients admitted to the participating hospitals were randomised to the trial. Exclusion of women and patients > 65 accounted for 60% of exclusions.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Not reported

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No losses to follow‐up

Selective reporting (reporting bias)

Low risk

All outcomes reported for all time points (although absolute values not always given).

Lewin 1992

Study characteristics

Methods

Study design: single‐centre RCT

Country: Scotland, UK

Dates participants recruited: March 1988 to March 1991

Maximum follow‐up: 1 year

Participants

Inclusion criteria: confirmed MI (WHO criteria); age less than 80 years; able to speak and read English; resident in the hospital catchment area

Exclusion criteria: known history of major psychiatric illness; current psychotic symptoms; evidence of dementia or continuing uncontrolled arrhythmias or heart failure

N randomised: total: 176; intervention: 88; comparator: 88

Diagnosis (% of participants): MI: 100%

Age (mean ±SD): intervention: 55.3 ± 10.7; comparator: 56.3 ± 10.5

Percentage male: intervention: 70.0%; comparator: 72.7%

Ethnicity: NR

Interventions

Intervention: heart manual consisted of six weekly sections that included education, a home‐based exercise programme, and a tape‐based relaxation and stress management programme.

Components: exercise, education and psychological

Setting: home

Exercise programme modality: NR
Length of session: NR
Frequency: NR
Intensity: NR
Resistance training included? NR

Total duration: 6 weeks.

Co‐interventions: specific self‐help treatments were provided for psychological problems commonly experienced by post‐MI patients. Before the participant was discharged from hospital, spouses were given an audiotape that provided information and advice. After discharge, the facilitator made contact with both groups of participants at 1, 3 and 6 weeks, by telephone, at a hospital clinic, or, when neither of these was possible, by brief home visits.

Comparator: the control group received an equal amount of the facilitator’s time (approximately 10 min).

Co‐interventions: participants were given an extensive package of leaflets from various sources, intended to cover the same information as that presented in the manual.

Outcomes

HRQoL, Hospital Anxiety and Depression Scale (HAD), General Health Questionnaire (GHQ)

Source of funding

This research was supported by a grant from the Chief Scientist Office of the Scottish Home and Health Department. The British Heart Foundation donated additional computer equipment.

Conflicts of interest

NR

Notes

Study terminated (due to expiry of funding) before all participants reached 6‐month or 12‐month stage.
Anxiety scores showed significant treatment effect at 6 weeks and 1 year, depression at 6 weeks.
Pre‐hospital discharge, 52% of all participants had HAD scores indicating clinically significant anxiety or depression (8+). Control group were significantly more anxious and depressed at all follow‐ups.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"allocated to the experimental or control group by use of a written pre‐determined randomisation protocol". Method of randomisation not described

Allocation concealment (selection bias)

Unclear risk

Allocation concealment not described

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

"Questionnaires were scored and the data entered into the statistical analysis programme by a clerical assistant based at a separate hospital who was blind both to the experimental design and to the patients."

Incomplete outcome data (attrition bias)
All outcomes

High risk

17% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points

Ma 2020

Study characteristics

Methods

Study design: single‐centre RCT

Country: China

Dates participants recruited: January 2014 to December 2015

Maximum follow‐up: 36 months (12 month intervention plus 24 month follow‐up)

Participants

Inclusion criteria: angiographically diagnosed as unprotected left main coronary artery disease (ULMCAD), and the ‘unprotected’ in this context was defined that no perfusion distal to the left main stenosis was supplied by either a patent bypass graft or a collateral vessel; underwent CABG for the first time; age ≥ 18 years; able to independently fulfil the assessment questionnaires used in the study; likely to be followed up regularly, which was evaluated by the investigators.

Exclusion criteria: cardiogenic shock; cerebrovascular accident with a persistent neurological deficit before enrolment; complicated with malignancies; pregnant or lactating women.

N randomised: total: 300; intervention: 150; comparator: 150.

Diagnosis (% of participants): CABG (100%).

Age (mean, SD): intervention: 63.1 ± 9.7; comparator: 62.8 ± 10.7.

Percentage male: intervention: 121 (80.7%); comparator: 115 (76.7%).

Ethnicity (white, %): NR

Interventions

Intervention:

Comprehensive rehabilitation and intensive education (CRIE) program consisting of 4 components:

1. CAD‐related health education (1/wk for 2 months) – lectures covering basic knowledge of disease, primary therapeutic strategies, risk factors, antiplatelet and anticoagulant therapy, BP management, lipid, glucose, and uric acid, prevention of upper GI mucosal injury, rehabilitation management about exercise, diet and nutrition, psychological care and good lifestyle formation.

2. Exercise guidance and formation (1/month for 10 months) – formulating an individualised exercise plan covering exercise mode: low intensity walking, moderate intensity aerobics (e.g. jogging, gymnastics, tai chi, bicycling), and moderate to high resistance training (e.g. mountain climbing, mid‐distance sprint); duration 60 to 90 mins each time; frequency 3 to 5 times per week; intensity: RPE 11 to 13. Monthly supervision and guidance by motivational interviewing.

3. Risk factor control (1/month for 10 months): diet control, alcohol and cigarette cessation, management of blood pressure, lipid, glucose and uric acid. Monthly supervision and guidance by motivational interviewing.

4. Psychological nursing (1/month for 10 months): making a holistic assessment of each participants' physical, functional, psychological, social and spiritual status; identifying potential issues in psychological aspects; eliminating negative emotions and improving compliance; providing music therapy.

Components: exercise plus education and psychological nursing

Setting: centre‐based lectures, with home‐based exercise

Exercise programme modality: low‐intensity walking, moderate‐intensity aerobics
Length of session: 60 to 90 minutes
Frequency: 3 to 5 sessions per week
Intensity: RPE 11 to 13
Resistance training included? Yes: moderate‐high intensity resistance training described as mountain climbing or mid‐distance sprinting

Total duration: 12 months

Co‐interventions: none described

Comparator: participants provided discharging guidance and a CAD‐related health education manual (same as distributed to intervention group). Provided rehabilitation recommendations and medication consultation through telephone calls or clinic visits according to need.

Co‐interventions: None described

Outcomes

Major adverse cardiac and cerebrovascular events (composite outcome), HRQoL

Source of funding

Supported by National Clinical Key Speciality Construction Project

Conflicts of interest

None declared

Notes

We contacted authors, requesting specific clinical outcome data, but received no response.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"The randomisation sequence was computer‐generated using SAS 9.1"

Allocation concealment (selection bias)

Low risk

"The assignment of patients was performed by an independent nurse with the use of sealed envelopes"

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

No information provided regarding blinding of outcome assessment.

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

Number of participants lost to follow‐up provided ( < 20%) and appear balanced across groups, but no reasons provided

Selective reporting (reporting bias)

Unclear risk

No published protocol paper or trial registration

Maddison 2014

Study characteristics

Methods

Study design: single‐blind multicentre RCT (2 sites)

Country: New Zealand

Dates participants recruited: 2010 to 2012

Maximum follow‐up: 24 weeks

Participants

Inclusion criteria: aged 18 years or more, with a diagnosis of IHD, defined as angina, myocardial infarction, revascularisation, including angioplasty, stent or coronary artery bypass graft within the previous 3 to 24 months. All participants were clinically stable as outpatients, able to perform exercise, able to understand and write English, and had access to the Internet (e.g. at home, work, library or through friends or relatives).

Exclusion criteria: participants were excluded if they had been admitted to hospital with heart disease within the previous 6 weeks; had terminal cancer, or had significant exercise limitations other than IHD

N randomised: total: 171; intervention: 85; comparator: 86

Diagnosis (% of participants):

IHD: 100%

MI: 74%
Angina: 50%

Age (mean ±SD): total: 60.2 ± 9.3; intervention: 61.4 ± 8.9; comparator: 59.0 ± 9.5

Percentage male: total: 81%; intervention: 81%; comparator: 81%

Ethnicity:

NZ Maori: total: 8%; intervention: 7%; comparator: 8%
Pacific: total: 6%; intervention: 6%; comparator: 6%
Asian: total: 10%; intervention: 9%; comparator: 10%

NZ European/other: total: 76%; intervention: 78%; comparator: 76%

Interventions

Intervention: the HEART programme is a personalised, automated package of text messages via mobile phones aimed at increasing exercise behaviour over 24 weeks. Participants received six messages per week for the first 12 weeks, five messages per week for 6 weeks, and then four messages per week for the remaining 6 weeks.

Components: exercise

Setting: home

Exercise programme modality: moderate to vigorous aerobic‐based exercise (e.g. walking and household chores)
Length of session: minimum of 30 minutes
Frequency: at least 5 days/week.
Intensity: NR
Resistance training included? No

Total duration: 24 weeks

Co‐interventions: focus on altering the key mediators of behaviour change, including self‐efficacy, social support and motivation.

Comparator: usual care, with encouragement to be physically active and attend a cardiac club.

Co‐interventions: all participants were free to participate in any other CR service or support that they wished to use (e.g. participating in community‐based CR education sessions on modifying CVD risk factors and psychological support), as well as encouragement to be physically active.

Outcomes

HRQoL, costs

Source of funding

Health Research Council of New Zealand and the Heart Foundation. Dr Maddison was supported by a Heart Foundation Research Fellowship and a Health Research Council Sir Charles Hercus Research Fellowship.

Conflicts of interest

None declared

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"....were randomly allocated..... by means of a central computerized service. Randomization was conducted using the minimization method, stratifying by sex (male and female), ethnicity (Maori – indigenous – and non‐Maori), and exercise history"

Allocation concealment (selection bias)

Low risk

"Allocation concealment was maintained up to the point of randomization"

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

"This was a single‐blind trial, where outcome assessors were blinded to treatment allocation"

Incomplete outcome data (attrition bias)
All outcomes

Low risk

Loss to follow‐up was well reported and was similar in both groups. 10/85 (12%) and 8/86 (9%) were lost to follow‐up from the intervention and control groups, respectively.

Selective reporting (reporting bias)

Low risk

All outcomes described in the methods section are reported in results.

Manchanda 2000

Study characteristics

Methods

Study design: single‐centre RCT

Country: India

Dates participants recruited: NR

Maximum follow‐up: 1 year

Participants

Inclusion criteria: chronic stable angina and angiographically proven CAD

Exclusion criteria: recent (within last six months) MI or unstable angina

N randomised: total: 42; intervention: 21; comparator: 21

Diagnosis (% of participants): chronic stable angina and angiographically proven CAD

Age (years): intervention: 51; comparator: 52

Percentage male: 100%

Ethnicity: NR

Interventions

Intervention: participants and their spouses spent four days at a yoga residential centre where they underwent training in various yogic lifestyle techniques. Subsequently they carried out the yogic exercises at home for an average of 90 min daily. The programme included health rejuvenating exercises, breathing exercises, relaxation, meditation, reflection, stress management, dietary control and moderate aerobic exercises.

Components: exercise, education and psychosocial support

Setting: centre followed by home

Exercise programme modality: yoga and "moderate aerobic exercises"
Length of session: 90 min
Frequency: daily
Intensity: NR
Resistance training included? No

Total duration: 1 year

Co‐interventions: relaxation, reflection, stress management, dietary control

Comparator: managed by conventional methods i.e. risk factor control and American Heart Association step I diet.

Co‐interventions: none described

Outcomes

total mortality; CABG; PCI

Assessments are baseline and 1 year

Source of funding

This study was supported in part by a grant from the Central Research Institute of Yoga, Ministry of Health, Government of India.

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomized"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

"Two independent observers who were blinded to group allocation analysed all arteriograms."

Incomplete outcome data (attrition bias)
All outcomes

Low risk

All participants accounted for

Selective reporting (reporting bias)

High risk

While participants were given a clinical exam and clinical investigations every month, only the results at 1 year are presented.

Marchionni 2003

Study characteristics

Methods

Study design: single‐centre RCT

Country: Italy

Dates participants recruited: NR (48‐month period)

Maximum follow‐up: 14 months

Participants

Inclusion criteria: > 56 years; referred to unit for functional evaluation 4 to 6 weeks after MI

Exclusion criteria: severe cognitive impairment or physical disability, left ventricular EF < 35%, contraindications to vigorous physical exercise, eligibility for myocardial revascularisation because of low‐effort myocardial ischaemia, refusal, or living too far from the unit

N randomised: total: 270; intervention: 90; home: 90; comparator: 90

Diagnosis (% of participants): MI: 100%

Age (mean [range]): 69 years [46 to 86]

Percentage male: 67.8%

Ethnicity: NR

Interventions

Partcipants were randomised to outpatient, hospital‐based CR (Hosp‐CR), home‐based CR (Home‐CR), or no CR within 3 predefined age groups.

Intervention:

Hospital‐CR: programme consisted of 40 exercise sessions: 24 sessions (3/wk) of endurance training on cycle ergometer (5‐min warm‐up, 20‐min training at constant workload, 5‐min cool‐down, 5‐min post‐exercise monitoring) plus 16 (2/wk) 1‐hr sessions of stretching and flexibility exercises.

Home‐CR: 4 to 8 supervised instruction sessions in CR unit, where taught how to perform training at home; then participants received exercise prescription similar to Hosp‐CR group.

Setting: centre or home

Components:  

Hospital‐CR: exercise plus psychosocial support

Home‐CR: exercise plus psychosocial support

Exercise programme modality: cycle ergometer
Length of session: 35 min endurance training; 1 hour stretching and flexibility exercises
Frequency: 3 per week of endurance training; 2 per week of stretching and flexibility exercises
Intensity: 70% to 85% of heart rate
Resistance training included? No

Total duration: 8 weeks

Co‐interventions: participants received cardiovascular risk factor management counselling twice per week and were invited to join a monthly support group together with family members.

Comparator: participants randomised to no CR were referred back to their family physicians.

Co‐interventions: participants received asingle structured education session on cardiovascular risk factor management.

Outcomes

HRQoL at month 2, 8 and 14

Costs over study duration

Source of funding

National Research Council (CNR), the University of Florence, and the Regional Government of Tuscany, Italy

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Not reported

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

"Testing personnel were blinded to patient assignment."

Incomplete outcome data (attrition bias)
All outcomes

High risk

38 (14.1%) dropped out; clinical event data for these participants not reported per treatment group

Selective reporting (reporting bias)

Low risk

Changes in all outcomes reported for all time points (although absolute values not given)

Maroto 2005

Study characteristics

Methods

Study design: single‐centre RCT

Country: Spain

Dates participants recruited: NR (2‐year enrolment period)

Maximum follow‐up: 10 years

Participants

Inclusion criteria: male participants diagnosed with AMI and admitted to the coronary care unit; age < 65 years; low risk (hospital course without complications, absence of signs of myocardial ischaemia, functional capacity > 7 metabolic equivalent time (MET), ejection fraction > 50%, and absence of severe ventricular arrhythmias)

Exclusion criteria: none described

N randomised: total: 180; intervention: 90; comparator: 90

Diagnosis (% of participants):

AMI: 100%

Anterior: intervention: 40.0%; comparator: 48.3%

Inferior/posterior: intervention: 48.3%; comparator: 46.3%

Non‐Q wave: intervention: 11.6%; comparator: 5.3%

Age (mean ± SD): intervention: 50.3 ± 6; comparator: 52.6 ± 9

Percentage male: 100%

Ethnicity: NR

Interventions

Intervention:

Multidisciplinary CR programme, consisting of:

  • three months supervised, individualised physical training;

  • psychological programme including behavior modification techniques, group therapy, and relaxation sessions;

  • educational programme on modifying lifestyle and controlling coronary risk factors;

  • return to work counselling.

Supervised training was complemented by progressively increasing daily walks of 1 hour in duration, when participants tried to maintain the heart rate achieved during training. Walks were undertaken by participants individually and were unsupervised.

Components: exercise plus psychological plus education plus return to work counselling

Setting: individualised supervised programme in hospital gym

Exercise programme modality: physiotherapy and aerobic training on mats or an exercise bicycle
Length of session: 1‐hour sessions
Frequency: 3 times per week
Intensity: 75% to 85% max HR.
Resistance training included? No

Total duration: 3 months

Co‐interventions: participants received a psychological programme including behaviour modification techniques, group therapy, and relaxation sessions, an educational programme on modifying lifestyle and controlling coronary risk factors, and return to work counselling.

Comparator: participants received conventional treatment

Co‐interventions: none described

Outcomes

Mortality, MI

Source of funding

NR

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"The 180 patients were randomized into 2 groups”.

Allocation concealment (selection bias)

Unclear risk

Allocation concealment is not described.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

Low risk

7/90 lost to sample in intervention group and 4/90 lost to sample in control group.

Selective reporting (reporting bias)

Low risk

All outcomes described in methods section are reported at all time points.

Miller 1984

Study characteristics

Methods

Study design: RCT; participants randomised 3 weeks post‐MI

Country: USA

Dates participants recruited: NR

Maximum follow‐up: 6 months

Participants

Inclusion criteria: men < 70 years with MI documented by the combination of characteristic elevation of serum creatine kinase or oxaloacetic transaminase, a history of prolonged chest pain consistent with myocardial infarction, and the appearance of new Q waves or evolutionary ST segment changes.

Exclusion criteria: conditions that precluded symptom‐limited treadmill testing 3 weeks after infarction. e.g. congestive heart failure, unstable angina pectoris, valvular heart disease, atrial fibrillation, bundle branch block, stroke, limiting orthopedic abnormalities, peripheral vascular disease, chronic obstructive pulmonary disease and obesity, a history of coronary artery bypass graft (CABG) surgery, reinfarction before testing, and intercurrent noncardiac illness.

N randomised: total: 198; group 1: 66; group 2: 61; group 3: 34; comparator: 37

Diagnosis (% of participants): MI: 100%

Age (mean ±SD): 52 ± 9

Percentage male: 100%

Ethnicity: NR

Interventions

Participants were randomly assigned to one of four exercise protocols:

  • group 1: 8 to 26 weeks of training at home;

  • group 2: training in a group programme;

  • group 3: treadmill testing at 3 weeks without subsequent training;

  • control: treadmill testing for the first time at 26 weeks.

Regimens of home and group exercise training were designed to provide a similar intensity and duration of exercise training.

Intervention: home training

Components: exercise only

Setting: home

Exercise programme modality: stationary cycling or walking
Length of session: 30 min
Frequency: 5 days a week
Intensity: weeks 3 to 11: 70% to 85% of the peak heart rate at week 3; weeks 11 to 26: 70% to 85% of the peak heart rate at week 11.
Resistance training included? No

Total duration: 8 weeks or 26 weeks.

Co‐interventions: none described

Intervention: group training

Components: exercise

Setting: supervised in centre

Exercise programme modality: walking or jogging
Length of session: 1 hour
Frequency: 3 times a week
Intensity: participants regulated their training intensity by palpation of the radial or carotid pulse during the first 10 sec after brief cessation of walking or jogging.
Resistance training included? No

Total duration: 8 weeks or 26 weeks

Co‐interventions: none described

Comparator: usual care (treadmill testing for the first time at 26 weeks)

Co‐interventions: none described

Outcomes

CHD mortality, non‐fatal MI and revascularisation

Source of funding

Supported by grant from the NHLBI, Bethesda, and by a grant from the PepsiCo Foundation, Purchase, NY

Conflicts of interest

NR

Notes

Low rate of cardiac events reflects identification of low risk population

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Not reported

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

5% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes reported for all time points

Munk 2009

Study characteristics

Methods

Study design: single‐centre RCT

Country: Norway

Dates participants recruited: NR

Maximum follow‐up: 6 months

Participants

Inclusion criteria: successful PCI, defined as a residual diameter stenosis after stent implantation of < 20% of the reference diameter

Exclusion criteria: history of myocardial infarction (MI) or CABG; significant valvular heart disease; > 80 years; inability to give informed consent; inability to participate in regular training due to residency, work situation or comorbidity; any known chronic inflammatory disease other than atherosclerosis, or planned surgery within the next 6 months.

N randomised: total: 40; intervention: 20; comparator: 20

Diagnosis (% of participants):

Stable angina, post PCI: intervention: 85%; comparator: 95%

Unstable angina, post PCI: intervention: 15%; comparator: 5%

Age (mean ± SD): intervention: 57 ±14; comparator: 61 ± 10

Percentage male: Total: 21%; intervention: 18%; comparator: 25%

Ethnicity: NR

Interventions

Intervention: starting 11 ± 4 days after PCI, the training model included 10 min warm‐up at 60% to 70% of max HR, followed by 4 min intervals at 80% to 90% of max HR, when participants were riding an ergometric bicycle or were running. Intervals were interrupted by 3 minutes of active recovery at 60% to 70% of maximal heart rate. Afterwards, there was a 5‐min cool‐down, 10 min of abdominal and spine resistance exercises, and 5 min of stretching and relaxing. The training sessions were monitored with individual pulse watches allowing the participant to achieve the target heart rate.

Components: exercise only

Setting: centre‐based supervised training in groups of 10

Exercise programme modality: ergometric bicycle or running
Length of session: 1 hour
Frequency: 3 times a week
Intensity: 60% to 70% max HR
Resistance training included? Spine & abdominal resistance exercises

Total duration: 6 months

Co‐interventions: none described

Comparator: participants received usual care (not described), including drug therapy of clopidogrel, aspirin and statins

Co‐interventions: none described

Outcomes

Mortality, MI, and revascularisations

Source of funding

Norwegian Health Association, Oslo, Norway, and Stavanger University Hospital

Conflicts of interest

NR in this paper, but none declared in Munk 2011

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

“The order of treatments within the block was randomly permuted by a computer‐generated sequence.”

Allocation concealment (selection bias)

Low risk

“The investigator, who recruited patients into the trial, was unaware of the group to which a participant was allocated.”

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

“All scans were analysed twice with EchoPACtm (GE Vingmed Ultrasound) by two blinded investigators. Two experienced cardiologists independently interpreted the images in a blinded manner.” However, not clear if blinded for clinical events and exercise capacity.

Incomplete outcome data (attrition bias)
All outcomes

Low risk

“No patient was lost to follow up.”

Selective reporting (reporting bias)

Low risk

All outcomes described in methods were reported at all time points.

Mutwalli 2012

Study characteristics

Methods

Study design: single‐centre RCT

Country: Kingdom of Saudi Arabia

Dates participants recruited: 8 June 2008 to 3 January 2010

Maximum follow‐up: 6 months

Participants

Inclusion criteria: participants admitted for coronary artery bypass graft (CABG) surgery

Exclusion criteria: history of ejection fraction less than 30%, poor mobility leading to difficulty in walking, chronic atrial fibrillation, repeat CABG or implantable pacemaker were excluded from the study.

N randomised: total: 49; intervention: 28; comparator: 21

Diagnosis (% of participants): post‐CABG: 100%

Age (years): intervention: 56.75 (range 53.6 to 59.8); comparator: 57.22 (range 54.4 to 60.2)

Percentage male: 100%

Ethnicity: NR

Interventions

Intervention: whilst in the cardiac ward, the participants walked daily for 30 minutes. Additionally, before discharge, the participants climbed one flight of stairs and were then asked to walk unaided at a comfortable pace 30 minutes per day until they completed the 6‐month home‐based CR programme.

Components: exercise plus education

Setting: at home, unsupervised with telephone support

Exercise programme modality: walking
Length of session: 30 minutes
Frequency: daily
Intensity: NR
Resistance training included? No

Total duration: 6 months

Co‐interventions: participants received pre‐CABG, immediately post‐CABG, and home‐based CR program, including education, food management education and a one‐hour group workshop which included advice on modifiable and non‐modifiable risk factors, change of lifestyle, active life, stress, and then discussed participant’s problems and feelings during the past 2 months. This group workshop was repeated 4 months and 6 months after hospital discharge.

Comparator: the control group received standard hospital care, including regular advice from doctors and followed usual hospital instructions. This did not include a rehabilitation programme or telephone calls by the study authors.

Co‐interventions: None described

Outcomes

Mortality, MI, hospitalisation and HRQoL

Source of funding

"Work was not supported or funded by any drug company.”

Conflicts of interest

“Authors have no conflict of interests.”

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

“Patients who consented to participate in the study, were randomly assigned....”

Allocation concealment (selection bias)

Unclear risk

Allocation concealment not described

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

7/50 participants (14%) lost to follow‐up: one from control group died (1/22, 5%) and 6 from the intervention group (6/28, 21%) could not complete the study requirements.

Selective reporting (reporting bias)

Low risk

All outcomes described in methods are reported at all time points.

Oerkild 2012

Study characteristics

Methods

Study design: single‐centre RCT

Country: Denmark

Dates participants recruited: January 2007 to July 2008

Maximum follow‐up: 12 months; mortality data after 5.5 years (mean follow‐up 4½ years)

Participants

Inclusion criteria: participants ≥ 65 years with a recent coronary event defined as acute myocardial infarction (MI), percutaneous transluminal coronary intervention (PCI) or coronary artery bypass graft (CABG) and who declined participation in centre‐based CR

Exclusion criteria: mental disorders (dementia), social disorders (severe alcoholism and drug abuse), living in a nursing home, language barriers or use of wheelchair

N randomised: total: 40; intervention: 19; comparator: 21

Diagnosis (% of participants):

Previous MI: intervention: 31.7; comparator: 38.1

Previous PCI: intervention: 21.1; comparator: 23.8

Previous CABG: intervention: 0; comparator: 9.5

Heart failure LVEF ≤ 45%: intervention: 50.0; comparator: 42.9

Event prior to entry into the study:

Post‐MI without invasive procedure: intervention: 0; comparator: 19.1

Post‐PCI: intervention: 84.2; comparator: 66.7

Post‐CABG: intervention: 15.8; comparator: 14.3

Age (mean ± SD): intervention: 77.3 ± 6.0; comparator: 76.5 ± 7.7

Percentage male: intervention: 63.2%; comparator: 52.3%

Ethnicity: NR

Interventions

Intervention: individualised exercise programmes followed the international recommendations with 30 min exercise/day including 5‐ to 10‐min warm‐up (e.g. slow walking) and 10‐min cool‐down at a frequency of 6 days/week at an intensity of 11 to 13 on the Borg scale. For very disabled participants, the exercise programmes were of shorter duration but then repeated several times a day. At 4 and 5 months, a telephone call was made by the cardiologist to encourage continuous exercising and to answer any medical questions.

Components: exercise plus risk factor management

Setting: unsupervised individualised programme at home, with telephone support

Exercise programme modality: individualised
Length of session: 30 min
Frequency: 6 days a week
Intensity: 11 to 13 on the Borg scale
Resistance training included? No

Total duration: 12 months

Co‐interventions: the participants consulted a cardiologist at baseline and after 3, 6 and 12 months, regarding risk factor intervention and medical adjustment. All participants were offered dietary counselling and, if required, smoking cessation.

Comparator: participants received usual care. They received consultation with a cardiologist, and telephone calls at 4 and 5 months. They were not offered exercise education or dietary counselling.

Co‐interventions: participants were offered risk factor intervention and medical adjustment by a cardiologist at baseline and after 3, 6 and 12 months.

Outcomes

Mortality, HRQoL

Source of funding

Velux Foundations

Conflicts of interest

None

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

“Patients were randomised in alternated block sizes of 4–6 using computer‐generated randomly permuted blocks”.

Allocation concealment (selection bias)

Low risk

“An impartial person, not related to the study, randomised the patients”.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

“Because of the nature of the intervention, concealment of randomisation was not feasible with regard to both patients and researcher”. It is not clear if outcome measures are blinded.

Incomplete outcome data (attrition bias)
All outcomes

Low risk

“A total of nine patients died during a mean follow‐up of 4.5 years (usual care group n=5 and home group n=4). There was no loss to follow‐up.”

Selective reporting (reporting bias)

High risk

Although the methods state that outcomes were measured at 3, 6 and 12 months, only exercise capacity is reported at 6 months.

Oldridge 1991

Study characteristics

Methods

Study design: multicentre RCT (6 sites)

Country: Canada

Dates participants recruited: NR

Maximum follow‐up: 1 year

Participants

Inclusion criteria: diagnosis of AMI and scoring > 5 on the short form of the Beck Depression Inventory or > 43 on the Spielberger State Anxiety Inventory or > 42 on the Spielberger Trait Anxiety Inventory while still in hospital

Exclusion criteria: residence > 30 miles from the Health Sciences Centre; inability to exercise due to
uncontrolled dysrhythmias, heart failure or unstable angina; neurologic, orthopedic, peripheral vascular or respiratory disease; and inability to complete the quality of life questionnaires due to cognitive or language problems

N randomised: total: 201; intervention: 99; comparator: 102

Diagnosis (% of participants): MI: 100%

Age (mean ± SD): intervention: 52.9 ± 9.5; comparator: 52.7 ± 9.5

Percentage male: intervention: 88%; comparator: 90%

Ethnicity: NR

Interventions

Intervention: participants attended 50‐min exercise sessions twice a week for 8 consecutive weeks. These sessions were held in a hospital gymnasium under the direct supervision of a cardiologist and qualified exercise specialists. There was a I0‐min group warm‐up at the beginning of each session; stationary cycle ergometry, treadmill walking and arm ergometry followed for 20 to 30 minutes. A cool‐down, involving low‐intensity activities, concluded the exercise session.

Components: exercise and behavioural counselling

Setting: centre

Exercise programme modality: stationary cycle ergometry, treadmill walking and arm ergometry
Length of session: 50 min
Frequency: twice a week
Intensity: initially on 65% of the maximal heart rate
Resistance training included? No

Total duration: 8 weeks

Co‐interventions: the cognitive behavioural group intervention, facilitated by group leaders without formal training in counselling, consisted of 8 sessions of 90 minutes complemented by progressive relaxation training at the end of the session. Both participant and spouse were invited to attend the group sessions.

Comparator: conventional care

Co‐interventions: none described

Outcomes

Mortality. Health‐related quality of life: QOLMI time trade‐off. Cost data reported in Oldridge 1993

Source of funding

This work was supported by the National Health Research and Development Programme, Health and Welfare, Canada

Conflicts of interest

NR

Notes

Both groups improved over 12 months, with the biggest changes occurring in the first 8 weeks.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomized"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

High risk

"the investigators were not blinded to allocation"

Incomplete outcome data (attrition bias)
All outcomes

High risk

For the primary outcome ‐ HRQL ‐ 9% lost to follow‐up; no description of withdrawals or dropouts

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points.

Ornish 1990

Study characteristics

Methods

Study design: multicentre RCT (2 sites)

Country: USA

Dates participants recruited: NR

Maximum follow‐up: 5 years

Participants

Inclusion criteria: age 35 to 75 years, male or female; residence in the greater San Francisco area; one, two, or three vessel CAD (defined as any measurable coronary atherosclerosis in a non‐dilated or non‐bypassed coronary artery); LVEF > 25%

Exclusion criteria: other life‐threatening illnesses; MI during the preceding 6 weeks, history of receiving streptokinase or alteplase; currently receiving lipid‐lowering drugs; scheduled to receive CABG

N randomised: total: 48; intervention: 28; comparator: 20

Diagnosis (% of participants): moderate to severe CAD: 100%

Age (mean ±SD): Intervention: 56.1 ± 7.5; Comparator: 59.8 ± 9.1

Percentage male: Intervention: 95%; Comparator: 79%

Ethnicity: NR

Interventions

Intervention: the intervention began with a week‐long residential retreat at a hotel to teach the lifestyle intervention to the experimental‐group participants. Participants then attended regular group support meetings (4 h twice a week). Participants were individually prescribed exercise levels (typically walking) according to their baseline treadmill test results. Participants were asked to exercise for a minimum of 3 h per week and to spend a minimum of 30 min per session exercising within their target heart rates.

Components: exercise plus psychosocial and diet

Setting: centre

Exercise programme modality: typically walking
Length of session: minimum of 30 min
Frequency: up to 6 times a week
Intensity: heart rate of 50‐80%
Resistance training included? No

Total duration: 1 year

Co‐interventions: stress management, low fat vegetarian diet, group psychosocial support

Comparator: usual care

Co‐interventions: none described

Outcomes

CHD mortality, non‐fatal MI, revascularisation

Assessment at baseline and after 1 year and 5 years

Source of funding

National Heart, Lung, and Blood Institute of the National Institutes of Health, the Department of Health Services of the State of California, Gerald D. Hines Interests, Houston Endowment Inc, the Henry J. Kaiser Family Foundation. the John E. Fetzer Institute, Continental Airlines, the Enron Foundation, the Nathan Cummings Foundation, the Pritzker Foundation, the First Boston Corporation, Quaker Oats Co., Texas Commerce Bank, Corrine and David Gould, Pacific Presbyterian Medical Center Foundation, General Growth Companies, Arthur Andersen and Co.

Conflicts of interest

NR

Notes

Intervention group had 91% reduction in reported frequency of angina after 1 year and 72% after 5 years; comparator group had 186% increase in reported frequency of angina after 1 year and 36% decrease after 5 years.
Intervention group had 7.9% relative improvement in coronary artery diameter at 5 years, comparator group had 27.7% relative worsening at 5 years.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomly assigned"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

"Investigators carrying out all medical tests remained unaware of both patient group assignment and the order of the tests".

Incomplete outcome data (attrition bias)
All outcomes

High risk

45/93 (48%) of randomised participants did not participate; no description of withdrawals or dropouts

Selective reporting (reporting bias)

High risk

Outcomes are only presented for 1 year, although blood tests were also taken at 6 months.

Pal 2013

Study characteristics

Methods

Study design: single‐centre RCT

Country: India

Dates participants recruited: February 2007 to July 2010

Maximum follow‐up: 18 months

Participants

Inclusion criteria: “Patients with proven CAD were recruited. Disease was diagnosed by history of electrocardiograms, echocardiography and treadmill testing. Their willingness to complete the entire span of the project (18 months) was assured.”

Exclusion criteria: “Patients who had other co‐morbid conditions (e.g. malignant hypertension, diabetes mellitus, chronic obstructive pulmonary disease, asthma, diseases of the nervous system, endocrinal disorders, congenital heart disease) and patients with known complications of CAD, those on pacemakers, and those who had undergone bypass surgery were excluded from the study”

N randomised: total: 258; intervention: 129; comparator: 129

Diagnosis (% of participants): participants with proven CAD (100%)

Age (mean ±SD): Intervention: 59.1 ± 9.9; Comparator: 56.4 ± 10.9

Percentage male: intervention: 80%; comparator: 81%

Ethnicity: NR

Interventions

Intervention: yogic intervention plus medication performed in the Department of Physiology at Chhatrapati Sahuji Maharah Medical University under the guidance and supervision of yoga experts. 35 to 40 minutes per day, for 5 days per week over 18 months. 

Components: exercise only

Setting: centre

Exercise programme modality: yoga
Length of session: 35 to 40 minutes
Frequency: 5 times a week
Intensity: NR
Resistance training included? No

Total duration: 18 months

Co‐interventions: none described

Comparator: medication only

Co‐interventions: none described

Outcomes

All‐cause mortality reported in study flow diagram

Source of funding

Department of AYUSH, Ministry of Health and Family Welfare, Government of India

Conflicts of interest

None declared

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

“Using a random number generator... A professional not associated with this study generated the randomization scheme.” 

Allocation concealment (selection bias)

Low risk

“A professional not associated with this study generated the randomization scheme.”

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding of yoga instructors, study personnel and outcome assessors was not described 

Incomplete outcome data (attrition bias)
All outcomes

High risk

19% in the intervention group and 20% in the control group lost to follow‐up. Reasons were described and "Patients who dropped out of the study did not differ significantly in terms of age and sex".

Selective reporting (reporting bias)

Unclear risk

No published protocol or trial registration available. Triallists state that this study is part of “a larger study conducted under the Extra Mural Research Project of the Department of Department of Ayurveda, Yoga & Naturopathy, Unani, Siddha and Homoeopathy (AYUSH), at the Indian Ministry of Health and Family Welfare”  but no reference provided. 

Pomeshkina 2017

Study characteristics

Methods

Study design: single‐centre RCT with 3 arms (supervised cycling vs home‐based walking vs control)

Country: Russia

Dates participants recruited: NR

Maximum follow‐up: 12 months

Participants

Inclusion criteria: male with coronary artery disease, planned myocardial revascularisation surgery (cardiopulmonary bypass)

Exclusion criteria: age over 65 years, unstable angina pectoris, recent MI (less than 30 days), changes in ECG making it difficult to interpret the QRS complex and ST segment, atrial fibrillation and other serious cardiac arrhythmias, decreased LVEF ( < 40%), pulmonary hypertension, respiratory and renal failure, metabolic (obesity, decompensated diabetes mellitus) and concomitant diseases that prevent exercise

N randomised: total: 114; intervention 1 (cycling): 36; intervention 2 (walking): 36; comparator: 42

Diagnosis (% of participants): CABG (100%)

Age (median, IQR): intervention 1 (cycling): 57, 51‐59; intervention: 56, 51‐57; comparator: 56 (51‐57)

Percentage male: 100%

Ethnicity (white %): NR

Interventions

Intervention:

Group 1: controlled aerobic exercise carried out on a stationary bike

Group 2: independent dosed walking at home, with training pace controlled by pedometer

Components: Exercise only

Setting: group 1 ‐ hospital‐based; group 2 ‐ home‐based

Exercise programme modality: group 1 ‐ cycling; group 2 ‐ walking
Length of session: 30 minutes
Frequency: group 1: 3 sessions per week; group 2: at least 3 times per week
Intensity: group 1: 50% to 75% peak heart rate; group 2: walking pace determined by calculation using cycle ergometry test, target heart rate 50% to 75% peak
Resistance training included? No

Total duration: 3 months

Co‐interventions: None described

Comparator: Medication plus monthly telephone follow‐up

Co‐interventions: None described

Outcomes

HRQoL (results not reported)

Source of funding

Not reported

Conflicts of interest

None declared

Notes

Paper translated from Russian. Authors contacted to request HRQoL data, but no response received

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

By simple randomisation using a table of random numbers

Allocation concealment (selection bias)

Unclear risk

No information provided

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

No information provided

Incomplete outcome data (attrition bias)
All outcomes

Low risk

Number randomised and reported in final outcomes the same, appears to be no dropouts

Selective reporting (reporting bias)

High risk

Methods state that at each time point, participants underwent clinical examination, echocardiography, quality of life assessment and determination of exercise tolerance, but these results are not reported.

Pomeshkina 2019

Study characteristics

Methods

Study design: single‐centre RCT

Country: Russia

Dates participants recruited: January 2015 ‐ December 2016

Maximum follow‐up: 12 months

Participants

Inclusion criteria: participants with coronary artery disease who underwent CABG with the presence of arterial erectile dysfunction

Exclusion criteria: confirmed endocrine causes of erectile dysfunction, acquired primary hypogonadism, anatomical deformities of the external genital organs, drug‐related decrease in secretion testosterone, cancer, history of stroke, radical interventions on the pelvic organs, decompensated somatic diseases, low (< 50 W) exercise tolerance (TFN), arterial hypertension with diastolic blood pressure above 100 mmHg, recent myocardial infarction (< 28 days), complex rhythm and conduction disturbances (paroxysmal tachycardia, atrial fibrillation, polytopic and group ventricular extrasystoles, atrioventricular blockade (II‐III degree), chronic heart failure (class III, IV), subacute course of chronic non‐specific lung diseases, postoperative thrombophlebitis of the lower extremities, diabetes mellitus, a variety of neurological disorders that could interfere with cycling.

N randomised: total: 114; intervention: 53; comparator: 61

Diagnosis (% of participants): CABG (100%)

Age (mean, SD): intervention: 56.9 ± 4.7; comparator: 57.1 ± 4.8

Percentage male: 100%

Ethnicity (white %): NR

Interventions

Intervention: controlled physical training in the form of cycling training

Components: exercise only

Setting: centre‐based

Exercise programme modality: cycling
Length of session: NR
Frequency: NR
Intensity: NR
Resistance training included? No

Total duration: NR

Co‐interventions: none described

Comparator: no physical training

Co‐interventions: none described

Outcomes

Methods states: myocardial infarction (MI), episodes of unstable angina pectoris, ischaemic stroke, lethal outcomes. But these are not reported in the results.

Source of funding

Not reported

Conflicts of interest

None declared

Notes

Paper translated from Russian. Authors contacted to request clinical outcome data, but no response received

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

No information about methods used to generate allocation sequence

Allocation concealment (selection bias)

Unclear risk

No information about methods used to conceal allocation sequence

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

No information provided about blinding of outcome assessors

Incomplete outcome data (attrition bias)
All outcomes

Low risk

Appears to be no missing outcome data

Selective reporting (reporting bias)

High risk

Methods report collection of myocardial infarction (MI), episodes of unstable angina pectoris, ischaemic stroke, lethal outcome data, but these are not reported in results section

Prabhakaran 2020

Study characteristics

Methods

Study design: multicentre RCT (24 sites)

Country: India

Dates participants recruited: August 2014 ‐ March 2018

Maximum follow‐up: median follow‐up 21.6 months

Participants

Inclusion criteria: participants aged 18 to 80 years with acute myocardial infarction within the past 14 days were eligible if they were willing and able to complete the hospital‐based CR programme. Acute MI confirmed by the WHO definition (presence of symptoms of ischaemia and changes in ECG) or the Third Universal definition of MI (elevation of a cardiac biomarker along with the presence of other symptoms of MI or changes in ECG).

Exclusion criteria: participants who practised yoga regularly (i.e. > 3hr per week) or were participating in other clinical trials. Those with diseases that limited their life span to < 1 year or considered unlikely to complete the study by the local investigator.

N randomised: total: 3959; intervention: 1970; comparator: 1989

Diagnosis (% of participants): MI: 100%

Age (mean ± SD): intervention: 53.4 ± 11; comparator: 53.4 ± 10.8

Percentage male: intervention: 86.2%; comparator: 85.9%

Ethnicity: NR

Interventions

Intervention: Yoga‐care program. 13 direct contact sessions over 12 weeks. First two sessions delivered individually and the remainder in groups at the hospital. Group sessions lasted ~75 minutes and involved a combination of exercises related to general physical conditioning, stress and relaxation (health rejuvenating exercises ‐ around 10 min, yoga poses ‐ 25 min, breathing exercises ‐ 15 min, meditation and relaxation practices ‐ 15 min; and moderated discussion ‐ 10 min), and some exercises believed to be of particular cardio‐protective benefit in yogic texts. The lifestyle and other educational components were informed by yogic ideas but moderated by established scientific evidence. Sessions led by yoga teachers trained in delivery of yoga‐care program. Participants were also encouraged to practice daily at home following the instructions provided in a DVD and booklet.

Components: exercise and education

Setting: centre‐based

Exercise programme modality: yoga
Length of session: 75 min
Frequency: at least once a week
Intensity: not reported
Resistance training included? No

Total duration: 12 weeks

Co‐interventions: None described

Comparator: Enhanced standard care in the form of educational advice leaflets (once before discharge, at 5 and 12 weeks) along with standard medical care as elsewhere in India but does not include rehabilitation.

Co‐interventions: none described

Outcomes

Mortality, MI, hospitalisations, HRQoL (only at 12 weeks), cost effectiveness

Source of funding

Indian Council of Medical Research and the Medical Research Council, United Kingdom

Conflicts of interest

Dr. Chathurvedi has served as a member of the Data Safety and Monitoring Committee for AstraZeneca. All other authors have reported that they have no relationships relevant to the contents of this paper to disclose.

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

“Block randomization, stratified by centers, age (<60 or $60 years), and sex, was carried out by a central computer program”

Allocation concealment (selection bias)

Low risk

"...central computer program using an interactive Web response system"

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

“Events were adjudicated by an independent committee unaware of trial‐group assignments, using standard definitions specified in the protocol.”

Patient‐reported outcomes/quality of life not blinded.

Incomplete outcome data (attrition bias)
All outcomes

Low risk

Intervention 61/1979 (3%), Control 49/1989 (2%) participants lost to follow‐up are low in number and < 20%, similar across groups and for similar reasons. Protocol paper states that sensitivity analyses and multiple imputation would be performed, but these are not reported in the main publication.

Selective reporting (reporting bias)

Low risk

Protocol paper available. Prespecified economic analyses are not reported in the main report – authors confirmed this will be a separate publication. QoL data at later follow‐up time points also to be included in a later publication.

Reid 2012

Study characteristics

Methods

Study design: multicentre RCT (2 sites)

Country: Canada

Dates participants recruited: December 2004 to December 2007

Maximum follow‐up: 12 months

Participants

Inclusion criteria: Admitted for acute coronary syndromes who: underwent successful percutaneous coronary revascularisation; were not planning on enrolling in CR; had Internet access at home or work; and were 20 to 80 years of age.

Exclusion criteria: CABG; implantable cardioverter‐defibrillator; NYHA Class III or IV heart failure; inability to speak and read English.

N randomised: total: 223 ; intervention: 115; comparator: 108

Diagnosis (% of participants):

AMI this admission: 29.1%
PCI this admission: 98.2%
First cardiac event: 64.6%
Previous AMI: 18.8%
Previous PCI: 27.4%
Previous CABG: 9.0%

Age (mean ±SD): intervention: 56.7 ± 9.0; comparator: 56.0 ± 9.0

Percentage male: intervention: 82.6%; comparator: 86.1%

Ethnicity: NR

Interventions

Intervention: Participants were visited in hospital by an exercise specialist, who presented a personally tailored physical activity plan and instructions on how to access the CardioFit website. Following discharge, participants were asked to log their daily activity on the CardioFit website and complete a series of five online tutorials (at weeks 2, 4, 8, 14, and 20). Following each tutorial, a new physical activity plan was developed. Between tutorials, participants received emails from the exercise specialist providing motivational feedback on their progress.

Components: exercise plus psychological support

Setting: home

Exercise programme modality: NR
Length of session: NR
Frequency: NR
Intensity: NR
Resistance training included? NR

Total duration: 20 weeks

Co‐interventions: the CardioFit website and tutorials were designed to foster behavioural capability, self‐efficacy, social support, and realistic outcome expectations. Tutorials were organised to engage self‐control processes including exercise planning, goal setting, monitoring and self‐regulation, and relapse prevention.

Comparator: physical activity guidance from their attending cardiologist and an education booklet.

Co‐interventions: none described

Outcomes

HRQoL

Source of funding

Heart and Stroke Foundation of Ontario. Dr Reid was supported by a New Investigator Award from the Heart and Stroke Foundation of Canada. Dr Blanchard is supported by the Canada Research Chairs programme.

Conflicts of interest

"The authors declare that there is no conflict of interests"

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"Participants were randomized ... using a random sequence that was computer generated by a statistical consultant in blocks of 4, 8, and 10."

Allocation concealment (selection bias)

Low risk

"Sequences were generated for Ottawa and London and placed in sealed, numbered envelopes to ensure that treatment allocation was concealed until after baseline data collection. Research coordinators allocated the next available number on study entry (while the participant was still hospitalized)"

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

"Research assistants, blinded to the participants’ treatment allocation, conducted follow‐up assessments"

Incomplete outcome data (attrition bias)
All outcomes

High risk

Loss to follow‐up was well reported but was high in both groups 36/115 [31%] and 33/108 [31%] were lost to follow‐up from the intervention and control groups.

Selective reporting (reporting bias)

Low risk

All outcomes described in the methods section are reported in results.

Roman 1983

Study characteristics

Methods

Study design: single‐centre RCT

Country: Chile

Dates participants recruited: June 1973 to June 1981

Maximum follow‐up: 9 years

Participants

Inclusion criteria: participants with transmural AMI

Exclusion criteria: severe arrhythmias persisting after the acute phase of AMI (frequent ventricular premature beats, grade iii‐iv of the Lown classification, atrial flutter, partial or complete AV block); great left‐ventricular enlargement; left ventricular aneurysm; persistent cardiac failure; severe diastolic hypertension post‐myocardial infarction angina.

N randomised: total: 193; intervention: 93; comparator: 100

Diagnosis (% of participants):

Transmural AMI: 100%

Anterior wall infarction: 55%

Posteroinferior infarction: 45%

Age (mean ± SD): intervention: 56.2 ± 10.3; comparator: 59.1 ± 8.8

Percentage male: intervention: 93.6%; comparator: 87%

Ethnicity: NR

Interventions

Intervention: Supervised physical training programme according to the guidelines reported by Zohman and Tobias. It was started with combined ergometric, callisthenic and walk‐jogging exercise lasting 30 min, three times a week. The intensity of the training was graded according to the target heart rate threshold, defined as 70% of maximal heart rate achieved by the participant in the former ergometric work test.

Components: exercise only

Setting: centre

Exercise programme modality: combined ergometric and walk‐jogging exercise
Length of session: 30 min
Frequency: three times a week
Intensity: 70% of maximal heart rate
Resistance training included? Callisthenics

Total duration: average 42 months (range 6 to 108 months)

Co‐interventions: none described

Comparator: Control participants were medically treated according to the guidelines commonly used; namely, short‐ and long‐lasting nitrites, ß‐ blockers or Ca antagonists (nifedipine).

Co‐interventions: A small number (8 participants) were also treated with oral anticoagulants.

Outcomes

Mortality, MI and revascularisations

Source of funding

NR

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

“Patients were randomly allocated…”

Allocation concealment (selection bias)

Unclear risk

Allocation concealment not described

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

Low risk

18/93 (19.4%) and 18/100 (18%) withdrew or dropped out from intervention and control groups over the 9‐year period.

Selective reporting (reporting bias)

Low risk

Mortality, morbidity and complications were recorded over the duration of the study and are presented as rates.

Sandström 2005

Study characteristics

Methods

Study design: single‐centre RCT

Country: Sweden

Dates participants recruited: NR (recruited over a period of 2½ years)

Maximum follow‐up: 12 months

Participants

Inclusion criteria: participants > 65 years admitted following an acute coronary event. Participants had to perform a pre‐discharge exercise test with a workload of ≥ 70 watts in men and ≥ 50 watts in women.

Exclusion criteria: participants with neurological sequelae, memory dysfunction such as dementia, orthopaedic disability, inability to speak or understand Swedish, or both, and a planned coronary intervention within 3 months.

N randomised: total: 101; intervention: 50; comparator: 51

Diagnosis (% of participants):

Angina pectoris: intervention: 20%; comparator: 21%

Previous AMI: intervention: 18%; comparator: 11%

Acute coronary event: intervention: 50%; comparator: 51%

Previous PCI: intervention: 7%; comparator: 5%

Previous CABG: intervention: 9%; comparator: 9%

(Not mutually exclusive numbers.)

Age (median): total: 71 years (range 64‐84); intervention: 71 years (range 64‐84); comparator: 71 years (range 65‐83)

Percentage male: total 80.2%; intervention: 82%; comparator: 78.4%

Ethnicity: NR

Interventions

Intervention: 50 min aerobic group training programme three times a week for 3 months, with a voluntary 50 min step‐down period once a week for another 3 months. The complete programme was supported by music, which guided the intensity of the performance during the session. The training sessions were followed by 10 min of relaxation, also supported by music.

Components: exercise only

Setting: centre‐based supervised group sessions

Exercise programme modality: aerobic exercises to music
Length of session: 50 min with a voluntary 50 min step‐down period once a week for another 3 months
Frequency: 3 times a week
Intensity: NR
Resistance training included? No

Total duration: 3 months

Co‐interventions: none described

Comparator: participants were recommended to take a daily walk at a comfortable speed, and to gradually increase the time, length and speed, and were encouraged to restart their prior physical activity as soon as they felt fit enough for this.

Co‐interventions: none described

Outcomes

HRQoL and revascularisation

Source of funding

NR

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"….were randomly allocated into one of two groups:”

Allocation concealment (selection bias)

Unclear risk

Allocation concealment was not described.

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

“patients were evaluated ….. by an independent, blinded to group allocation, researcher.”

Incomplete outcome data (attrition bias)
All outcomes

Low risk

There was no attrition ‐ data were reported for all participants randomised.

Selective reporting (reporting bias)

Low risk

All outcomes mentioned in methods were reported at all time points.

Santaularia 2017

Study characteristics

Methods

Study design: single‐centre RCT

Country: Spain

Dates participants recruited: June 2010 ‐ June 2012

Maximum follow‐up: 12 months

Participants

Inclusion criteria: Age over 18 years, diagnosis of myocardial ischaemia (MI pre‐infarct angina, angina pectoris, other specific forms of chronic ischaemic heart disease or unspecified ischaemic heart disease) during the current admission, residence in the catchment area of the hospital, absence of cognitive deficit (Pfeiffer test: 0‐2 mistakes), sufficient functional capacity to follow the CRP (Barthel index > 60), and willingness to participate in the study and provide signed informed consent.

Exclusion criteria: Symptoms of right heart failure producing pulmonary hypertension or dyspnoea caused by severe pulmonary pathology, additional comorbidities affecting the prognosis of cardiac disease, major comorbidities or limitations that could interfere with the exercise training programme.

N randomised: total: 86; intervention: 42; comparator: 44

Diagnosis (% of participants): intervention: myocardial ischaemia (85.4%), pre‐infarct angina (4.9%), cardiac angina (9.8%); comparator: myocardial ischaemia (72.7%), pre‐infarct angina (13.6%), cardiac angina (11.4%), other specific forms of chronic ischaemic heart disease (2.3%).

Age (mean ± SD): intervention: 59.4 ± 12; comparator: 59.7 ± 10.4

Percentage male: intervention: 93%; comparator: 77%

Ethnicity: NR

Interventions

Intervention: Supervised outpatient exercise training programme based on the results of the exercise stress test and mindful of comorbid conditions and physical limitations. Intervention started within 3 days of exercise test which was performed within 1 month of discharge. Hospital‐based programme of physiotherapist‐supervised exercise (3 hours/week spread over 3 days), for 10 weeks. Classes consisted of 10 minutes of warm‐up and muscle stretching, 30 minutes of aerobic exercises on a cycle ergometer, 15 minutes of isotonic exercises for the upper and lower limbs and 5 minutes of cool‐down. Aerobic exercise intensity was between 75% and 90% of the maximum heart rate obtained in the previous exercise stress test and progressed according to the perceived exertion rate score of 11–15. Resistance training was performed with 10–15 repetitions for three sets, maintaining a perceived exertion rate score of 11–14.

Components: exercise only

Setting: centre‐based

Exercise programme modality: cycle ergometry
Length of session: 1 hour
Frequency: 3 sessions per week
Intensity: 75‐90% peak heart rate, RPE 11‐15
Resistance training included? Yes – upper and lower limb isotonic exercises, 10‐15 repetitions, 3 sets, RPE 11‐14

Total duration: 10 weeks

Co‐interventions: None described

Comparator: Standard care, given oral and written information about cardiovascular risk factors during hospitalisation. Participants instructed to do exercises to regain mobility and maintain muscle tone and peripheral circulation and taught breathing exercises. Participants provided guidance on how to return to physical activity. Scheduled for follow‐up visits at 3, 6 and 12 months post discharge to control risk factors, reinforce education measures and review adherence to cardiac medication.

Co‐interventions: none described

Outcomes

Mortality, hospitalisations, HRQoL

Source of funding

Supported by a grant from the Collegi de Fisioterapeutes de Catalunya (no.: R01/08‐09)

Conflicts of interest

None declared

Notes

Authors contacted to obtain appendices as they were not available online

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"A randomisation list in blocks of 10 was created by a computer random number generator."

Allocation concealment (selection bias)

Unclear risk

"The randomisation list and allocation of patients to each group were independently controlled by the Clinical Research Unit"

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

"The endpoint committee who assessed the primary outcomes was blinded regarding group assignment."
Appears that HRQoL assessment was not blinded.

Incomplete outcome data (attrition bias)
All outcomes

Low risk

< 20% missing outcome data and reasons provided

Selective reporting (reporting bias)

Low risk

Published protocol paper available; all outcomes reported

Schuler 1992

Study characteristics

Methods

Study design: single‐centre RCT. Participants randomised after routine angiography for angina.

Country: Germany

Dates participants recruited: NR

Maximum follow‐up: 6 years

Participants

Inclusion criteria: Male, stable symptoms, willingness to participate in the study for at least 12 months, coronary artery stenoses well documented by angiography, and permanent residence within 25 km of the training facilities at Heidelberg.

Exclusion criteria: Unstable angina pectoris, left main coronary artery stenosis > 25% luminal diameter reduction, severely depressed left ventricular function (ejection fraction < 35%), significant valvular heart disease, insulin‐dependent diabetes mellitus, primary hypercholesterolaemia (type II hyperlipoproteinaemia, low density lipoprotein [LDL] > 210 mg/dL), and occupational, orthopedic, and other conditions precluding regular participation in exercise sessions.

N randomised: total: 113; intervention: 56; comparator: 57

Diagnosis (% of participants): AMI: 66%

Age (mean ± SD): intervention: 52.8 ± 5.8; comparator: 54.2 ± 7.7

Percentage male: 100%

Ethnicity: NR

Interventions

Intervention: participants stayed on a metabolic ward during the initial 3 weeks, during which they were instructed how to lower the fat content of their regular diet. Participants were asked to exercise daily at home on a cycle ergometer for a minimum of 30 minutes close to their target heart rates, which were determined as 75% of the maximal heart rate during symptom‐limited exercise. In addition, they were expected to participate in at least two group training sessions of 60 minutes each week.

Components: exercise and education.

Setting: centre (group session) and unsupervised at home.

Exercise programme modality: cycle ergometer.
Length of session: 30 min at home and 60 min group session.
Frequency: daily at home; twice a week at centre.
Intensity: 75% maximal HR.
Resistance training included? No.

Total duration: 12 months.

Co‐interventions: participants were on their regular antianginal medication, including β‐blocking agents.

Comparator: participants spent 1 week on the metabolic ward, where they received identical instructions about the necessity of regular physical exercise and how to lower fat consumption. "Usual care" was rendered by their private physicians.

Co‐interventions: They were asked not to take lipid‐lowering medications.

Outcomes

Total and CHD mortality, non‐fatal MI, revascularisation.

Source of funding

Bundesministerium für Forschung und Technologie, Bonn, FRG.

Conflicts of interest

NR

Notes

Exercise adherence in the first year was 68% (39% to 92%), over the next 5 years 33% (3% to 89%).
Participants with regression of coronary atheroma attended exercise sessions significantly more often (54 +/‐ 24%) than participants with no change (20 +/‐ 24%) or progression 31 +/‐ 20%).

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Not reported.

Allocation concealment (selection bias)

Low risk

"sealed envelopes"

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

"Evaluation of coronary angiograms was performed by two technicians blinded to the sequence of films and the patient's identity or group assignment."

Incomplete outcome data (attrition bias)
All outcomes

High risk

20% lost to follow‐up; no description of withdrawals or dropouts.

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points.

Seki 2003

Study characteristics

Methods

Study design: single‐centre RCT

Country: Japan

Dates participants recruited: NR

Maximum follow‐up: 6 months

Participants

Inclusion criteria: Male participants; > 65 years of age; with chronic CAD; referred at least 6 months after a major coronary event, including acute MI, coronary artery bypass grafting or percutaneous balloon angioplasty for acute coronary syndrome.

Exclusion criteria: none described.

N randomised: total: 38; intervention: 20; comparator: 18

Diagnosis (% of participants):

Chronic CAD: 100%

MI: 55%
PCI: 39%
CABG: 39%

Age (mean ± SD): intervention: 69.3±2.9 ; comparator: 70.1±3.7

Percentage male: 100%

Ethnicity: NR

Interventions

Intervention: participants participated in an outpatient phase III CR program for 6 months. The weekly supervised exercise session at the clinic consisted of approximately 20 min of warm‐up exercises including stretching and callisthenics, followed by 20–30 min of continuous upright aerobic and dynamic exercise (various combinations of walking, bicycling, jogging, and other activities) and light isometric exercise, such as hand weights, and approximately 20 min of cool‐down stretching and callisthenics. The intensity of exercise was prescribed individually at the anaerobic threshold level measured by a symptom‐limited treadmill exercise test at baseline. In addition to the supervised exercise session, participants were encouraged to exercise twice a week outside of the clinic. Each participant’s exercise prescription was also periodically adjusted on the basis of repeated treadmill exercise test to encourage a gradual increase in overall exercise performance.

Components: exercise and education.

Setting: supervised in a centre and independent at home.

Exercise programme modality: e.g. walking, bicycling, jogging.
Length of session: 60‐70 min.
Frequency: weekly at centre plus twice a week at home.
Intensity: prescribed individually.
Resistance training included? Callisthenics.

Total duration: 6 months.

Co‐interventions: participants were encouraged and interviewed at the supervised exercise session by physicians, dietitians, nurses, and exercise physiologists to comply with both the exercise and dietary education of the programme throughout its duration.

Comparator: participants were followed by an individual physician as a usual outpatient.

Co‐interventions: none described.

Outcomes

Health‐related quality of life at 6 months.

Source of funding

Health Sciences Research Grants from Ministry of Health and Welfare (Comprehensive Research on Aging and Health).

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomly assigned..by envelope method"

Allocation concealment (selection bias)

Unclear risk

"randomly assigned..by envelope method"

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described.

Incomplete outcome data (attrition bias)
All outcomes

Low risk

All 38 participants accounted for.

Selective reporting (reporting bias)

Low risk

All outcomes are reported for all time points.

Seki 2008

Study characteristics

Methods

Study design: single‐centre RCT

Country: Japan

Dates participants recruited: NR

Maximum follow‐up: 6 months

Participants

Inclusion criteria: > 65 years old with stable CAD

Exclusion criteria: Ongoing congestive heart failure, liver dysfunction, renal dysfunction, or systemic diseases, including malignancy and collagen disease.

N randomised: total: 39; intervention: 20; comparator: 19

Diagnosis (% of participants):

stable CAD: 100%

MI: 46%
PCI: 31%
CABG: 36%

Age (mean ± SD): intervention: 69±3 ; comparator:70±4

Percentage male: 100%

Ethnicity: NR

Interventions

Intervention: Weekly outpatient phase III cardiac rehabilitation programme that included an exercise session, exercise prescription, dietary instruction and an educational programme for 6 months. Supervised exercise sessions at the clinic consisted of approximately 15 min of warm‐up exercises including stretching, followed by 20 to 60 min of continuous upright aerobic exercise and light isotonic exercise such as sit‐ups and squatting using the participant's own body weight, followed by approximately 15 min of cool‐down stretching and callisthenics. The intensity of exercise was prescribed individually at the anaerobic threshold (AT) level as measured by a treadmill exercise test using expiratory gas analysis or a rating of 12 to 13 on the standard Borg perceived exertion scale. In addition to the weekly supervised exercise sessions, participants were encouraged to perform aerobic exercise twice weekly (≥ 30 min) at home at an intensity of heart rate of AT or a rating of 12 to 13 on the Borg scale.

Components: exercise and education.

Setting: centre and home.

Exercise programme modality: e.g. walking, bicycling, jogging.
Length of session: 50 to 110 min at the centre; ≥ 30 min at home.
Frequency: weekly at the centre plus twice a week at home.
Intensity: 12 to 13 on the standard Borg scale.
Resistance training included? Callisthenics.

Total duration: 6 months.

Co‐interventions: participants were instructed about the phase II diet of the American Heart Association at the beginning and every 2 months of the study. An educational programme was also given to each subject by physicians and nurses regarding ischaemic heart disease and risk factors at baseline. Subjects were frequently encouraged by physicians, dietician, nurses, and exercise physiologists to comply with both exercise and dietary instructions throughout the programme. Standard medical care was provided for both groups. Lipid‐lowering drugs and other medications that may affect lipid levels were given at stable doses for at least 4 weeks before entry, and the doses of these medications were not altered during the study period.

Comparator: usual outpatient care.

Co‐interventions: none described.

Outcomes

Total mortality; non‐fatal/fatal mortality.

Source of funding

Health Sciences Research Grants from Ministry of Health, Labour and Welfare (Comprehensive Research on
Aging and Health).

Conflicts of interest

NR

Notes

"No subject in either group showed any worsening of symptoms or had clinical events during this study."

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomly assigned"

Allocation concealment (selection bias)

Unclear risk

Not reported.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described.

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

No information reported.

Selective reporting (reporting bias)

Low risk

All outcomes were reported for all time points.

Shaw 1981

Study characteristics

Methods

Study design: Multicentre RCT (5 sites)

Country: USA

Dates participants recruited: 1976

Maximum follow‐up: 5 years

Participants were randomised after completion of a 6‐week, low‐level exercise programme run‐in period.

Participants

Inclusion criteria: documented MI ≥ 8 weeks but ≤ 3 years before being enrolled. Other eligibility criteria included the ability to exercise at an intensity level ≥ 3 metabolic equivalents (METs) and a supine resting diastolic blood pressure < 100 mmHg.

Exclusion criteria: participants were considered ineligible if they had any other significant coexisting CVD or other disease likely to be fatal in the near future, uncontrolled diabetes mellitus, complete heart block with or without ventricular pacemaker, or emotional or physical impairments that would make participation and adherence difficult, or if they were already participants in a formal exercise programme.

N randomised: total:651; intervention: 323; comparator: 328

Diagnosis (% of participants): MI: 100%

Age (mean ± SD): intervention: 51.5 ± 7.4; comparator: 52.1 ± 7.2

Percentage male: 100%

Ethnicity % white: intervention: 93.3%; comparator: 94.4%

Interventions

Intervention: An exercise prescription was developed on the basis of each participant’s multistage graded exercise test (MSET) results. An exercise target heart rate guided the prescription and was determined as 85% of the peak heart rate achieved on the test. This group performed brisk physical activity in the laboratory for 8 weeks, exercising 1 hour per day, 3 days per week. The participants were supervised and underwent continuous ECG monitoring. Each individual exercised for 4 minutes on each of 6 stationary machines with a 2‐minute rest interval between machines. Attainment of the target heart rate was the goal for every 4‐minute exercise period.

After 8 weeks, participants exercised in a gymnasium or swimming pool without ECG monitoring, although exercise heart rates were periodically checked. Activities consisted of 15 minutes of continuous jogging, cycling, or swimming, followed by 25 minutes of recreational games. The activities were performed at an intensity level enabling each participant to reach his individually prescribed target heart rate. The men were encouraged to attend 3 sessions per week but in some situations were allowed to exercise on their own.

Components: exercise only.

Setting: group sessions in centre (“but in some situations were allowed to exercise on their own”).

Exercise programme modality: “brisk physical activity” on “stationary machines”.
Length of session: 40 min.
Frequency: 3 days per week.
Intensity: 85% of the peak heart rate.
Resistance training included? No

Total duration: 8 weeks in the laboratory, followed by regular jogging, cycling, or swimming and recreational games.

Co‐interventions: none described.

Comparator: Participants in the non‐exercising control group were encouraged to maintain normal routines but not to participate in any regular exercise programme.

Co‐interventions: none described.

Outcomes

Total & CHD mortality, non‐fatal MI.

Source of funding

National Heart, Lung, and Blood Institute.

Conflicts of interest

NR

Notes

90% of ET attended 90% of 24 scheduled sessions post‐randomisation, only 48% attending > 50% of sessions at 18 months.
30% of control alleged exercising regularly, on own initiative.
At 19 years any protective effect from the programme had decreased over time, but an increase with PWC from the beginning to the end of the trial was associated with a consistent reduction in mortality throughout the 19 years of follow‐up.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Sequence generation not described…."the men were randomly assigned.”

Allocation concealment (selection bias)

Unclear risk

Allocation concealment not described.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described.

Incomplete outcome data (attrition bias)
All outcomes

High risk

6.5% lost to follow‐up; no description of withdrawals or dropouts.

Selective reporting (reporting bias)

Low risk

All outcomes reported for all time points.

Sivarajan 1982

Study characteristics

Methods

Study design: Multicentre RCT (7 sites)

Country: USA

Dates participants recruited: 1 September 1977 to 2 December 1979

Maximum follow‐up: 6 months

Random allocation of individuals to two intervention groups (exercise only (Intervention B1) or exercise plus teaching and counselling (Intervention B2)) and a control group (usual care).

Participants

Inclusion criteria: Previous MI, age < 70 years, living < 50 miles of centre.

Exclusion criteria: prolonged complications, physical limitations, noncardiac or cardiac diseases, communication problems, other issues e.g. massive obesity, psychological problems, etc.

N randomised: total: 258; Intervention B1: 88; Intervention B2: 86; comparator: 84

Diagnosis (% of participants): AMI: 100%

Age (mean ±SD): Intervention B1: 55.6 ± 9.3; Intervention B2: 56.3 ± 8.3; comparator = 57.1 +/‐ 7.3

Percentage male: > 80%

Ethnicity: > 80% white

Interventions

Intervention: The outpatient exercise programme was identical for the participants in groups Bl and B2. It consisted of a gradually progressive callisthenic and walking programme prescribed at weekly 30‐minute clinic visits and performed by the participant at home. Participants were instructed to exercise twice a day until they returned to work and once a day thereafter. If the participant was symptom free, the prescription was gradually increased to add callisthenics of increasing intensity and the distance and time (or rate) of walking were gradually advanced.

Components: exercise only or exercise plus education and counselling.

Setting: centre and home.

Exercise programme modality: walking.
Length of session: NR
Frequency: twice a day until return to work and once a day thereafter.
Intensity: NR
Resistance training included? callisthenics.

Total duration: NR

Co‐interventions: participants in group B2, in addition to receiving exercise prescriptions as described above, attended a series of eight 1‐hour group sessions during weekly clinic visits. The sessions emphasised the practical aspects of anatomy and physiology of the heart, coronary artery disease, myocardial infarction and medications; risk factors, including smoking, hypercholesterolaemia, hypertension, stress and sedentary living; nutritional
aspects of fats, cholesterol, salt and alcohol; activities and exercises; emotional reactions to myocardial infarction
in participants and their families; resumption of sexual activity; and issues concerning return to work or, if retired, to an alternative, meaningful lifestyle.

Comparator: conventional medical and nursing management throughout all phases of hospitalisation and convalescence at home.

Co‐interventions: none described.

Outcomes

Total mortality; health‐related quality of life: Sickness Impact Profile.

Source of funding

Bureau of Health Professions, Division of Nursing, Department of Health and Human Services.

Conflicts of interest

NR

Notes

Several reports of the same trial all with various bits of information. Study authors conclude that multiple intervention trial of this short duration did not change participants' behaviour. MI itself acts as a strong stimulus to alter behaviour with respect to risk factors.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Not reported.

Allocation concealment (selection bias)

Unclear risk

Not reported.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described.

Incomplete outcome data (attrition bias)
All outcomes

High risk

24% lost to follow‐up; no description of withdrawals or dropouts.

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points.

Snoek 2020

Study characteristics

Methods

Study design: Multicentre RCT (6 sites across 5 countries)

Country: Europe (the Netherlands, Denmark, Spain, Switzerland, France)

Dates participants recruited: November 2015 ‐ January 2018

Maximum follow‐up: 12 months

Participants

Inclusion criteria:

Participants of 65 years or older who are a candidate for CR and non‐voluntary to participate in the regular CR programme

Signed written informed consent

One of the following criteria:

  • participants with an acute coronary syndrome, including myocardial infarction (MI) and/or revascularisation within 3 months prior to the start of the CR program

  • participants that underwent a percutaneous coronary intervention (PCI) within 3 months prior to the start of the CR programme

  • participants that received coronary artery bypass grafting (CABG) within 3 months prior to the start of the CR programme

  • participants who were treated surgically or percutaneously for valvular heart disease (including TAVI) within 3 months prior to the start of the CR programme

  • participants with a stable angina with documented significant CAD (defined by standard non‐invasive or invasive methods

Exclusion criteria:

  • Contraindication to CR

  • Mental impairment leading to inability to cooperate

  • Severe impaired ability to exercise

  • Signs of severe cardiac ischaemia and/or a positive exercise testing on severe cardiac ischaemia

  • Insufficient knowledge of the native language

  • No access, availability or insufficient knowledge of a computer with internet

  • Implanted cardiac device (pacemaker, ICD)

N randomised: total: 179; intervention: 89; comparator: 90.

Diagnosis (% of participants):

PCI: intervention 63 (71%); control 65 (72%)

CABG: intervention 11 (12%); control 8 (9%)

Valve replacement: intervention 1 (1%); control 3 (3%)

None: intervention 14 (16%); control 14 (16%)

Age (mean ±SD): intervention: 72.4 ± 5.4; comparator 73.6 ± 5.5

Percentage male: intervention: 78%, comparator: 84%

Ethnicity: intervention: 99%, comparator: 99% white

Interventions

Intervention: 6‐month home‐based CR program equipped with a smartphone and heart rate belt. Participants instructed to exercise at moderate intensity for at least 30 minutes per day, 5 days per week. Motivational interviewing was applied by telephone weekly in the first month, every other week in the second month, and monthly until completion of the program at 6 months

Setting: Home‐based

Exercise programme modality: Self‐chosen type of activity
Length of session: > 30 minutes
Frequency: five sessions per week.
Intensity: self‐selected level of intensity (guided by RPE and heart rate zones)
Resistance training included? NR

Total duration: 6 months.

Co‐interventions: none described

Comparator: participants in the control group did not receive any form of cardiac rehabilitation but received locally defined standard of care.

Co‐interventions: none described.

Outcomes

Mortality, MI, PCI, cardiovascular hospitalisation, HRQoL

Source of funding

Study was supported by grant 634439 from the European Union’s Horizon 2020 Research and Innovation Programme and contract 15.0139 from the Swiss State Secretariat for Education, Research and Innovation

Conflicts of interest

Mr Snoek reported receiving grants from European Union’s Horizon 2020 Research and Innovation Programme during the conduct of the study. Dr van der Velde reported receiving grants from the European Union during the conduct of the study. Dr Eijsvogels reported receiving a personal grant from the Dutch Heart Foundation. Dr Prins reported receiving grants from the European Commission during the conduct of the study and outside the submitted work. Dr Bruins reported receiving grants from Isala Heart Centre during the conduct of the study. Dr Meindersma reported receiving grants from the European Commission during the conduct of the study. Dr Peña‐Gil reported receiving grants from European Commission during the conduct of the study. Dr González‐Salvado reported receiving grants from the European Union during the conduct of the study. Dr Iliou reported receiving personal fees and non‐financial support from Servier Laboratories, non‐financial support from Novartis International AG and Sanofi SA, and personal fees from AstraZeneca outside the submitted work. Dr Marcin reported receiving grants from the Swiss National Fond during the conduct of the study. Dr Van’t Hof reported receiving grants from the European Union during the conduct of the study and grants from Medtronic plc, AstraZeneca, and Abbott Laboratories outside the submitted work. Dr de Kluiver reported receiving grants from the European Union during the conduct of the study and having an indirect interest in HC@home/Mobihealth, which provided the hardware and software for this study, outside the submitted work. No other disclosures were reported.

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

“Randomization was performed in fixed blocks of 4, stratified by center, with a 1:1 ratio to the intervention group (MCR) or a control group without cardiac rehabilitation using a centralized computerized allocation system.”

Allocation concealment (selection bias)

Low risk

“Randomization was performed in fixed blocks of 4, stratified by center, with a 1:1 ratio to the intervention group (MCR) or a control group without cardiac rehabilitation using a centralized computerized allocation system.”

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

“Researchers assessing primary outcomes were blinded for group assignment.”

Incomplete outcome data (attrition bias)
All outcomes

Low risk

Intervention group: 16/89 (18%) lost to follow‐up

Control group: 12/90 (13%) lost to follow‐up

Selective reporting (reporting bias)

Low risk

Trial protocol provided as supplementary file in main publication; outcomes reported in protocol are reported at 6 and 12 months in the results. Costs mentioned in the protocol but likely to be in a future publication.

Specchia 1996

Study characteristics

Methods

Study design: single‐centre RCT

Country: Italy

Dates participants recruited: NR (40‐month period)

Maximum follow‐up: mean 34.5 months

Participants

Inclusion criteria: participants < 65 years of age who had not had previous MI, admitted due to chest pain lasting > 30 minutes and because they had a diagnosis of AMI based on evolutionary ECG changes and serum kinase elevation.

Exclusion criteria: complicated in‐hospital clinical course e.g. post‐infarction angina requiring urgent revascularisation; evidence of congestive HF; chronic concomitant illnesses or musculoskeletal handicaps that would prevent them from finishing the exercise training period.

N randomised: total: 256; intervention: 125; comparator: 131

Diagnosis (% of participants):

MI: 100%

Prior angina: 42%

Age (Mean ± SD): intervention: 51.5 ± 7; comparator: 54.3 ± 8

Percentage male: 91% intervention: 91%; comparator: 91%

Ethnicity: NR

Interventions

Intervention: participants underwent a 4‐week physical training period consisting of supervised training sessions of 30 minutes of bicycle ergometry five times a week combined with callisthenics. Training intensity was graded according to 75% of maximal work capacity reached in the previous exercise test. At the end of the 4‐week training period, a second symptom‐limited exercise test was performed. Participants were then discharged with the instructions to continue the callisthenics daily and to walk for ≥ 30 minutes every 2 days.

Components: exercise, education and psychology.

Setting: centre and then home.

Exercise programme modality: bicycle ergometry in centre followed by callisthenics and walking at home.
Length of session: ≥ 30 minutes.
Frequency: five times a week in centre followed by daily callisthenics and walking every other day.
Intensity: 75% of maximal work capacity.
Resistance training included? Callisthenics.

Total duration: 4 weeks supervised and then continued at home.

Co‐interventions: All participants went to the Rehabilitation Center for 3 weeks and underwent a symptom‐limited exercise test (28 ± 2 days after myocardial infarction), 24‐hour Holter monitoring, and coronary arteriography (31 ± 3 days after the acute episode). All participants attended colloquial sessions, held by a cardiologist and a psychologist, dealing with secondary prevention of cardiovascular diseases and stressing dietary changes and smoking cessation.

Comparator: Discharged after rehab centre and clinically re‐examined 1 month later when they underwent a second symptom‐limited exercise test.

Co‐interventions: as above

Outcomes

CHD mortality, revascularisations

Source of funding

NR

Conflicts of interest

NR

Notes

Ejection fraction (EF) was the only prognostic factor.
Among 51 participants with EF < 41%, relative risk for the 27 untrained participants was 8.63 times higher than for 24 trained ones. (P = 0.04)
If EF > 40%, estimated risk for untrained participant was 1.07 times higher than for trained.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomized"

Allocation concealment (selection bias)

Unclear risk

Not reported.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described.

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No losses to follow‐up.

Selective reporting (reporting bias)

High risk

While survival data is provided, detailed clinical information was obtained from all participants at 3‐ to 4‐month intervals and these data are not reported.

Ståhle 1999

Study characteristics

Methods

Study design: single‐centre RCT

Country: Sweden

Dates participants recruited: October 1994 to June 1997

Maximum follow‐up: 1 year

Participants

Inclusion criteria: participants ≥ 65 years admitted because of an acute coronary event. To be included, the participants had to perform a pre‐discharge exercise test at a workload ≥ 70 W in men and ≥ 50 W in women. For the group with unstable angina pectoris, a ST60 depression of > 1 mm in ≥ two adjacent leads had to be documented at the exercise test.

Exclusion criteria: neurological sequelae, memory dysfunction, orthopaedic disability, inability to understand Swedish, coronary intervention planned within 3 months or other complicating diseases.

N randomised: total: 109; intervention: 56; comparator: 53

Diagnosis (% of participants):

Congestive heart failure: 6%

Previous AMI: 27%
Angina pectoris: 38%
Previous PCI: 11%
Previous CABG: 17%

Age years, (range): intervention: 71 (64‐84); comparator: 68 (65‐83)

Percentage male: intervention: 73%; comparator: 75%

Ethnicity: NR

Interventions

Intervention: 50 min aerobic outpatient group‐training programme (including warm‐up and cool‐down) 3 times a week for 3 months. Complete programme was supervised by specialised physiotherapist and supported by music which guided intensity of performance during session. Training followed by 10 min of music‐supported relaxation. After 3 months, participants had possibility of participating in programme once a week for another 3 months.

Components: exercise.

Setting: supervised centre‐based group sessions.

Exercise programme modality: NR
Length of session: 50 min plus 10 min relaxation.
Frequency: 3 times a week.
Intensity: NR
Resistance training included? NR

Total duration: 3 months followed by opportunity to continue once a week for another 3 months.

Co‐interventions: none described

Comparator: usual care ‐ encouraged to re‐start usual/prior physical activity as soon as they felt fit.

Co‐interventions: none described

Outcomes

Total mortality, CABG, PCI, health‐related quality of life; Karolinska Questionnaire at 12‐months.

Source of funding

National Association for Heart and Lung Patients, the Swedish Heart and Lung Foundation, the Swedish Foundation of Health Care Sciences and Allergy Research, and the King Gustaf V and Queen Victoria Foundation.

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Not reported.

Allocation concealment (selection bias)

Unclear risk

Not reported.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described.

Incomplete outcome data (attrition bias)
All outcomes

High risk

Clinical event data for 8 (7%) who withdrew before 3 months were not accounted for at 1 yr.

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points.

Stern 1983

Study characteristics

Methods

Study design: single‐centre RCT

Country: USA

Dates participants recruited: NR

Maximum follow‐up: 1 year.

Randomised by blocks of 6 into one of three groups: exercise, group counselling & control.

Participants

Inclusion criteria: Aged 30 to 69 years with documented MI not less than six weeks nor more than one year prior to admission to the study. Work capacity level < 7 MET (men) or < 6 MET (women) or a Taylor Manifest Anxiety Scale raw score of 19 + or Zung Self‐rating Depression Scale raw score of 40 +, or any or all of these.

Exclusion criteria: Presence of unstable cardiovascular condition i.e. congestive heart failure, or requirement of treatment for any physical/psychological reason.

N randomised: total: 106; intervention: 42; comparator (usual care): 29; group counselling: 35 (no data analysed in this review)

Diagnosis (% of participants): MI: 100%

Age (mean): 54

Percentage male: intervention: 90%; comparator: 76%

Ethnicity: 85% white

Interventions

Intervention: Three one‐hour sessions per week over a 12‐week period. All exercises were dynamic, involving rhythmic movements against resistance. Half were upper limb (rowing machine, arm wheel, and arm ergometer) and half were lower limb (treadmill, cycle, and step ergometer). Participants exercised upper and lower limbs alternately for four minutes with two minutes of rest in between. The intensity of exercise was determined by heart‐rate response, the target level being 85% of the peak exercise heart rate achieved in the first evaluation. If the heart rate was consistently above or below target, the work load was increased or decreased.

Components: exercise.

Setting: supervised in a centre.

Exercise programme modality: e.g. rowing, treadmill, cycle or step ergometer.
Length of session: 1 hour.
Frequency: 3 times a week.
Intensity: Target HR 85% of HR max at exercise tolerance test.
Resistance training included? No.

Total duration: 12 weeks.

Co‐interventions: none described.

Comparator: followed up by their physicians and given routine post‐MI medical care. Participants were requested to not join a supervised exercise or a formal counselling programme.

Co‐interventions: none described.

Outcomes

Mortality, non‐fatal MI.

Source of funding

National Institute of Handicapped Research, Department of Education, Washington, DC.

Conflicts of interest

Not reported

Notes

Minimal differences between groups at one year.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Not reported.

Allocation concealment (selection bias)

Unclear risk

Not reported.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described.

Incomplete outcome data (attrition bias)
All outcomes

High risk

7.7% lost to follow‐up; no description of withdrawals or dropouts.

Selective reporting (reporting bias)

Low risk

All outcomes reported for all time points.

Sun 2016

Study characteristics

Methods

Study design: single‐centre RCT

Country: China

Dates participants recruited: NR

Maximum follow‐up: 12 months

Participants

Inclusion criteria:

1) 60 to 75 years old

2) Stable coronary heart disease patients

3) Participants with low or medium risk of coronary heart disease (according to the risk stratification standard)

Exclusion criteria:

1) Uncontrolled hypertension; that is, resting systolic blood pressure > 160mm Hg or resting diastolic blood pressure > 100mm Hg

2) Moderate to severe heart valve stenosis

3) Severe left aortic stenosis (stenosis degree ≥ 70%)

4) Osteoarthrosis or vascular disease of the lower extremity

5) Malignant neoplasm

N randomised: total: 70; intervention: 35; comparator: 35

Diagnosis (% of participants): intervention: stable angina pectoris (57.1%), asymptomatic post MI (20%), old MI (28.6%), post PCI (25.7%); comparator: stable angina pectoris (51.4%), asymptomatic post MI (5.7%), old MI (22.9%), post PCI (42.9%), post CABG 5.7%.

Age (mean, range): intervention: 65, range 61‐72; comparator: 65, range 60‐70.

Percentage male: intervention: 54%; comparator: 69%

Ethnicity: NR

Interventions

Intervention:

1) Exercise mode: Walk or jog on the exercise board (T2100 exercise board equipped with 12 leads ECG and blood pressure monitoring)

2) Exercise intensity: The heart rate reserve method was used combining self‐perceived fatigue of the participant to reach 50% to 80% of the maximum exercise intensity or Borg rate of perceived exertion at 12 to 16

3) Exercise time: 30 ‐ 60 mins, including 5 ‐ 10 mins warm‐up and relaxation exercises

4) After discharge, participants can choose one or more kinds of aerobic exercise rehabilitation from walking, jogging, walking on the treadmill, cycling, swimming, and playing badminton etc. for 3 to 5 times a week.

Components: exercise plus education.

Setting: centre‐based (3 months), home‐based (9 months)

Exercise programme modality: walking, jogging, walking on the treadmill, cycling, swimming, and playing badminton etc.
Length of session: 30‐60 minutes.
Frequency: 3 sessions per week.
Intensity: 50‐80% heart rate reserve or RPE 12‐16.
Resistance training included? NR

Total duration: 12 months.

Co‐interventions: None described

Comparator: “conventional treatment” including “health education and standard medication”

Co‐interventions: none described.

Outcomes

No relevant outcomes reported

Source of funding

Military Medicine and Geriatrics of the Headquarters of the General Staff (ZCWS14C25)

Conflicts of interest

Not reported

Notes

Study reports outcomes of BMI, BP, lipids, smoking, and no CONSORT flow diagram reported.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"random number table used"

Allocation concealment (selection bias)

Unclear risk

No details reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

No details of blinding reported

Incomplete outcome data (attrition bias)
All outcomes

Low risk

Reasons for lost to follow‐up provided, and equal across groups

Selective reporting (reporting bias)

Unclear risk

Protocol paper not available

Toobert 2000

Study characteristics

Methods

Study design: single‐centre RCT

Country: USA

Dates participants recruited: NR

Maximum follow‐up: 24 months

Participants

Inclusion criteria: Postmenopausal women with coronary heart disease, defined as atherosclerosis, MI, percutaneous transluminal coronary angioplasty, and/or coronary bypass graft surgery.

Exclusion criteria: Other life‐threatening illnesses, infarction during the preceding 6 weeks, receiving streptokinase or alteplase, or being scheduled for bypass surgery.

N randomised: total: 25; intervention: 14; comparator: 11

Diagnosis (% of participants):

CHD: 100%

Previous AMI: 52%
PCI: 36%
CABG: 28%

Age (mean ±SD): intervention: 64 ± 10; comparator: 63 ± 11

Percentage male: 0%

Ethnicity: 92% white

Interventions

Intervention: Daily group physical activity sessions included warm‐up, walking or aerobics, and a cool‐down. Participants were individually prescribed exercise intensity based on their treadmill exercise test performance. Following the retreat, the intervention exercise programme required participants to engage in a 1‐hour session per day at least 3 days each week.

Components: exercise, education and psychological support.

Setting: supervised sessions in a centre followed by home.

Exercise programme modality: walking or aerobics.
Length of session: 1 hour.
Frequency: daily and then at least 3 days a week.
Intensity: individually prescribed.
Resistance training included? no.

Total duration: 24 months.

Co‐interventions:. Participants randomised to the PrimeTime programme began the intervention with a 7‐day retreat. Women were encouraged to bring their partner. As well as physical activity, the daily schedule included cooking classes, instruction in stress‐management techniques including Hatha Yoga stretches, progressive deep relaxation, deep breathing, meditation, group support, smoking cessation and directed or receptive imagery.Twice‐weekly 4‐hour meetings followed the retreat with each meeting following a sequence similar to the retreat schedule.

Comparator: usual care.

Co‐interventions: none described.

Outcomes

Health‐related quality of life: SF‐36 at 24 months

Source of funding

National Heart, Lung, and Blood Institute

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomized"

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

3/28 (10.7%) participants lost to follow‐up; no description of withdrawals or dropouts.

Selective reporting (reporting bias)

High risk

While most outcomes are reported at all time points, the SF‐36 is poorly reported and it is not stated for which follow‐up the results are reported

Uddin 2020

Study characteristics

Methods

Study design: Quasi‐RCT (single centre)

Country: Bangladesh

Dates participants recruited: July 2012 ‐ July 2013

Maximum follow‐up: 12 months

Participants

Inclusion criteria: participants admitted for elective CABG surgery, aged between 25‐65 years and understood Bangla.

Exclusion criteria:

Admission for emergency CABG surgery or revision CABG surgery, any neurological problems or severe comorbidities, or they were not planning to stay in Bangladesh for ≥ 1 year after CABG surgery.

N randomised: total: 142; intervention: 71; comparator: 71

Diagnosis (% of participants): post‐CABG (100%).

Age (mean ± SD): intervention: 54 ± 6; comparator: 55 ± 6

Percentage male: intervention: 66 (93%); comparator: 63 (89%)

Ethnicity: NR

Interventions

Intervention: participants participated in a 45‐min CR class (groups of 6‐10, 7‐8 days after surgery) in the hospital and were provided with an educational booklet in Bangla. In the class, participants were encouraged to comply with and have knowledge about medical advice, given information about the home exercise program, stress management, smoking cessation, alcohol intake and diet, encouraged to resume everyday activities and social interaction.

The booklet described a home exercise training program including upper‐ and lower‐limb exercises, breathing exercises, chest movements and aerobic exercise (walking program). Educational information provided about safe levels of activity, details of personal risk factors, useful telephone numbers, when to seek medical advice, and how to manage recurrent breathlessness or chest pain.

Participants received a monthly telephone call for 12 months from a qualified physiotherapist trained by the research team regarding the CR advice booklet and exercise program. The physiotherapist answered any participant questions and reminded them to follow the CR program, and attend their next hospital appointment.

Components: exercise plus education.

Setting: home‐based (with one initial centre‐based session)

Exercise programme modality: Upper and lower limb exercises, breathing and chest exercises, walking.
Length of session: 30 minutes.
Frequency: 4 sessions per week.
Intensity: RPE 11‐13.
Resistance training included? Not clear.

Total duration: 12 months.

Co‐interventions: None described

Comparator: Usual care – conventional hospital discharge care including drug treatment, post‐surgical information (precautions i.e. do not lift, pull or push heavy objects or weight > 5kg, lie in a supine position in bed), dietary advice from a dietician and routine follow‐up hospital visits.

Co‐interventions: none described.

Outcomes

HRQoL

Source of funding

Not reported

Conflicts of interest

None declared

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

High risk

“A quasi‐random method was used to allocate patients to either a home‐based CR program in addition to UC or UC alone. Allocation was done according to the week of surgery for patients, with every other week allocating patients to either the CR group or the UC group. Allocation was done by the research team and was not influenced by the preferences of the research team, patients, or relatives.”

Allocation concealment (selection bias)

Unclear risk

Not reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

No information provided about blinding of outcome assessment

Incomplete outcome data (attrition bias)
All outcomes

High risk

Intervention 10/71 (14%) Control 31/71 (44%). Missing participant numbers high and uneven across groups, and reasons for loss to follow‐up not provided. Imputation not performed. Demographic characteristics of participants lost to follow‐up were similar to participants with complete data at 12 months.

Selective reporting (reporting bias)

Unclear risk

Neither a study protocol nor trial registration available.

Vecchio 1981

Study characteristics

Methods

Study design: RCT

Country: Italy

Dates participants recruited: NR

Maximum follow‐up: 1 year

Randomised after exercise tolerance test, 30 days after MI.

Participants

Inclusion criteria: participants aged 40 to 60 years with MI

Exclusion criteria: more than one previous MI

N randomised: total: 50; intervention: 25; comparator: 25

Diagnosis (% of participants): MI: 100%

Age (mean ± SD): intervention: 50.1 ± 5.5; comparator: 50.1 ± 6.3

Percentage male: intervention: 100%; comparator: 100%

Ethnicity: 100% Italians

Interventions

Intervention: 6 weeks physical activity programme

Components: exercise

Setting: NR

Exercise programme modality: NR
Length of session: NR
Frequency: NR
Intensity: NR
Resistance training included? NR

Total duration: 6 weeks

Co‐interventions: NR

Comparator: after discharge a simple plan of daily exercises (intensity ≤ 3 METs ) to perform at home

Co‐interventions: NR

Outcomes

CV mortality

Source of funding

Conflicts of interest

Notes

Trained participants showed a better mid‐term prognosis than controls, but this could not be explained by the physical training procedure.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Not reported.

Allocation concealment (selection bias)

Unclear risk

Not reported.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described.

Incomplete outcome data (attrition bias)
All outcomes

High risk

24% lost to follow‐up; no description of withdrawals or dropouts.

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points.

Vermeulen 1983

Study characteristics

Methods

Study design: single‐centre RCT

Country: Netherlands

Dates participants recruited: NR

Maximum follow‐up: 5 years

Randomised 4 to 6 weeks post‐MI after exercise tolerance test.

Participants

Inclusion criteria: Men (aged 40 to 55 years) who were hospitalised within 6 hours after onset of complaints of first myocardial infarction.

Exclusion criteria: Combination of bundle branch block and anterior myocardial infarction

N randomised: total: 98; intervention: 47; comparator: 51

Diagnosis (% of participants): MI: 100%

Age (mean ± SD): intervention: 49.4 ± 3.7; comparator: 49.1 ± 4.5

Percentage male: intervention: 100%; comparator: 100%

Ethnicity: NR

Interventions

Intervention: The rehabilitation consisted of multidisciplinary intervention (physical, social, psychological).

Components: exercise, psychological support.

Setting: Centre

Exercise programme modality: NR
Length of session: NR
Frequency: NR
Intensity: NR
Resistance training included? NR

Total duration: 6 ‐ 8 weeks.

Co‐interventions: none described.

Comparator: usual care.

Co‐interventions: none described.

Outcomes

Mortality, non‐fatal MI.

Source of funding

Prevention Fund, the Hague.

Conflicts of interest

NR

Notes

Study authors conclude that cardiac rehab benefits participants after MI due to direct effect on myocardial perfusion and to lowering of cholesterol levels.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomized"

Allocation concealment (selection bias)

Unclear risk

Not reported.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described.

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No losses to follow‐up.

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points (although absolute values not always given).

VHSG 2003

Study characteristics

Methods

Study design: Multicentre RCT (3 sites)

Country: Norway

Dates participants recruited: NR

Maximum follow‐up: 2 years

Participants

Inclusion criteria: participants admitted to hospital for acute MI, unstable angina pectoris or after coronary artery bypass grafting.

Exclusion criteria: none described.

N randomised: total: 197; intervention: 98; comparator: 99

Diagnosis (% of participants):

AMI: 37%

UAP stabilised: 2%

PCI: 20%

CABG: 25%

Age (mean ± SD): intervention: 54 ± 8; comparator: 55 ± 8

Percentage male: intervention: 91%; comparator: 84%

Ethnicity: NR

Interventions

Intervention: The first phase lasted for 6 weeks with supervised physical exercise in addition to a regular group meeting twice a week. Each training session started with 15 min of warm up followed by 20 min of dynamic endurance training, 10 min of active cool‐down activities and finally 10 min of stretching and relaxation. Large muscle groups in the arms and legs were used simultaneously to achieve higher exercise intensity (11‐13 on the Borg scale). No weight lifting took place. This was followed by 9 weeks of supervised physical exercise twice weekly. The intensity level was increased to achieve an exertion rate equal to jogging (13‐15 on the Borg scale). Participants were then encouraged to perform regular training at home.

Components: exercise, education and psychological support.

Setting: supervised, group sessions in a centre.

Exercise programme modality: "dynamic endurance training".
Length of session: 55 min.
Frequency: twice a week.
Intensity: RPE 11‐13 on the Borg Scale, increased to 13‐15 after 6 weeks.
Resistance training included? No.

Total duration: 15 weeks.

Co‐interventions: The multidisciplinary CR of "Heart School" comprised dietary advice, smoking cessation, physical activity counselling, risk factor management, psychosocial management and health education.

Comparator: Usual care: participants received usual standardised nurse‐based information on CHD in general and lifestyle measures.

Co‐interventions: none described.

Outcomes

Total mortality.

Source of funding

The Norwegian Government Directory for Health and Bristol Myers Squib, Norway.

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomised"

Allocation concealment (selection bias)

Low risk

"[Randomization] was performed with pre‐prepared sealed opaque envelopes containing details on group allocation. The patients opened the envelopes themselves so that their allocation to IP or UC was revealed to them without the prior knowledge of the study investigators".

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described.

Incomplete outcome data (attrition bias)
All outcomes

High risk

17.8% lost to follow‐up; no description of withdrawals or dropouts.

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points.

Wang 2012

Study characteristics

Methods

Study design: Multicentre RCT (2 sites)

Country: China

Dates participants recruited: Oct 2005 to April 2007

Maximum follow‐up: 6 months

Participants

Inclusion criteria: Inclusion criteria comprised a documented diagnosis of acute MI, the ability to speak and read Chinese, a return to living at home after hospital discharge, availability for telephone follow‐up, and availability for meetings after hospital discharge.

Exclusion criteria: Exclusion criteria comprised a known history of major psychiatric illness, pre‐existing mobility problems, unstable angina, severe complications such as uncontrolled arrhythmias or heart failure, and other conditions that could be aggravated by exercise, such as a resting systolic blood pressure (BP) > 200 mmHg or a resting diastolic BP > 110 mmHg.

N randomised: total: 160; intervention: 80; comparator: 80

Diagnosis (% of participants): AMI: 100%

Age (mean± SD): intervention: 57.3 (± 8.6); comparator: 58.3 (± 10.4)

Percentage male: intervention: 85.3%; comparator: 81.5%

Ethnicity: NR

Interventions

Intervention: A 6‐week, home‐based rehabilitation programme using a self‐help heart manual given to the rehab participants just before discharge from hospital. The manual was similar to the UK Heart Manual but incorporated appropriate sociocultural components such as tai chi, qi gong, and Chinese diet.

Section 1 consists of 6 weekly topics on health education.

Section 2 answers commonly asked questions about medication, PCI, anxiety and depression etc.

Section 3 presents information on normal values of cardiac physiological risk parameters.

The rehabilitation group received the manual and the introductory session in addition to usual care.

The exercise component of the manual is not described in this paper, and there is no reference to its description elsewhere.

Components: exercise plus education.

Setting: home.

Exercise programme modality: not described.
Length of session: not described.
Frequency: not described.
Intensity: not described.
Resistance training included? not described.

Total duration: not described.

Co‐interventions: participants in both groups were telephoned by the principal researcher 3 weeks after discharge. For the rehabilitation group, the researcher checked the participants' progress, encouraged adherence to exercise, and helped solve problems that had arisen using the manual. This consultation lasted approximately 30 minutes, with contact designed to promote participant confidence and self‐management, and minimise dependency and the possibility that the nurse could influence outcomes.

Comparator: The usual care group received instructions on taking medications, information leaflets about cardiac risk factors, a healthy diet, and smoking cessation, and a follow‐up appointment.

Co‐interventions: The researcher devoted an equal amount of time to telephone contact with the control group, giving general advice on any problems encountered and encouraging and supporting appropriate actions.

Outcomes

Mortality, HRQoL

Source of funding

NR

Conflicts of interest

NR

Notes

Baseline characteristics only reported for those followed up until 6 months i.e. 68 in intervention group and 65 in usual care group.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

“Patients …….were enrolled and assigned to either the experimental or the control group, using a computer‐generated random number”.

Allocation concealment (selection bias)

Unclear risk

Allocation concealment was not described.

Blinding of outcome assessment (detection bias)
All outcomes

High risk

“the absence of a blinded condition may threaten its internal validity. In addition, the principal researcher played the role of both intervener and outcome assessor, which may have influenced participants to provide desired answers, and so interviewer bias cannot be excluded”

Incomplete outcome data (attrition bias)
All outcomes

Low risk

12/80 (15%) lost from intervention group.

15/80 (18.8%) lost from the control group.

Numbers and reasons were given and were similar for both groups.

Selective reporting (reporting bias)

Low risk

All outcomes described were reported for all time points.

West 2012

Study characteristics

Methods

Study design: Multicentre RCT (14 sites)

Country: England and Wales, UK

Dates participants recruited: August 1997 to April 2000

Maximum follow‐up: 7 to 9 years

Participants

Inclusion criteria: Admission to hospital with a principal primary diagnosis of acute MI (two of the three standard criteria ‘typical history’, electrocardiographic features and cardiac enzymes), discharged home within 28 days, local resident and able to give informed consent with no age or gender restrictions.

Exclusion criteria: Physical frailty, mental confusion, serious co‐existing disease, communication difficulty, previous cardiac rehabilitation and discharged to hospice or another hospital.

N randomised: total: 1813; intervention: 903; comparator: 910

Diagnosis (% of participants): Acute MI: 100%

Age (mean± SD): intervention: 64.2 ± 11.2; comparator: 64.7 ± 10.9

Percentage male: intervention: 72.6%; comparator: 74.4%

Ethnicity: NR

Interventions

Intervention: Exercise training was the largest component, typically occupying half of the available time including warm up and cool down, and used exercise equipment in physiotherapy gyms. Relaxation was primarily physical following ‘cooling down’ from exercise with little or no ‘stress management’ training.

Components: exercise plus education plus psych.

Setting: centre‐based supervised programmes which varied by centre.

Exercise programme modality: varied by centre.
Length of session: averaged 20 hours over 6‐8 weeks.
Frequency: weekly or bi‐weekly.
Intensity: NR
Resistance training included? NR

Total duration: 6‐8 weeks.

Co‐interventions: The programmes comprised exercise training, health education about heart, heart disease, risk factors and treatment, counselling for recovery and advice for long‐term secondary prevention. All involved at least one other discipline (exercise physiologist, dietician, pharmacist, health promotion specialist, psychologist, counsellor, social worker, physician and/or cardiologist).

Comparator: All participants in the trial (and in the ‘elective hospitals’ comparison) had similar care in all respects other than referral to cardiac rehabilitation, receiving available explanatory booklets, being advised to see their general practitioner (GP) and attend routine outpatient follow‐up, with referral for further cardiac investigations or interventions as appropriate.

Co‐interventions: none described.

Outcomes

Mortality, MI, revascularisations, hospitalisation, HRQoL.

Source of funding

NHS Research and Development Programme (northern region) and the Heart Research Fund for Wales.

Conflicts of interest

None declared.

Notes

An additional 331 participants were entered in two matched pairs of ‘elective rehabilitation’ and ‘elective control’ hospitals; 197 to rehabilitation and 134 to control. These participants did not contribute any data used in the systematic review.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

“Patients were randomised centrally” – it does not state how.

Allocation concealment (selection bias)

Low risk

“Patients were randomised centrally on a preset protocol, daily and blind as to entry characteristics and baseline measures, …..The names of those randomised to rehabilitation were passed to the local programme coordinator”.

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Secondary outcomes were assessed at 1 year….blind to rehabilitation status”.

Incomplete outcome data (attrition bias)
All outcomes

Low risk

5% lost to follow‐up from each group (2 year interviews); “follow‐up interviews were completed in 95% of surviving patients in both groups”

Selective reporting (reporting bias)

Low risk

All outcomes reported for all time points.

WHO 1983

Study characteristics

Methods

Study design: Multicentre RCT (24 sites; 12 centres accepted for meta analysis.)

Country: Multiple European countries

Dates participants recruited: 1972 to 1974

Maximum follow‐up: 3 years

Participants randomised on discharge from hospital.

Participants

Inclusion criteria: Men < 65 years with first or consecutive MI.

Exclusion criteria: NR

N randomised: total: 3184; intervention: 1655; comparator: 1529

Diagnosis (% of participants): MI: 100%

Age (years): intervention: 52.3; comparator:53.5

Percentage male: intervention: 100%; comparator: 100%

Ethnicity: NR

Interventions

Intervention: Comprehensive programme dependent on local provision. Physical training was not compulsory but was strongly recommended.

Components: exercise, education and psychosocial support.

Setting: centre.

Exercise programme modality: NR
Length of session: NR
Frequency: NR
Intensity: NR
Resistance training included? NR

Total duration: 6 weeks.

Co‐interventions: The intervention had to be at the highest possible level available locally. It had to be comprehensive, with the aim of improving health and reducing IHD risk. It comprised treatment of heath failure, arterial hypertension etc, risk factor modification, weight loss and improving physical working capacity.

Comparator: usual care.

Co‐interventions: none described.

Outcomes

Total mortality, CVD, CHD & sudden death. Fatal & non‐fatal re‐infarction.

Source of funding

WHO Regional Office for Europe and the Ministries of Health of the participating member states.

Conflicts of interest

Notes

Methodological problems with the execution of the study allowed only death and re‐infarction to be successfully used as end points.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

High risk

"Patients were randomised at admission.....by means of random number tables".

However, only "12 centres out of the 24 seemed to have achieved proper randomisation in their groups of R and C patients”

Allocation concealment (selection bias)

Unclear risk

Not reported.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described.

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

No description of withdrawals or dropouts. Varied greatly from site to site.

Selective reporting (reporting bias)

Low risk

All clinical endpoints were reported for 12, 24 and 36 month follow‐ups.

Wilhelmsen 1975

Study characteristics

Methods

Study design: single‐centre RCT

Country: Sweden

Dates participants recruited: 1968‐1970

Maximum follow‐up: 5 years

Participants randomised on discharge.

Participants

Inclusion criteria: All participants born in 1913 or later who suffered a MI during the period 1968‐1970 and were discharged alive from the hospital.

Exclusion criteria: none described.

N randomised: total: 315; intervention: 158; comparator: 157

Diagnosis (% of participants): MI: 100%

Age (years): intervention: 50.6; comparator: 50.6

Percentage male: intervention: 87%; comparator: 90%

Ethnicity: NR

Interventions

Intervention: The training programme started 3 months after the MI. The programme at the hospital consisted of three supervised half‐hour training sessions a week. It included dynamic work, such as callisthenics, cycling, and running in an interval programme with individualised intensity. If a participant found it difficult to attend the hospital for training, then individualised programmes were developed for training at home or in the workplace.

Components: exercise.

Setting: supervised in a centre.

Exercise programme modality: e.g. cycling, running.
Length of session: 1/2 hour.
Frequency: three times a week.
Intensity: 144 ± 18 beats/min; 80% of their heart rate increasing capacity (if no sign of cardiac limitation); 136 ± 19 beats/min in mean highest training heart rate (if limited by angina pectoris).
Resistance training included? Callisthenics.

Total duration: NR ‐ see notes below.

Co‐interventions: At discharge from hospital, all participants were given general recommendations about gradually increasing physical activity during the convalescence period.

Comparator: usual care.

Co‐interventions: as above.

Outcomes

Mortality, re‐infarction.

Source of funding

NR

Conflicts of interest

NR

Notes

1 year post‐MI, only 39% of those who started training were training at the hospital. A further 21% trained at home or at work.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"By the use of a random number table the patients were allocated..."

Allocation concealment (selection bias)

Unclear risk

Not reported.

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

"The exercise test 1 yr after the MI followed the same protocol but was conducted by another physician, who did not know if the patients belonged to the experimental or the control group".

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No losses to follow‐up for clinical events.

Selective reporting (reporting bias)

Unclear risk

Outcomes to be collected were not clearly described in the methods.

Xu 2017

Study characteristics

Methods

Study design: single‐centre RCT

Country: China

Dates participants recruited: January 2014 ‐ September 2015

Maximum follow‐up: 6 months

Participants

Inclusion criteria:

1) Meet the diagnostic criteria of the coronary heart disease, referring to the 13th edition of the Practice Internal Medicine (a Chinese medical textbook)

2) From 39 to 70 years old

3) Participants who are easy to communicate with

4) Long‐term resident in the local area and completed the informed consent

5) Hemodynamics were stable after PCI

Exclusion criteria:

1) People with serious arrhythmia (such as atrioventricular block, atrial fibrillation, ventricular tachycardia, etc.), myocarditis, cardiomyopathy, and the installation of a pacemaker

2) People with serious cardiac insufficiency (NYHA class IV), left ventricular ejection fraction < 30%

3) People with severe cerebrovascular diseases (such as cerebral infarction and cerebral haemorrhage)

4) People with serious pulmonary diseases (such as chronic obstructive pulmonary disease, emphysema, pulmonary heart disease, etc.)

5) People with rheumatoid arthritis, osteoarthritis, muscles and other diseases that seriously affect physical activity

6) People with serious organic diseases and abnormal liver and kidney function

N randomised: total: 130; intervention: 65; comparator: 65

Diagnosis (% of participants): post‐PCI patients with unstable angina (100%).

Age (mean ± SD): intervention: 56.4 ± 8.1; comparator: 58.6 ± 8

Percentage male: intervention: 46 (79%); comparator: 47 (78%)

Ethnicity: NR

Interventions

Intervention:

There are 2 stages. The first stage is after patients had PCI until they were discharged, the second is from when they were discharged to the third month after PCI.

The first stage:

1) The first day after PCI, advise patients to walk for 200 meters per time for 5 times a day.

2) The second day after PCI, advise patients to walk for 300 meters per time for 5 times a day.

3) The third day after PCI, advise patients to walk for 500 meters per time for 5 times a day. They can also go up and down a flight of stairs depending on their own conditions.

The second stage:

1) After the patients discharged in the first month after PCI:

Walking 30 to 40 mins with the speed of 65‐75 m/min for 3 times a week; or, walking for 10 to 15 mins 3 times a day with a 5‐min break among them for 3 times a week; or, walking for 15 to 20 mins twice a day with a 5‐min break between them for 3 times a week. After each time of walking, guide patients to do some chest enlargement, slow leg lift and upper limb extension exercise, so that the patients’ heart rate, blood pressure can be back to normal levels before walking.

2) 1 to 2 months after PCI:

The exercise mode was repeated in alternations of walking and brisk walking. Walk for 90 seconds, followed by brisk walking for 45 s. Repeat above. The walking speed is at 65‐75 m/min, and the brisk walking speed is at 85‐95 m/min. This exercise was 30~40 min each time for 3 times a week. After each time, patients would have relaxation exercise for 10 to 15 mins.

3) 2 to 3 months after PCI:

A set of exercise rehabilitation, includes a combination of upper limb and lower limb exercise, combined with resistance training of elastic band and balance training on yoga mat. The whole process can be divided into the pre‐activity stage (8‐10 min), the exercise march stage (30‐40 min) and the recovery stage (10‐15 min).

Components: exercise only.

Setting: centre‐based

Exercise programme modality: Mostly walking, some upper and lower limb exercise, resistance training and balance exercises.
Length of session: around 30‐40 mins up to 1 hour (length increases over time).
Frequency: 3 times per week (stage 2).
Intensity: walking speed 65‐75 m/min up to 85‐95 m/min (brisk walking).
Resistance training included? Yes, stage 2 included resistance training with elastic bands.

Total duration: 3 months.

Co‐interventions: None described

Comparator: “All patients received conventional drug therapy and post‐PCI knowledge education”

Co‐interventions: none described.

Outcomes

No outcomes reported of relevance, no CONSORT flow diagram

Source of funding

Not reported

Conflicts of interest

Not reported

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

“…used random sampling method to divide patients into intervention and control….”

Allocation concealment (selection bias)

Unclear risk

No details reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

No details reported

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

Reasons for participants lost to follow‐up not reported

Selective reporting (reporting bias)

Unclear risk

No published protocol available

Yu 2003

Study characteristics

Methods

Study design: single‐centre RCT

Country: China

Dates participants recruited: NR

Maximum follow‐up: 2 years

Participants

Inclusion criteria: Obese participants with CHD who had either recent AMI or had undergone elective PCI in last 6 weeks.

Exclusion criteria: Post‐infarction angina without revascularisation procedures, significant valvular stenosis, active pericarditis or myocarditis, severe uncontrolled hypertension, physical problems that precluded exercise training, cognitive impairment, malignancies that limited life span to 1 year.

N randomised: total: 112; intervention: 72; comparator: 40

Diagnosis (% of participants):

AMI: 64%
PCI: 36%

Age (mean ±SD): intervention: 62.3 ± 11.2; comparator: 61.2 ± 10.2

Percentage male: intervention: 82%; comparator: 75%

Ethnicity: NR

Interventions

Intervention:

Phase 1 was an inpatient ambulatory programme that lasted 7 to 14 days.

Phase 2 was a 16‐session, twice weekly, outpatient exercise and education programme lasting for 8 weeks. Each session included 1 hour of education class followed by 2 hours of exercise training. The first hour of training focused on aerobic CV training with a target intensity of 65% to 85% of maximal aerobic capacity. This included treadmill, ergometry, rowing, stepper, arm ergometry, and dumbbell and weight training.The next hour was conducted by an occupational therapist in which domiciliary or vocational environment‐focused training was performed.

Phase 3 was a community‐based home exercise programme for another 6 months.

Components: exercise and education.

Setting: centre followed by home.

Exercise programme modality: treadmill, ergometry, rowing, stepper, arm ergometry, and dumbbell.
Length of session: 2 hours (for 8 weeks) then unspecified at home.
Frequency: twice a week (for 8 weeks) then unspecified at home.
Intensity: 65% to 85% of maximal aerobic capacity.
Resistance training included? Weight training.

Total duration: 8 1/2 months.

Co‐interventions: Phase 4 was a long‐term follow‐up programme until the end of 2 years, which included half‐yearly monitoring of lipid profiles, and again stressed the importance of regular exercise and risk factor modification.

Comparator: conventional medical therapy.

Co‐interventions: The control group attended a 2‐hour talk that explained CHD, the importance of risk factor modification, and potential benefits of physical activity, but without undergoing an outpatient exercise training programme.

Outcomes

HRQoL: 3F‐36 at 8 & 24 months.

Source of funding

NR

Conflicts of interest

NR

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Not reported.

Allocation concealment (selection bias)

Unclear risk

Not reported.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described.

Incomplete outcome data (attrition bias)
All outcomes

Low risk

All participants accounted for.

Selective reporting (reporting bias)

Low risk

All outcomes were reported at all time points.

Yu 2004

Study characteristics

Methods

Study design: single‐centre RCT

Country: China

Dates participants recruited: NR

Maximum follow‐up: 2 years

Participants

Inclusion criteria: participants with recent AMI or after elective PCI.

Exclusion criteria: Coronary heart disease without revascularisation procedures, significant mitral stenosis (defined as a mitral valve area of 1 cm2) or aortic stenosis (defined as an aortic valve gradient of 50 mmHg), active pericarditis or myocarditis, severe uncontrolled hypertension (systolic blood pressure 200 mmHg and/or diastolic blood pressure 100 mmHg), physical problems that precluded exercise, cognitive impairment or unwillingness to join the programme, malignancies that limited life span to less than 1 year.

N randomised: total: 269; intervention: 181; comparator: 88

Diagnosis (% of participants):

AMI: 72%
PCI: 28%

Age (mean ±SD): intervention: 64 ± 11; comparator: 64 ± 11

Percentage male: intervention: 76%; comparator: 75%

Ethnicity: NR

Interventions

Intervention:

Phase 1 was an inpatient ambulatory programme that lasted 7 to 14 days.

Phase 2 was a 16‐session, twice weekly, outpatient exercise and education programme lasting for 8 weeks. Each session included 1 hour of education class followed by 2 hours of exercise training. The first hour of training focused on aerobic CV training with a target intensity of 65% to 85% of maximal aerobic capacity. This included treadmill, ergometry, rowing, stepper, arm ergometry, and dumbbell and weight training. The next hour was conducted by an occupational therapist in which domiciliary or vocational environment‐focused training was performed.

Phase 3 was a community‐based home exercise programme for another 6 months.

Components: exercise and education.

Setting: centre followed by home.

Exercise programme modality: treadmill, ergometry, rowing, stepper, arm ergometry, and dumbbell.
Length of session: 2 hours (for 8 weeks) then unspecified at home.
Frequency: twice a week (for 8 weeks) then unspecified at home.
Intensity: 65% to 85% of maximal aerobic capacity.
Resistance training included? Weight training.

Total duration: 8 1/2 months.

Co‐interventions: Phase 4 was a long‐term follow‐up programme until the end of 2 years, which included half‐yearly monitoring of lipid profiles, and again stressed the importance of regular exercise and risk factor modification.

Comparator: conventional medical therapy.

Co‐interventions: The control group attended a 2‐hour talk that explained CHD, the importance of risk factor modification, and potential benefits of physical activity, but without undergoing an outpatient exercise training programme.

Outcomes

Total mortality, HRQoL, costs.

Source of funding

Health Care & Promotion Fund Committee of Hong Kong.

Conflicts of interest

"No commercial party having a direct financial interest in the results of the research supporting this article has or will confer a benefit upon the authors(s) or upon any organization with which the author(s) is/are associated."

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

"randomized"

Allocation concealment (selection bias)

Unclear risk

Not reported.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Blinding not described.

Incomplete outcome data (attrition bias)
All outcomes

High risk

24% lost to follow‐up; no description of withdrawals or dropouts.

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points.

Zhang 2018

Study characteristics

Methods

Study design: single‐centre RCT

Country: China

Dates participants recruited: January 2010 ‐ December 2012

Maximum follow‐up: 6 months

Participants

Inclusion criteria: participants admitted to the outpatient clinic after successful PCI for ST‐segment elevated MI between January 2010 and December 2012.

Exclusion criteria: A large area of myocardial infarction, heart failure, acute systemic illness, systolic BP > 180 mmHg at rest, diastolic BP > 110 mmHg at rest, acute metabolic disorders, uncontrolled malignant arrhythmia, and skeletal vascular disease.

N randomised: total: 130; intervention: 65; comparator: 65

Diagnosis (% of participants): post‐PCI for STEMI (100%).

Age (mean ± SD): intervention: 70.3 ± 10.7; comparator: 69.8 ± 10.4

Percentage male: intervention: 59 (90.8%); comparator: 54 (83.1%)

Ethnicity: NR

Interventions

Intervention: GP formulated individual aerobic exercise program that could be performed in the participants' homes or at specialised rehabilitation facilities in the community. Phase II CR optimally initiated within 2 weeks of discharge (lasting 6‐8 weeks). Most available form of exercise was walking, but other forms of aerobic exercise were acceptable. HR < 130 bpm or resting HR plus 30 bpm, or RPE 11‐15. Participants exercised 2‐3 times per week, interval or continuous training for 15‐30 minutes. Phase III started from month 3 to 1 year. Target HR 60‐75% max HR, RPE 12‐16, 30‐45 minutes per session, no less than 3‐5 times per week.

Components: exercise only.

Setting: home‐ or centre‐based (community), participant choice

Exercise programme modality: walking.
Length of session: 15‐30 minutes, increasing to 30‐45 minutes.
Frequency: 2‐3 sessions per week, increasing to 3‐5.
Intensity: < 130 bpm or RPE 11‐13, increasing to 60‐75% max HR or RPE 12‐16.
Resistance training included? No.

Total duration: 12 months.

Co‐interventions: None described

Comparator: Usual care and conventional drug therapy post‐PCI

Co‐interventions: none described.

Outcomes

Mortality, MI hospitalisations

Source of funding

Supported by Research Project for practice Development of National TCM Clinical Research Bases (JDZX2015133)

Conflicts of interest

None declared

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

No information reported

Allocation concealment (selection bias)

Unclear risk

No information reported

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

No information reported

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No participants reported missing for outcomes of interest, all participants completed the study

Selective reporting (reporting bias)

Unclear risk

No published protocol paper or trial registration, very little description in the methods section about outcome assessment

Zwisler 2008

Study characteristics

Methods

Study design: single‐centre RCT

Country: Denmark

Dates participants recruited: January 2000 to March 2003

Maximum follow‐up: 1 year

Participants

Inclusion criteria: Participants with congestive heart failure (12%), *ischaemic heart disease (58%) or high risk of ischaemic heart disease (30%).

Exclusion criteria: Mental or social problems, severe illness, living in nursing home, unable to speak Danish

*Total Randomised (with IHD): total: 446; intervention: 227; comparator: 219

Diagnosis (% of participants): *Ischemic heart disease: 100%

Age (years): intervention: 67; comparator: 67

Percentage male: intervention: 64%; comparator: 63%

Ethnicity: NR

Interventions

Intervention: A 6‐week intensive CR programme including 12 exercise training sessions.

Components: exercise, education and psychosocial support.

Setting: centre.

Exercise programme modality: NR
Length of session: NR
Frequency: twice a week.
Intensity: NR
Resistance training included? NR

Total duration: 6 weeks.

Co‐interventions: Standardised CR programme which was individually tailored and carried out by a multidisciplinary team, included participant education, dietary counselling, smoking cessation, psychosocial support, risk factor management, and clinical assessment.

Comparator: usual care.

Co‐interventions: none described.

Outcomes

Total mortality, MI, CABG, PCI, health‐related quality of life: SF‐36 at 1‐yr follow‐up.

Source of funding

Copenhagen Hospital Corporation Research Council, Danish Heart Foundation, Danish Pharmacy Foundation of 1991, Danish Research Council, Danish Center for Evaluation and Health Technology Assessment, Denmark's Ministry of the Interior and Health, Development Fund of Copenhagen County, Villadsen Family Foundation, Eva and Henry Frænkel's Memorial Foundation, Builder LP Christensen's Foundation, Danish Animal Protection Foundation, Bristol Meyers Squibb, Merck Sharp and Dohme, AstraZeneca, The Copenhagen Trial Unit, and Bispebjerg Hospital.

Conflicts of interest

NR

Notes

Outcomes of interest for the IHD population were kindly provided by the authors of this study.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

"The Copenhagen Trial Unit computer generated the allocation sequence and provided central secretary‐staffed telephone randomization".

Allocation concealment (selection bias)

Low risk

"The essential patient data were registered, and the result of the randomization as delivered to the research nurse, who informed the CCR team and the patient about the allocation".

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

"The ... team collected secondary outcome measures blinded to intervention at baseline and without blinding at 12 months. An independent statistician analyzed the primary outcome measure blinded to intervention arm.

Incomplete outcome data (attrition bias)
All outcomes

Low risk

All IHD participants accounted for.

Selective reporting (reporting bias)

Low risk

All outcomes reported at all time points.

ACE: acute coronary event
ACS: acute coronary syndrome
AMI: acute myocardial infarction
BMI: body mass index
CABG: coronary artery bypass graft
CAD: coronary artery disease
CAGS: Coronary artery graft surgery
CCU: coronary care unit
CHD: coronary heart disease
CHF: coronary heart failure
CR: cardiac rehabilitation
CV: cardiovascular
CVD: cardiovascular disease
ECG: electrocardiogram
ET: exercise training
FU: follow‐up
GI: gastrointestinal
HR: heart rate
HRQL/HRQoL: health‐related quality of life
IHD: ischaemic heart disease
Kpm/min: kilopond meters per minutes
LVEF: left ventricular ejection fraction
METS: metabolic equivalents
MI: myocardial infarction
MOS: Medical Outcomes Study
MVPA: moderate‐to‐vigorous physical activity
NR: not reported
PCI: percutaneous coronary intervention
PTCA: percutaneous transluminal coronary angioplasty
pts: participants
PWC: physical work capacity
RCT: randomised controlled trial
RPE: rating of perceived exertion
RTW: return to work
SPPB: short physical performance battery
STEMI: ST segment elevation myocardial infarction
V02max: maximum oxygen uptake
WHO: World Health Organisation
W: watts
6MWT: six minute walk test

Characteristics of excluded studies [ordered by study ID]

Study

Reason for exclusion

ACTRN12617000312347

Ineligible comparator

ACTRN12618001458224

Ineligible comparator

Agren 1989

Improper method of randomisation (based on date of birth)

Ahmadi 2020

Systematic review/meta‐analysis

Alharbi 2016

Ineligible study design

Al Namat 2017

Ineligible study design

Alsaleh 2012

Not relevant

An 2020

Systematic review/meta‐analysis

Andersson 2010

Comparator received exercise

Asbury 2012

Follow‐up only 16 weeks

Astengo 2010

Prehabilitation and outcomes of interest not measured or reported

Avila 2020

Participants received prior CR

Ballantyne 1982

No useful outcome data measured or reported

Bär 1992

Method of randomisation was inadequate; of a study population of 265 across 5 centres, only one centre randomised their participants, leaving a control group of 50 and an intervention group of 215

Baumgarten 2017

Ineligible study design

Beland 2020

Systematic review/meta‐analysis

Bettencourt 2005

Only a small subset of randomised participants responded via questionnaire. Incomplete outcome data

Bilinska 2010

Follow‐up only 6 weeks

Bilinska 2013

Follow‐up only 6 weeks

Björntorp 1972

Not a randomised study ‐ participants divided alternately after admission

Blokzijl 2018

Systematic review/meta‐analysis

Blumenthal 1997

Control group was not randomised, but selected on geographical basis

Bo 2015

Ineligible participant population

Borg 2017

Ineligible intervention

Bourke 2010

Trial terminated early due to poor recruitment

Bricca 2020

Systematic review/meta‐analysis

Broers 2020

Ineligible participant population

Bubnova 2014

Both groups recommended a home exercise training programme

Busch 2012

Comparator received exercise

Butler 2009

Participants had already received rehabilitation

Candelaria 2020

Systematic review/meta‐analysis

Carlsson 1997

Participants in both groups invited to join an exercise programme prior to randomisation

Chang 2010

Non‐RCT

Chatian 2014

Follow‐up only 3 months

Chen 2016

“Our ancillary study was designed to evaluate the probable positive effects of the integrated care team, especially inmodifiable risk‐factor control and exercise capacity.” No outcomes of interest measured or reported

Chen 2017

Systematic review/meta‐analysis

ChiCTR1800015823

Ineligible study design

ChiCTR1800016209

Ineligible comparator

ChiCTR1800016308

Ineligible participant population

ChiCTR1800020411

Ineligible study design

ChiCTR‐IOR‐14005743

Ineligible study design

ChiCTR‐IOR‐17012684

Ineligible study design

ChiCTR‐IOR‐17014149

Ineligible study design

ChiCTR‐IPR‐17011445

Ineligible comparator

Chokshi 2018

Ineligible intervention

Chow 2012

Intervention does not contain exercise

Christa 2019

Ineligible study design

Claes 2020

Prior CR

Clark 2017

Prior CR

Conboy 2020

Ineligible comparator

Cugusi 2020

Systematic review/meta‐analysis

da Costa Torres 2016

Ineligible study design

Dalçóquio 2020

Ineligible study design

Davoodvand 2009

Ineligible study design

De Bakker 2020

Ineligible comparator

Deng 2020

Ineligible study design

Devi 2014

Not relevant

DRKS00007569

Ineligible study design

Edstrom‐Pluss 2009

Comparator received exercise

Engelen 2020

Ineligible intervention

Espinosa 2004

Non‐RCT

Fontes‐Carvalho 2015

Ineligible study design

Francis 2019

Systematic review/meta‐analysis

Franssen 2020

Systematic review/meta‐analysis

Fu 2019

Systematic review/meta‐analysis

Gao 2007

Ineligible comparator

Gao 2020

Ineligible comparator

Garcia‐Bravo 2020

Ineligible comparator

Gerlach 2020

Systematic review/meta‐analysis

Ghashghaei 2012

Non‐RCT

Giallauria 2009

No outcomes of interest were measured or reported

Giallauria 2012

No outcomes of interest were measured or reported

Giallauria 2013

No outcomes of interest were measured or reported

Giannuzzi 2008

All participants (treatment and control) participated in 3 to 6 week cardiac rehabilitation programme (including supervised exercise sessions) prior to randomisation. Control group was not "usual care"

Gielen 2003

No outcomes of interest were measured or reported

Goel 2013

Ineligible study design

Gong 2015

Ineligible participant population

Grant 2018

Ineligible study design

Ha 2011

Non‐RCT

Hadadzadeh 2016

Ineligible study design

Haddadzadeh 2011

Follow‐up only 12 weeks

Hansen 2009

Non‐RCT

Hansen 2010

Non‐RCT

Hanssen 2009

Intervention does not contain exercise

Hawkes 2009

Intervention does not contain exercise

He 2018

Systematic review/meta‐analysis

He 2020b

Ineligible study design

Heldal 2000

No outcomes of interest were measured or reported

Herring 2018

Prior CR

Hoejskov 2019

Ineligible study design

Hojskov 2016

Ineligible study design

Houle 2011

No outcomes of interest were measured or reported

Huerre 2010

Non‐RCT

Indraratna 2020

Systematic review/meta‐analysis

IRCT20130211012439N3

Prior CR

IRCT2014061418075N2

Not relevant

Ivers 2020

Ineligible intervention

Izawa 2006

Prior CR

Jepma 2019

Ineligible study design

Jepma 2020

Ineligible study design

Ji 2019

Systematic review/meta‐analysis

Jiang 2007

No useful outcome data were measured or reported

Jiang 2020

Ineligible intervention

Jiang 2020b

Ineligible study design

JPRN‐UMIN000005177

Trial terminated

JPRN‐UMIN000010031

Both groups received cardiac rehabilitation

Kamei 2020

Systematic review/meta‐analysis

Karpova 2009

Non‐RCT

Kavanagh 1973

No outcomes of interest measured or reported

Kentala 1972

Non‐RCT

Keshavaraz 2020

Ineligible intervention

Kidholm 2016

Ineligible study design

Kim 2011

Non‐RCT

Kim 2012

Non‐RCT

Kim 2013

Non‐RCT

Kim 2014

Ineligible intervention

Kirolos 2019

Systematic review/meta‐analysis

Köhler 2020

Ineligible comparator

Krachler 1997

Not an exercise‐based CR programme

Kubilius 2012

Non‐RCT

Lavoie 2020

Ineligible intervention

Lee 2013

Non‐RCT

Li 2004

Follow‐up < 6 months

Liao 2003

Follow‐up too short (3 to 4 weeks) and no useful outcome data reported

Lie 2009

Intervention does not contain exercise

Lin 2020

Systematic review/meta‐analysis

Liu 2017

Ineligible study design

Maddison 2015

Ineligible comparator

Madssen 2014

Prior CR

Maldonado‐Martin 2018

Ineligible study design

Mameletzi 2011

No outcomes of interest measured or reported

Mandic 2013

Non‐RCT

Manresa‐Rocamora 2020

Systematic review/meta‐analysis

Mao 2021

Ineligible comparator

Mares 2018

Systematic review/meta‐analysis

Martinello 2019

Systematic review/meta‐analysis

Martinez 2011

Participants in the control group advised to perform home‐based activity

Mayer‐Berger 2014

Comparator received exercise

McCleary 2020

Ineligible intervention

McDermott 2019

Prior CR

McGregor 2020

Systematic review/meta‐analysis

Mehani 2012

Both groups received exercise

Mezey 2008

Non‐RCT

Midence 2016

Ineligible comparator

Minneboo 2017

Ineligible comparator

Moholdt 2012a

Comparator received exercise

Moholdt 2012b

Comparator received exercise

Molino‐Lova 2013

Participants had already received rehabilitation

Mozafari 2015

Ineligible study design

Murphy 2012

Partcipants did not have CHD

Murphy 2020

Systematic review/meta‐analysis

NCT01941355

Ineligible study design

NCT02219815

Not relevant

NCT02235753

Trial terminated

NCT02584192

Ineligible study design

NCT02778165

Ineligible comparator

NCT03415841

Ineligible intervention

NCT03704025

Ineligible comparator

NCT04271566

Ineligible intervention

NCT04294940

Prior CR

NCT04313777

Ineligible comparator

NCT04330560

Ineligible comparator

NCT04407624

Ineligible comparator

NCT04409210

Ineligible intervention

NCT04441086

Prior CR

Ngaage 2019

Ineligible comparator

Nichols 2020

Ineligible study design

Noites 2017

Prior CR

Okhomina 2020

Ineligible study design

Oliveira 2015

Ineligible study design

Olsen 2015

Ineligible study design

Ozemek 2020

Ineligible comparator

Parsa 2018

Ineligible study design

Passaglia 2020

Ineligible intervention

Pedersen 2013

Comparator received exercise

Peschel 2007

No useful outcome data measured or reported

Pfaeffli Dale 2015

Ineligible comparator

Piestrzeniewicz 2004

Both groups received CR

Pluss 2011

Comparator received exercise

Pomeshkina 2017b

Ineligible study design

Poortaghi 2011

Both groups received CR prior to randomisation

Poortaghi 2013

Comparator received exercise

Powell 2018

Systematic review/meta‐analysis

Pozehl 2018

Ineligible participant population

Pratesi 2019

Prior CR

Raghuram 2014

Ineligible comparator

Rakhshan 2019

Ineligible study design

Rauch 2016

Systematic review/meta‐analysis

Regan 2020

Systematic review/meta‐analysis

Ribeiro 2012

Follow‐up only 8 weeks

Rideout 2012

Intervention does not contain exercise

Roviaro 1984

Non‐RCT

Sadeghi 2013

Follow‐up only 8 weeks

Sagar 2012

Comparator received exercise

Salzwedel 2020

Systematic review/meta‐analysis

Sangster 2015

Prior CR

Sankaran 2019

Ineligible comparator

Sato 2010

Both groups received CR

Sawatzky 2014

Follow‐up only 3 months

Schneider 2020

Ineligible intervention

Schwaab 2011

Non‐RCT

Sen 2018

Ineligible comparator

Shabani 2010

Follow‐up only 12 weeks

Shikhova 2010

Non‐RCT

Siqueira‐Catania 2013

Participants did not have CHD

Sokhteh 2020

Ineligible study design

Soleimannejad 2014

No outcomes of interest measured or reported

Son 2008

Ineligible study design

Stahle 1999

Follow‐up only 3 months

Stammers 2015

Ineligible study design

Stenlund 2005

Follow‐up only 3 months

Su 2020

Systematic review/meta‐analysis

Subedi 2020

Systematic review/meta‐analysis

Taguchi 2015

Ineligible study design

Takeyama 2000

Both groups received exercise

Taylor‐Piliae 2020

Systematic review/meta‐analysis

Thakkar 2016

Ineligible comparator

Thompson 2020

Systematic review/meta‐analysis

Tokmakidis 2003

No useful outcome data measured or reported

Treskes 2020

Ineligible intervention

Turkstra 2013

Intervention does not contain exercise

Uhlemann 2012

Comparator received exercise

Ul‐Haq 2019

Ineligible study design

Van Steenbergen 2020

Ineligible comparator

Vieira 2017

Prior CR

Walters 2010

Comparator received exercise

Wang J 2020

Ineligible intervention

Wang JW 2020

Ineligible intervention

Wang ZP 2019

Ineligible participant population

Wang ZQ 2019

Systematic review/meta‐analysis

Wienbergen 2020

Ineligible comparator

Wong 2020

Ineligible intervention

Wood 2008

Less than 50% participants had CHD

Wosornu 1996

No useful outcome data measured or reported

Xia 2018

Systematic review/meta‐analysis

Ximenes 2015

Ineligible comparator

Yamamoto 2016

Systematic review/meta‐analysis

Yang 2017

Systematic review/meta‐analysis

Yonezawa 2009

Non‐RCT

Yudi 2020

Ineligible study design

Zetta 2011

Ineligible participant population

Zhang 2019

Systematic review/meta‐analysis

Zhang 2020

Systematic review/meta‐analysis

Zhao 2018

Ineligible study design

Zheng 2008

No useful outcome data measured or reported

Zhu 2013

Intervention does not include exercise

Zhu 2014

Retraction

CHD: coronary heart disease
CR: cardiac rehabilitation
RCT: randomised controlled trial
NR: not reported

Characteristics of studies awaiting classification [ordered by study ID]

Aronov 2006

Methods

Study design: NR

Country: Russia

Follow‐up: 6 months

Participants

Inclusion criteria: Acute coronary event (acute myocardial infarction, unstable angina, CABG)

Exclusion criteria: NR

N randomised: total: 373; intervention: 188; comparator: 185

Interventions

Intervention: Standard therapy plus exercise programme ‐ moderate exercise for 1 hour, 3 times per week for 1 year

Comparator: Standard therapy

Outcomes

Not clear if any outcomes of interest were measured or reported

Notes

Unable to access full text 

Belardinelli 2007

Methods

Study design: RCT

Country: NR

Dates participants recruited: January 2002 to November 2004

Planned follow‐up: 5 years

Participants

Inclusion criteria: NR

Exclusion criteria: NR

N randomised: total: 259

Diagnosis (% of participants): people with CAD who underwent PCI or CABG

Age (years): Intervention: 56±8 years; comparator: 58±8 years

Interventions

Intervention: Group CR combining exercise training 60% peak VO2 3 times a week for 8 weeks with nutrition counselling and standard medication

Comparator: No CR

Outcomes

MI, PCI, CABG, hospitalisation, cardiac death

Notes

Abstract only, with incomplete reporting of study characteristics and outcome data. Full trial report not published.

Bubnova 2015

Methods

Study design: RCT

Planned follow‐up: 1 year

Participants

N randomised: total: 62; intervention: 31; control: 31

Diagnosis (% of participants): PCI (100%)

Age (years): Intervention: 56±7 years; comparator: 53±8 years

Interventions

Intervention: Program of moderate intensity physical training (60 min per session, 3 times per week for 6 weeks) plus education and standard therapy

Comparator: Educational program and standard therapy

Outcomes

"Cardiovascular events" (not clear what these include)

Notes

Conference abstract; triallists did not respond to repeated requests for further information

Chen 2020

Methods

Study design: RCT

Participants

Inclusion criteria: Participants with a clinical diagnosis of AMI, aged 18 to 80 years, performed PCI, and signed a consent form.

Exclusion criteria: Current participation in any other behavioural or pharmacological study or instructor‐led exercise program, cardiogenic shock, severe heart failure (NYHA class IV or LVEF ≤ 35%), malignant arrhythmia (ventricular fibrillation, ventricular tachycardia, and frequent ventricular premature beats), or active bleeding. People with underlying conditions such as bone and joint disease or nervous system disorders that would impede full participation in the study and unavailability during the study period.

Interventions

Intervention: Baduanjin sequential therapy (BST) beginning 2 days after surgery (30 min/session, twice per day, 3 days). After discharge, participants did standing Baduanjin exercises 30 min/session, five times per week for 24 weeks. Participants were provided picture‐based educational brochure, and telephone follow‐ups were provided to reinforce participants' adherence to the follow‐up assessments.
Comparator: requested to maintain original habit of lifestyle

Outcomes

HRQoL

Notes

The authors were contacted to clarify an unclear section within the methods describing the treatment received by the control group, but no response received.

Ghroubi 2012

Methods

Study design: RCT

Country: NR

Dates participants recruited: NR

Planned follow‐up: 2 years

Participants

Inclusion criteria: people with MI who underwent coronary stenting

Exclusion criteria: NR

N randomised: total: 68; intervention: 30; comparator: 38

Diagnosis (% of participants): post‐coronary stenting after myocardial infraction

Interventions

Cardiac rehabilitation programme not described

Outcomes

HRQoL

Notes

The authors of this conference abstract did not reply to repeated requests for an update on the status of this study.

Lubinskaya 2014

Methods

Study design: RCT

Planned follow‐up: 2 years

Participants

Inclusion criteria: NR

Exclusion criteria: NR

N randomised: total: 200; intervention: 92; control: 108

Diagnosis (% of participants): CABG (100%)

Mean age: 57.7 years

Interventions

Intervention: 2‐year comprehensive rehabilitation programme with cardiologist supervision (1, 3, and every 6 months), intermediate telephone/internet contact (9, 15, 21 months post‐surgery), controlled exercise training (every 6 months) and self‐controlled exercise training (daily morning exercise and walking), psychologist counselling, education programme (60 min every 6 months). 

Comparator: standard care

Outcomes

Treatment costs

Notes

Conference abstract; unable to locate full text despite contacting triallists

Marques‐Sule 2016

Methods

Study design: RCT

Planned follow‐up: 24 weeks

Participants

Inclusion criteria: NR

Exclusion criteria: NR

N randomised: total: 90; intervention: 45; control: 45

Diagnosis (% of participants): ACS (100%)

Mean age: intervention: 69.2±4.1 years; comparator: 69.2±5.6 years

Interventions

Intervention: Exercise sessions (8 cardiovascular exercises interrupted by 1 minute active breaks), 1 session per week for 2 months

Comparator: NR

Outcomes

No outcomes of interest reported in either conference abstract

Notes

Unable to locate full text

NCT00725088

Methods

Study design: RCT

Follow‐up: 1 year

Participants

Inclusion criteria: Clinical diagnosis of ST‐elevated MI, heart function class I‐II (Killip classification), agree to take cardiopulmonary exercise testing before discharge, signature of informed consent document

Exclusion criteria: History of MI, acute MI with severe complications (pulmonary edema, severe cardiac arrhythmia or cardiogenic shock), atrial fibrillation, other severe diseases such as HIV infection, malignant tumour or chronic diseases of liver kidney or pulmonary, not capable of exercise training

Interventions

Intervention: exercise training

Comparator: NR

Outcomes

Cardiac mortality, MI, revascularisation, hospitalisation

Notes

Triallists contacted for update on status of study, but no response received

Pater 2000

Methods

Study design: RCT

Country: Norway

Follow‐up: 3 years

Participants

Inclusion criteria: 

  • Males and females aged 40 to 85 years,

  • Unequivocal hospital‐verified, definite AMI less than 3 months ago

  • People with a recent ACS (that is, established CHD with a stabilised condition after a recent unstable episode) 

  • PTCA patients (more than 4 weeks after a PTCA)

  • CABG patients (more than 4 weeks after a CABG)

  • Ambulatory patients who have signed a declaration of consent

Exclusion criteria:

  • Unstable angina pectoris

  • Scheduled angiography

  • Clinically significant heart failure

  • Severe hypertension

  • Symptoms of orthostatic hypertension or a supine systolic blood pressure of 90 mmHg or lower

  • Severe arrhythmias persisting after the acute phase of the MI

  • Psychoneurotic disorders (depression and/or anxiety)

  • Severe obstructive airway disease with permanent respiratory insufficiency

  • Uncontrolled diabetic mellitus

  • Severe orthopaedic disability

  • Serum creatinine more than double the local upper normal limit

  • Alanine amino‐transferase or aspartate amino‐transferase more than three times the local upper limit (in the context of known liver disease)

  • Presence of any condition that limits life expectancy (e.g. cancer or haematological diseases)

  • Problems expected with compliance or follow‐up

  • Participation in another trial or study during the past 30 days

  • Stroke with severe physical disability

Interventions

Intervention: structured secondary prevention programme including patient education, brief counselling, and systematic physical training tailored to each individual. The exercise programme consists of 8 weeks of supervised outpatient physical training. 

Comparator: conventional care

Outcomes

HRQoL

Notes

Authors did not respond to repeated requests for study update.

Pomeshkina 2014

Methods

Study design: RCT

Follow‐up: 1 year

Participants

Inclusion criteria: NR

Exclusion criteria: NR

N randomised: total: 64; intervention: 29; control: 35

Diagnosis (% of participants): CABG (100%)

Mean age: 54.7±4.6 years

Interventions

Intervention: Common medical rehabilitation programme with long‐term (3 months) cycling training

Comparator: Common medical rehabilitation (medication, lifestyle modifications)

Outcomes

Unclear if any outcomes of interest were measured or reported

Notes

Triallists did not respond to requests for study updates

Rymuza 2019

Methods

Study design: RCT

Follow‐up: 12 months

Participants

Inclusion criteria: participants with ACS, age > 75 years, after PCI

Exclusion criteria: NR

N randomised: total: 51; intervention: 25; control: 26

Diagnosis (% of participants): PCI (100%)

Mean age: 80 years

Interventions

Intervention: training three times per week for 2 months

Comparator: received general recommendations for activity

Outcomes

HRQoL

Notes

Triallists did not respond to repeated requests for study updates

Sin'kova 2014

Methods

Study design: RCT

Follow‐up: NR

Participants

Inclusion criteria: participants surviving MI

Exclusion criteria: NR

N randomised: total: 110; intervention: 53; control: 57

Diagnosis (% of participants): NR

Mean age: 58.3 ± 9.8 years

Interventions

Intervention: Walking at a speed corresponding to 60% maximal heart rate

Comparator: NR

Outcomes

Costs

Notes

Unable to contact triallists for further information

Von Roeder 2011

Methods

Study design: RCT

Country: NR

Dates participants recruited: NR

Planned follow‐up: 2 years

Participants

Inclusion criteria: participants with CAD and proven exercise‐induced ischaemia

Exclusion criteria: NR

N randomised: total: 103; intervention: 57; comparator: 46

Age (years): NR

Percentage male: NR

Ethnicity: NR

Interventions

Intervention: regular exercise training

Comparator: PCI/stenting

Outcomes

Mortality

Notes

The authors of this conference abstract did not reply to repeated requests for an update on the status of this study.

Walther 2010

Methods

Study design: RCT

Country: NR

Dates participants recruited: NR

Planned follow‐up: 2 years

Participants

Inclusion criteria: Male participants with indication for elective CABG

Exclusion criteria: NR

N randomised: total: 47; intervention: 23; comparator: 24

Age (mean ± SD): 64.3 ± 7 years

Percentage male: 100%

Ethnicity: NR

Interventions

Intervention: four‐week pre‐operative endurance training course

Comparator: non‐active control

Outcomes

HRQoL and clinical outcomes

Notes

The authors of this conference abstract did not reply to repeated requests for an update on the status of this study.

ACS: acute coronary syndrome
CABG: coronary artery bypass graft
CAD: coronary artery disease
CHD: coronary heart disease
CR: cardiac rehabilitation
HRQol: health‐related quality of life
MI: myocardial infarction
N: number
NR: not reported
PCI: percutaneous coronary intervention
PTCA: percutaneous transluminal coronary angioplasty
RCT: randomised controlled trial

Characteristics of ongoing studies [ordered by study ID]

ACTRN12616001204437

Study name

Tai Chi for stress and cardiovascular function in patients with coronary heart disease and/or hypertension: a randomised controlled trial

Methods

RCT with waiting‐list control

Participants

Inclusion criteria:

(1) Equal to or greater than 40 years of age, regardless of gender;

(2) With documented diagnosis of CHD (myocardial infarction, angina or revascularisation) with severity of angina class I to II according to the Canadian Cardiovascular Society functional classification, and/or with established diagnosis of hypertension according to the Seventh Report of the Joint National Committee on Prevention, Detection, Evaluation, and Treatment of High Blood Pressure;

(3) Ability to perform prescribed Tai Chi program;

(4) Willing to complete the 24‐week Tai Chi intervention;

(5) Not practicing Tai Chi in the past 6 months;

(6) Ability to speak and read Chinese or English fluently;

(7) Willing to sign a written informed consent.

Exclusion criteria:

(1) Pregnancy

(2) Previous or current psychological disorders not associated with depression or anxiety

(3) End‐stage congestive heart failure

(4) Permanent bed‐bound status

(5) Unstable abdominal, thoracic or cerebral aneurysm

(6) Acute myocarditis, pericarditis, pulmonary embolus or pulmonary infarction

(7) Significant limitation of physical activity for reasons other than CHD

(8) Participation in a clinical trial for an experimental drug within the last 30 days before the study

Interventions

Intervention: the intervention group will be offered a standardised Tai Chi intervention over a period of 24 weeks, consisting of a 12‐week intensive Tai Chi intervention and a 12‐week sustained Tai Chi intervention.

Comparator: participants assigned to the waiting‐list control group will be instructed to maintain their routine activities and not to begin any new exercise programs during their study participation. These participants will be offered an equivalent 12‐week intensive Tai Chi intervention and 12‐week sustained Tai Chi intervention at the termination of the study, provided the Tai Chi intervention in the treatment is proved to be safe (no severe adverse events directly associated with Tai Chi).

Outcomes

HRQoL, adverse events

Starting date

28 August 2015

Contact information

[email protected]

Notes

CTRI/2017/07/008951

Study name

Efficacy of YOGA in Indian patients with coronary artery disease

Methods

RCT

Participants

Inclusion criteria:

1. All adults between 30 and 70 years
2. People with acute coronary syndrome who
have undergone percutaneous coronary
intervention within 2 weeks or
3. People with stable coronary artery disease
who have undergone percutaneous coronary
intervention in the last 2 weeks
4. People who are willing and able to participate

Exclusion criteria:

1. Severe LV dysfunction
2. Unstable arrhythmia
3. Active decompensated heart failure
4. Uncontrolled hypertension ( > 180/110)
5. Contraindications to yoga
7. Contraindications to exercise testing
or training
8. NYHA IV
9. Incomplete revascularisation

Interventions

Intervention: participants undergoing PCI with routine advice on discharge and enhanced usual care(physiotherapy, medications and lifestyle modifications) will be taught yoga, based on the module in the first week of each phase. On non‐class days, participants will be motivated to practice yoga sessions at home every day, and their compliance will be ensured telephonically and through a written log. The participants will be encouraged to practice until the end of the follow‐up period (3 years).

Comparator: participants will be on enhanced usual care after PCI.

Outcomes

MACCE, HRQoL

Starting date

03 July 2017

Contact information

[email protected]

Notes

CTRI/2017/10/009981

Study name

Efficacy of yoga‐based cardiac rehabilitation on clinical outcomes in post CABG patients: a randomized controlled trial.

Methods

RCT

Participants

Inclusion criteria:

1. People willing and able to participate
2. All adults between 35 and 65 years of age
3. People established with double or triple vessel disease planned for elective CABG
d. People with uncomplicated peri‐operative course, who are able to perform yoga

Exclusion criteria:

a. Emergency CABG
b. CABG with valve replacement surgeries
c. LVEF

d. Acute and chronic renal failure with or without dialysis
e. Regular yoga practitioners
f. Physical disabilities precluding yoga practice
g. Neuro‐psychiatric illness
h. People already exposed to yoga

Interventions

Intervention: yoga plus conventional medical management which includes physiotherapy, lifestyle modifications and medications

Comparator: conventional medical management

Outcomes

HRQoL, MACCE

Starting date

10/10/2017

Contact information

[email protected]

Notes

CTRI/2019/06/019948

Study name

Effect of cardiac rehabilitation in patients undergone myocardial infarction and percutaneous coronary intervention

Methods

RCT

Participants

Inclusion criteria:

1. 18 to 80 years of age
2. Diagnosed myocardial infarction who have undergone percutaneous coronary intervention not at risk due to other comorbidities.
3. Willing to give informed consent
4. Individuals with acute myocardial infarction
5. Individuals with New York Heart Association (NYHA) functional class I, II & III symptoms

Exclusion criteria:

1. Participants with medical conditions which could put them at risk during physical activity testing or training (e.g. angina), or conditions that could limit the participant’s ability to exercise (e.g. severe
orthopaedic or neurologic impairments)
2. Individuals with prior myocardial infarction

Interventions

Intervention: adapted phase II and phase III of cardiac rehabilitation programme with components of physical activity, education on coronary artery disease and heart‐healthy living

Comparator: participants will not receive any supervised physical activity training. Participants will receive routine care for myocardial infarction after undergoing percutaneous coronary intervention according to current guidelines.

Outcomes

HRQoL, cost effectiveness, all‐cause mortality

Starting date

02 July 2019

Contact information

[email protected]

Notes

NCT00756379

Study name

Century Trial, a randomized lifestyle modification study for management of stable coronary artery disease (Century)

Methods

RCT (single centre)

Participants

Inclusion Criteria:

  • Participants must be competent to provide written informed consent.

  • Participants must sign an Institutional Review Board (IRB) approved Informed Consent Form (ICF) and HIPAA Authorization prior to the initiation of any study procedures.

  • Men and women age ≥ 40

  • Appropriate indications for stress perfusion testing:

    • Suspected CAD:

    • Men with any chest pain syndrome and two other risk factors

    • Women > 50 years old with any chest pain syndrome and two other risk factors

    • Asymptomatic men and women > 50 years with at least three other risk factors or coronary calcium agatston score > 400.

    • Diabetic men and women and two other risk factors

  • Documented known CAD:

    • Men and women with asymptomatic or stable symptoms and known CAD by abnormal catheterisation or prior Single Photon Emission Computed Tomography (SPECT) without revascularisation after > 2 years to evaluate worsening disease; or

    • Men and women with worsening symptoms and known CAD by abnormal catheterisation or prior SPECT/ Positron emission tomography (PET) without revascularisation;

    • Men and women with chest pain syndrome and previous revascularisation

  • Asymptomatic men and women > 5 years after coronary artery bypass graft surgery (CABG) or > 2 years after PCI

  • Risk factors: diabetes, current or recent cigarette smoking (within the last 12 months), LDL >130, low HDL < 50 women, HDL < 45 men, history of metabolic syndrome, hypertension (systolic blood pressure (SPB) > 140), family history of premature (< 60 year) CAD, atherosclerotic carotid artery disease OR atherosclerotic peripheral vascular disease (APVD) as defined by ankle‐brachial index below 0.9 and/or by abnormal duplex ultrasound, CT angiography, magnetic resonance angiography (MRA) or conventional invasive angiogram or previous revascularisation procedure.

  • Framingham's high risk criteria refers to presence of diabetes mellitus with the limitation described above (c) or 10 year absolute coronary heart disease (CHD) risk of > or = 20%.

  • Chest pain is defined as 'Typical angina' if Exertional + Retrosternal + relieved with rest or sublingual nitroglycerin (NTG), 'Atypical angina' if only two of the above criteria are present and 'Non‐anginal' if one or none of the above are present.

Exclusion criteria:

  • Age < 40

  • Low pretest likelihood of CAD (= not meeting the above criteria)

  • Unstable angina high risk (dynamic ST‐Twave ECG changes and/or elevated troponin)

  • Recent MI ( < 4 weeks)

  • Recent stroke ( < 4 weeks)

  • CABG or percutaneous coronary intervention (PCI) within the last 6 months

  • Severe renal dysfunction as defined by creatinine > 2.0 mg/dL

  • Active liver disease or hepatic dysfunction, AST or ALT > x 2 the upper limit of normal (ULN)

  • Concomitant valvular heart disease

  • Left ventricular ejection fraction (LVEF) <30%

  • Severe systemic hypertension defined as systolic blood pressure (SBP) > 200 mmHg

  • Symptomatic sustained or non‐sustained ventricular tachycardia

  • Morbid obesity defined by body mass index (BMI) > 35

  • Severe disability to prevent therapeutic exercise not expected to resolve within 6 months

  • Major non‐cardiac comorbidity limiting survival or social situation/condition that, in the opinion of the investigator, will preclude the patient from participation in the study follow‐up.

  • Concurrent or prior (within last 30 days) participation in other research studies using investigational drugs or devices.

Interventions

Intervention:

"P.E.T. guided comprehensive therapy program. The study intervention is comprehensive therapy program for risk factor modification. The comprehensive program of atherosclerotic risk factor modification involves treatment to target lipid levels, blood pressure and diabetes control, smoking cessation, very low fat diet and aerobic exercise program. This is in addition to standard current medical therapy as provided by primary physician. No experimental medications or procedures will be used." "During the 5 year follow‐up they will be educated and guided toward a healthy lifestyle by a dietician, an exercise physiologist/cardiovascular physician specialist."

Comparator:

"Current standard of care medical management as provided by primary physician."

Outcomes

Mortality, non‐fatal MI, revascularisation, total cost

Starting date

March 2009

Contact information

K.Lance Gould, Professor, Internal Medicine, Cardiology, University of Texas Health Science Center, Houston

Notes

NCT02025257

Study name

Effects of exercise in patients with coronary artery disease aged 80 years or older

Methods

RCT

Participants

Inclusion criteria: clinical diagnosis of acute CAD, aged 80 years or older.
Exclusion criteria: inability to understand or speak Swedish, serious physical or psychological disease interfering with participation in an exercise intervention, patients are already exercising three times or more/week

Interventions

Intervention: exercise

Comparator: NR

Outcomes

HRQoL

Starting date

December 2013

Contact information

Maria Bäck, PhD

[email protected]

http://clinicaltrials.gov/show/NCT02025257

Notes

NCT03102346

Study name

efficAcy and Safety of Home‐baSed Cardiac rehabIlitation in ChineSe Revascularized patienTs (ASSIST)

Methods

RCT

Participants

Inclusion criteria:

  1. Age range from 30 to 80.

  2. Coronary artery disease, revascularised with stent deployment.

  3. New York Heart Association (NYHA) classification Class I‐III.

  4. Good cognitive level.

  5. Ability to perform aerobic exercise.

  6. Understand and be able to use a mobile smart phone by himself or with help of family members.

  7. Signature of informed consent. The informed consent will be valid for the duration of the trial or until the subject withdraws.

Exclusion criteria:

  1. Presence of malignant arrhythmias such as ventricular fibrillation outside the acute phase of acute myocardial infarction (AMI) ( > 24 h after AMI), ventricular tachycardia, Atrioventricular block of 2nd degree and 3rd degree, atrial fibrillation (FA) in patients with Wolf Parkinson White, fibrillation or paroxysmal atrial flutter with response ventricular quickly and haemodynamic deterioration, premature ventricular contractions increases during exertion, paroxysmal supraventricular tachycardia uncontrolled.

  2. Hypotensive response to exercise.

  3. Acute myocardial infarction within 2 weeks.

  4. Poorly controlled hypertension baseline, hyperglycaemia, respiratory failure.

  5. Severe pulmonary hypertension.

  6. Acute phase of heart failure.

  7. Pathology of musculoskeletal, neurological or breathing that impair the ability of prolonged ambulation.

  8. Pregnant women.

  9. Subjects unable to give informed consent.

Interventions

Intervention: home‐based cardiac rehabilitation

Comparator: no instructed exercise training

Outcomes

MACCE, hospitalisation, HRQoL

Starting date

09 November 2017

Contact information

[email protected]

Notes

NCT03375944

Study name

Utilisation of Telemedicine in Optimal Cardiac Rehabilitation Program in Patients After Myocardial Revascularization (RESTORE)

Methods

RCT

Participants

Inclusion criteria:

  • age over 18 and below 70

  • completed revascularization in participants with stable or unstable angina or after myocardial infarction without ST‐segment elevation (NSTEMI)

  • in participants with suspected myocardial scars, MRI will be recommended to confirm myocardial viability

  • eligibility to participate in a program of early cardiac rehabilitation

  • signed informed consent form

  • the ability to use telerehabilitation system

Exclusion criteria:

  • acute myocardial infarction with ST segment elevation/new onset of left bundle branch block (LBBB)

  • suboptimal (not completed) revascularisation

  • ejection fraction < 40%.

  • acute heart failure (Killip IV) at the time of admission to the hospital

  • dual antiplatelet therapy can not be maintained for 1 year after PCI

  • haemorrhagic stroke in the past

  • ischaemic stroke or transient ischaemia in previous 6 weeks

  • platelet count < 100,000 / mm3

  • chronic renal failure with creatinine clearance < 30mL / min / 1.73 m2

  • planned surgery

  • pregnancy or planned pregnancies

  • expected life expectancy less than 3 years after enrolment

Interventions

Intervention:
cardiac supervision and rehabilitation ‐ optimal, continuous and regularly controlled tele‐rehabilitation, based on exercise training, intensive dietary and educational program focused on lifestyle and risk factor modification. 

Comparator:
cardiac supervision

Outcomes

Mortality, cardiovascular events

Starting date

March 2018

Contact information

Krzysztof Milewski; [email protected]

Notes

NCT03584828

Study name

Tele‐Cardiac Rehabilitation Program

Methods

RCT

Participants

Inclusion criteria:

  • guideline‐based and Israeli Health Basket approved indications for cardiac rehabilitation yet participant declines to participate in centre‐based cardiac rehabilitation due to non‐medical reasons such as: distance, service availability in participants' living area, time constraints and other logistic or sociocultural barriers;

  • age ≥ 21 years;

  • compatible smartphone (android or iOS) with internet connection;

  • willing and able to comply with study protocol;

  • able and willing to follow the personalised exercise prescription, use wearable technology and smartphone app, and upload data via personal smartphone.

Exclusion criteria:

  • any unresolved cardiac condition associated with significantly increased risk during outpatient activity (clinically significant ischaemia, unresolved arrhythmia, high falling risk, etc.);

  • end‐stage/NYHA 4 or unstable heart failure (clinical) or unresolved significant arrhythmia (i.e. rapid atrial fibrillation);

  • LVEF ≤ 35% without ICD/ CRTD;

  • significant neurological or cognitive impairment or markedly unstable gait /high falling risk;

  • women of child‐bearing potential;

  • ACS within 30 days prior to screening, or having undergone cardiac surgery within 30 days prior to screening;

  • inability to perform a stress test due to physical limitations;

  • severe angina pectoris as defined by Canadian Cardiovascular Society (CCS) Angina Score > 2;

  • pulmonary disease of severity greater than mild (COPD, asthma, interstitial lung disease (ILD), connective tissue disease (CTD) with lung involvement) or chronic pulmonary thromboembolic disease (CTED));

  • severe orthopedic limitations;

  • active myocarditis, constrictive pericarditis, restrictive or hypertrophic cardiomyopathy;

  • severe aortic or mitral stenosis;

  • significant anaemia (Hb < 10 mg/dL);

  • known drug or alcohol dependence or any other factors which will interfere with the study conduct or interpretation of the results, or in the opinion of the investigator, are not suitable to participate;

  • any illness which reduces life expectancy to less than 1 year from screening.

Interventions

Intervention:
"The Tele‐rehab arm will receive an exercise prescription and execution will be assessed and periodically adjusted in accordance to data received from the wearable device. Intensity and type of exercise will be moderate and will comply with exercise recommendations provided by ESC guidelines. A dedicated application will be installed on the mobile phone for patients in the research group and they will receive a smart sports watch." "Additionally, in the intervention arm, we will provide psychological support, dietary intervention and disease management services that complement the structured physical activity ‐ all by innovative smartphone applications and smart wearable devices"

Comparator:
"The usual care arm will receive general recommendations for a healthy and active lifestyle and community cardiologist and primary care physician according to local guidelines."

Outcomes

hospitalisation, mortality,  HRQoL 

Starting date

July 2018

Contact information

Dr. Robert Klempfner Heart Rehabilitation Institute, Head, Cardiovascular Prevention and Rehabilitation Institute, Sheba Medical Center, Israel, Sheba Medical Center

Notes

NCT03905187

Study name

Stress Management Modified Cardiac Rehabilitation in Patients After Acute Myocardial Infarction or Heart Failure

Methods

RCT

Participants

Inclusion criteria:
Participants aged 18 to 80 years old with a diagnosis of AMI (include ST segment elevated myocardial infarction and non‐ST segment elevated myocardial infarction) or heart failure.

Exclusion criteria:
Uncontrolled tachycardia (heart rate at rest > 120 bpm). Uncontrolled polypnoea (breath rate at rest > 30 breath per minute. Uncontrolled respiratory failure (SPO2 ≤ 90%). Uncontrolled hypertension (pre‐exercise SBP > 180 mmHg or DBP > 110 mmHg). Weight change in 72 hours > 1.8kg. Uncontrolled hyperglycaemia (random blood glucose > 18 mmol/L). Uncontrolled malignant arrhythmia with haemodynamic instability. Unoperated pseudoaneurysm. Artery dissection. Uncontrolled septic shock and septicopyaemia. Unoperated severe valvular heart disease or acute phase of heart failure caused by myocardial heart disease. Nervous system disease, motor system diseases and rheumatic diseases considered possibly worsened by exercise. Uncooperation of the participants.

Interventions

Intervention 1: 
Modified CR ‐  cardiac rehabilitation including stress management, exercise and education.

Intervention 2:
Traditional CR ‐ including education and exercise.

Comparator:
Education only (control group)

Outcomes

HRQoL, rehospitalisation, MACE

Starting date

April 2019

Contact information

[email protected]

Notes

NCT03978130

Study name

Rehabilitation at Home Using Mobile Health in Older Adults after Hospitalization for Ischemic Heart Disease (RESILIENT)

Methods

Multicentre RCT

Participants

Inclusion criteria:

  1. Age ≥ 65 years.

  2. Currently hospitalised for AMI, PCI, or CABG, or hospitalised for AMI, PCI or CABG within prior 2 weeks.

  3. Capable of self‐consent.

  4. Understands and is able to perform study procedures (i.e. 6‐minute walk test, use mHealth software in English or Spanish).

Exclusion criteria:

  1. Non‐ambulatory.

  2. Moderate or severe cognitive impairment.

  3. Unable/unwilling to consent.

  4. PCI‐related groin hematoma that precludes brisk walking.

  5. Incarcerated.

  6. Unable to use mHealth software in English or Spanish.

  7. Severe osteoarthritis, or joint replacement within last 3 months.

  8. Parkinson's disease or other progressive movement disorder.

  9. Regular use of walker for ambulation.

  10. Projected life expectancy < 3 months.

  11. Clinical judgment concerning other safety or non‐adherence issues.

  12. Participants admitted from long‐term care facility.

  13. Currently listed for heart transplant.

  14. Left ventricular assist device recipient.

  15. Completion of ambulatory cardiac rehabilitation program within prior 3 months.

Interventions

Intervention:

mHealth‐CR: participants receive 3 components for their home activity: (1) communication with exercise therapist (in‐hospital assessment/counselling followed by regular communication post‐discharge), (2) mHealth‐CR software, and (3) wearable activity‐monitoring device. 

Comparator:

usual care

Outcomes

HRQoL, hospital readmissions, mortality

Starting date

January 2020

Contact information

[email protected]

Notes

NCT04425057

Study name

Effect of a High Intensity Interval Training in Older Adults With Coronary Artery Disease

Methods

RCT

Participants

Inclusion criteria:

  • diagnosed with coronary artery disease

  • discharged from hospital, less than 2 months

Exclusion criteria:

  • not able to move by themselves

Interventions

Intervention: physiotherapy program during two months: interval training at a high intensity, including a warm‐up and a cool‐down. Aerobic exercises, resistance exercises, stretching.

Comparator: no physiotherapy.

Outcomes

HRQoL (SF‐36)

Starting date

October 2012

Contact information

Elena Marques‐Sule, PhD, PT, University of Valencia

Notes

NCT04438356

Study name

M‐Health Care for Patients After AMI on Disease Perception, Self‐Efficacy, Anxiety and Cardio‐Respiratory Fitness

Methods

RCT (waiting‐list control)

Participants

Inclusion criteria:

  • Taiwanese, understand Chinese

  • Participants who are over 20 years old and have AMI (including ST segment ascending and non‐ST segment ascending), diagnosed by percutaneous coronary intervention and without complications within 30±5 days, the left ventricular injection rate is greater than 40%

  • Ability and willingness to provide informed consent

  • Have a smartphone

  • Can receive and send smartphone messages

Exclusion criteria:

  • Those who can't express their wishes clearly (such as mental dysfunction)

  • Mental disorder

  • People who participate in other research projects

  • Planned coronary artery bypass surgery or other diseases that require continuous heart care

  • Abuse of alcohol or narcotics

  • Left ventricular ejection fraction (LVEF) is less than 40%

Interventions

Intervention:

M‐Health app to remind participants of the walking frequency and time, and use Garmin monitoring bracelet to record daily walking steps. App content also includes knowledge about acute myocardial infarction, self‐care and anxiety.

Control:

Waiting‐list control for 3 months, then receive the same M‐Health intervention

Outcomes

Starting date

22 July 2020

Contact information

Hui‐Hsun Chiang: [email protected]

Notes

NCT04511182

Study name

Early Individualized‐Exercise Based Cardiac Rehabilitation Programs in Patients With Acute Myocardial Infarction

Methods

RCT

Participants

Inclusion criteria:

  1. Acute myocardial infarction (AMI) within 1 month prior to recruitment.

  2. Complete revascularisation.

  3. Men or non‐pregnant women aged from 18 to 80 years.

Exclusion criteria:

  1. Uncontrolled hypertension (systolic blood pressure/diastolic blood pressure > 160/100 mmHg), or symptomatic hypotension.

  2. Significant resting electrocardiogram abnormalities (left bundle branch block, non‐specific intraventricular conduction delay, left ventricular hypertrophy, resting ST‐segment depression), life‐threatening cardiac arrhythmias.

  3. Acute myocarditis, pericarditis or acute systemic illness.

  4. Those who are assessed by the doctor as high‐risk.

  5. Pacemaker or implantable cardioverter defibrillator.

  6. Any contraindication to exercise testing or exercise training or inability to complete a CPET.

  7. Life‐threatening diseases with limited life expectancy < 3 year.

  8. Uncontrolled unstable angina pectoris.

  9. Significant valvular disease (mitral stenosis, moderate to severe mitral insufficiency, aortic stenosis, or aortic insufficiency, severe mitral / aortic regurgitation).

  10. Severe mental or cognitive impairment.

  11. Inability to follow the procedures of the study.

Interventions

Intervention: exercise intervention group. Participants will receive standard medications plus exercise based CR. Education covering topics related to AMI and exercise for AMI will be implemented and any consultations on exercise prescription and disease management will be explained by a cardiac rehabilitation team consisting of cardiologists, cardiology nurses and physiotherapists.

Comparator: participants will receive standard medications according to national guidelines, as well as education and consultations as intervention group. However, no exercise prescription is given.

Outcomes

HRQoL (SF‐36), MACE

Starting date

1 February 2021

Contact information

Qin Shao: [email protected]

Notes

NCT04858503

Study name

An Internet‐based Cardiac Rehabilitation Enhancement (i‐CARE) Intervention to Support Self‐care of Patients With Coronary Artery Disease

Methods

RCT

Participants

Inclusion criteria:

  • ≥ 18 years of age

  • living in the community

  • own a smartphone with internet access

  • communicable in Cantonese

  • type in Chinese or English

  • with a confirmed diagnosis of CAD

Exclusion criteria:

  • enrolled to a structured centre‐based or home‐based cardiac rehabilitation program

  • psychiatric problems

  • impaired cognitive functioning (i.e. Abbreviated Mental Test ≤ 6)

  • terminal disease with life expectancy < 1 year

Interventions

Intervention:
participants in the intervention group will receive a 12‐week i‐CARE intervention, which will be designed to cover the core elements of CAD self‐care: self‐care maintenance, self‐care monitoring and self‐care management. The intervention will comprise: 1) a single individualised face‐to‐face session, and 2) an internet‐based intervention through a mobile application. Various behaviour change techniques will be used to increase the self‐efficacy of CAD patients in enacting self‐care behaviours.

Comparator:
participants will receive conventional care as arranged by hospital or community centres.

Outcomes

cardiovascular events, mortality, HRQoL

Starting date

May 2021

Contact information

Dr. Polly Wai‐Chi Li, The University of Hong Kong [email protected] 

Notes

ACS: acute coronary syndrome
AMI: acute myocardial infarction
APVD: atherosclerotic peripheral vascular disease
CABG: coronary artery bypass graft
COPD: chronic obstructive pulmonary disease
CPET: cardiopulmonary exercise test
CRTD: cardiac resynchronization therapy defibrillator
CTED: chronic pulmonary thromboembolic disease
DBP: diastolic blood pressure
HDL: high‐density lipoprotein
HRQoL: health‐related quality of life
ICD: implantable cardioverter defibrillator
LDL: low‐density lipoprotein
LV: left‐ventricular
LVEF: left ventricular ejection fraction
MACCE: major adverse cardiac and cerebrovascular events
MACE: major adverse coronary event
NYHA: New York Heart Association
PCI: percutaneous coronary intervention
RCT: randomised controlled trial
SBP: systolic blood pressure

Data and analyses

Open in table viewer
Comparison 1. Exercise‐based rehabilitation versus control

Outcome or subgroup title

No. of studies

No. of participants

Statistical method

Effect size

1.1 All‐cause mortality Show forest plot

47

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

Analysis 1.1

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 1: All‐cause mortality

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 1: All‐cause mortality

1.1.1 Follow‐up of 6 to 12 months

25

8823

Risk Ratio (M‐H, Random, 95% CI)

0.87 [0.73, 1.04]

1.1.2 Follow‐up of > 12 to 36 months

16

11073

Risk Ratio (M‐H, Random, 95% CI)

0.90 [0.80, 1.02]

1.1.3 Follow‐up longer than 3 years

11

3828

Risk Ratio (M‐H, Random, 95% CI)

0.91 [0.75, 1.10]

1.2 Cardiovascular mortality Show forest plot

26

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

Analysis 1.2

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 2: Cardiovascular mortality

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 2: Cardiovascular mortality

1.2.1 Follow‐up of 6 to 12 months

15

5360

Risk Ratio (M‐H, Random, 95% CI)

0.88 [0.68, 1.14]

1.2.2 Follow‐up of > 12 months to 36 months

5

3614

Risk Ratio (M‐H, Random, 95% CI)

0.77 [0.63, 0.93]

1.2.3 Follow‐up of longer than 3 years

8

1392

Risk Ratio (M‐H, Random, 95% CI)

0.58 [0.43, 0.78]

1.3 Fatal and/or nonfatal MI Show forest plot

39

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

Analysis 1.3

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 3: Fatal and/or nonfatal MI

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 3: Fatal and/or nonfatal MI

1.3.1 Follow‐up of 6 to 12 months

22

7423

Risk Ratio (M‐H, Random, 95% CI)

0.72 [0.55, 0.93]

1.3.2 Follow‐up of > 12 to 36 months

12

9565

Risk Ratio (M‐H, Random, 95% CI)

1.07 [0.91, 1.27]

1.3.3 Follow‐up of longer than 3 years

10

1560

Risk Ratio (M‐H, Random, 95% CI)

0.67 [0.50, 0.90]

1.4 CABG Show forest plot

29

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

Analysis 1.4

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 4: CABG

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 4: CABG

1.4.1 Follow‐up of 6 to 12 months

20

4473

Risk Ratio (M‐H, Random, 95% CI)

0.99 [0.78, 1.27]

1.4.2 Follow‐up of > 12 to 36 months

9

2826

Risk Ratio (M‐H, Random, 95% CI)

0.97 [0.77, 1.23]

1.4.3 Follow‐up of longer than 3 years

4

675

Risk Ratio (M‐H, Random, 95% CI)

0.66 [0.34, 1.27]

1.5 PCI Show forest plot

18

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

Analysis 1.5

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 5: PCI

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 5: PCI

1.5.1 Follow‐up of 6 to 12 months

13

3465

Risk Ratio (M‐H, Random, 95% CI)

0.86 [0.63, 1.19]

1.5.2 Follow‐up of > 12 to 36 months

6

1983

Risk Ratio (M‐H, Random, 95% CI)

0.96 [0.69, 1.35]

1.5.3 Follow‐up of longer than 3 years

3

567

Risk Ratio (M‐H, Random, 95% CI)

0.76 [0.48, 1.20]

1.6 All‐cause hospital admissions Show forest plot

22

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

Analysis 1.6

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 6: All‐cause hospital admissions

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 6: All‐cause hospital admissions

1.6.1 Follow‐up of 6 to 12 months

14

2030

Risk Ratio (M‐H, Random, 95% CI)

0.58 [0.43, 0.77]

1.6.2 Follow‐up of > 12 to 36 months

9

5995

Risk Ratio (M‐H, Random, 95% CI)

0.92 [0.82, 1.03]

1.7 Cardiovascular hospital admissions Show forest plot

8

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

Analysis 1.7

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 7: Cardiovascular hospital admissions

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 7: Cardiovascular hospital admissions

1.7.1 Follow‐up of 6 to 12 months

6

1087

Risk Ratio (M‐H, Random, 95% CI)

0.80 [0.41, 1.59]

1.7.2 Follow up of >12 to 36 months

3

943

Risk Ratio (M‐H, Random, 95% CI)

0.92 [0.76, 1.12]

1.8 HRQoL SF‐36 summary scores at 6 to 12 months follow up Show forest plot

6

Mean Difference (IV, Random, 95% CI)

Subtotals only

Analysis 1.8

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 8: HRQoL SF‐36 summary scores at 6 to 12 months follow up

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 8: HRQoL SF‐36 summary scores at 6 to 12 months follow up

1.8.1 Physical component score

6

1741

Mean Difference (IV, Random, 95% CI)

1.70 [‐0.08, 3.47]

1.8.2 Mental component score

6

1741

Mean Difference (IV, Random, 95% CI)

2.14 [1.07, 3.22]

1.9 HRQoL SF‐36 8 domains at 6 to 12 months follow up Show forest plot

8

Mean Difference (IV, Random, 95% CI)

Subtotals only

Analysis 1.9

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 9: HRQoL SF‐36 8 domains at 6 to 12 months follow up

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 9: HRQoL SF‐36 8 domains at 6 to 12 months follow up

1.9.1 Physical functioning

8

2756

Mean Difference (IV, Random, 95% CI)

8.47 [3.69, 13.24]

1.9.2 Physical performance

8

2756

Mean Difference (IV, Random, 95% CI)

8.08 [2.89, 13.27]

1.9.3 Bodily pain

8

2756

Mean Difference (IV, Random, 95% CI)

‐0.06 [‐8.97, 8.84]

1.9.4 General health

8

2756

Mean Difference (IV, Random, 95% CI)

5.66 [2.08, 9.25]

1.9.5 Vitality

7

2638

Mean Difference (IV, Random, 95% CI)

5.78 [1.89, 9.67]

1.9.6 Social functioning

8

2756

Mean Difference (IV, Random, 95% CI)

1.98 [0.26, 3.70]

1.9.7 Emotional performance

7

2638

Mean Difference (IV, Random, 95% CI)

0.69 [‐1.33, 2.71]

1.9.8 Mental health

8

2756

Mean Difference (IV, Random, 95% CI)

5.60 [1.21, 9.98]

1.10 HRQoL EQ‐5D at 6 to 12 months follow up Show forest plot

3

476

Mean Difference (IV, Random, 95% CI)

0.05 [‐0.01, 0.10]

Analysis 1.10

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 10: HRQoL EQ‐5D at 6 to 12 months follow up

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 10: HRQoL EQ‐5D at 6 to 12 months follow up

PRISMA flow diagram of study selection process

Figuras y tablas -
Figure 1

PRISMA flow diagram of study selection process

Risk of bias summary: review authors' judgements about each risk of bias item for each included study

Figuras y tablas -
Figure 2

Risk of bias summary: review authors' judgements about each risk of bias item for each included study

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: all‐cause mortality at 6 to 12 months' follow‐up

Figuras y tablas -
Figure 3

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: all‐cause mortality at 6 to 12 months' follow‐up

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: all‐cause mortality at > 36 months' follow‐up

Figuras y tablas -
Figure 4

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: all‐cause mortality at > 36 months' follow‐up

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: all‐cause mortality at > 12 to 36 months' follow‐up

Figuras y tablas -
Figure 5

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: all‐cause mortality at > 12 to 36 months' follow‐up

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.2: cardiovascular mortality at 6 to 12 months' follow‐up

Figuras y tablas -
Figure 6

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.2: cardiovascular mortality at 6 to 12 months' follow‐up

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.3: myocardial infarction at 6 to 12 months' follow‐up

Figuras y tablas -
Figure 7

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.3: myocardial infarction at 6 to 12 months' follow‐up

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: myocardial infarction at > 12 to 36 months' follow‐up

Figuras y tablas -
Figure 8

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: myocardial infarction at > 12 to 36 months' follow‐up

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: myocardial infarction at > 36 months' follow‐up

Figuras y tablas -
Figure 9

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: myocardial infarction at > 36 months' follow‐up

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: CABG at 6 to 12 months' follow‐up

Figuras y tablas -
Figure 10

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: CABG at 6 to 12 months' follow‐up

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: PCI at 6 to 12 months' follow‐up

Figuras y tablas -
Figure 11

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: PCI at 6 to 12 months' follow‐up

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: all‐cause hospitalisation at 6 to 12 months' follow‐up

Figuras y tablas -
Figure 12

Funnel plot of comparison: exercise‐based rehabilitation versus usual care, outcome 1.1: all‐cause hospitalisation at 6 to 12 months' follow‐up

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 1: All‐cause mortality

Figuras y tablas -
Analysis 1.1

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 1: All‐cause mortality

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 2: Cardiovascular mortality

Figuras y tablas -
Analysis 1.2

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 2: Cardiovascular mortality

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 3: Fatal and/or nonfatal MI

Figuras y tablas -
Analysis 1.3

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 3: Fatal and/or nonfatal MI

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 4: CABG

Figuras y tablas -
Analysis 1.4

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 4: CABG

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 5: PCI

Figuras y tablas -
Analysis 1.5

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 5: PCI

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 6: All‐cause hospital admissions

Figuras y tablas -
Analysis 1.6

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 6: All‐cause hospital admissions

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 7: Cardiovascular hospital admissions

Figuras y tablas -
Analysis 1.7

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 7: Cardiovascular hospital admissions

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 8: HRQoL SF‐36 summary scores at 6 to 12 months follow up

Figuras y tablas -
Analysis 1.8

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 8: HRQoL SF‐36 summary scores at 6 to 12 months follow up

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 9: HRQoL SF‐36 8 domains at 6 to 12 months follow up

Figuras y tablas -
Analysis 1.9

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 9: HRQoL SF‐36 8 domains at 6 to 12 months follow up

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 10: HRQoL EQ‐5D at 6 to 12 months follow up

Figuras y tablas -
Analysis 1.10

Comparison 1: Exercise‐based rehabilitation versus control, Outcome 10: HRQoL EQ‐5D at 6 to 12 months follow up

Summary of findings 1. Exercise‐based cardiac rehabilitation compared to 'no exercise' control for coronary heart disease

Exercise‐based cardiac rehabilitation compared to 'no exercise' control for coronary heart disease

Patient or population: people with coronary heart disease 
Setting: hospital‐based, community‐based and home‐based settings 
Intervention: exercise‐based cardiac rehabilitation 
Comparison: 'no exercise' control

Outcomes

Anticipated absolute effects* (95% CI)

Relative effect
(95% CI)

№ of participants
(studies)

Certainty of the evidence
(GRADE)

Comments

Risk with 'no exercise' control

Risk with exercise‐based cardiac rehabilitation

All‐cause mortality
Follow‐up: range 6 months to 12 months

Study population

RR 0.87
(0.73 to 1.04)

8823
(25 RCTs)

⊕⊕⊕⊝
Moderatea

Exercise‐based cardiac rehabilitation likely results in a slight reduction in all‐cause mortality up to 12 months' follow‐up. 25 RCTs with 26 comparisons. 14 RCTs reported 0 events in both the intervention and control groups. 

57 per 1000

50 per 1000
(42 to 59)

Cardiovascular mortality
Follow‐up: range 6 months to 12 months

Study population

RR 0.88
(0.68 to 1.14)

5360
(15 RCTs)

⊕⊕⊕⊝
Moderatea

Exercise‐based cardiac rehabilitation likely results in little to no difference in cardiovascular mortality up to 12 months' follow‐up. 5 RCTs reported 0 events in both the intervention and control groups.

45 per 1000

39 per 1000
(30 to 51)

Fatal and/or non‐fatal MI
Follow‐up: range 6 months to 12 months

Study population

RR 0.72
(0.55 to 0.93)

7423
(22 RCTs)

⊕⊕⊕⊕
High

Exercise‐based cardiac rehabilitation results in a large reduction in fatal and/or non‐fatal MI up to 12 months' follow‐up. 24 RCTs with 24 comparisons. 3 RCTs reported 0 events in both the intervention and control groups.

NNTB 75 (95% CI 47 to 298)

48 per 1000

35 per 1000
(27 to 45)

Revascularisation ‐ CABG
Follow‐up: range 6 months to 12 months

Study population

RR 0.99
(0.78 to 1.27)

4473
(20 RCTs)

⊕⊕⊕⊕
High

Exercise‐based CR results in little to no difference in CABG revascularisation up to 12 months' follow‐up. 20 RCTs with 22 comparisons. 2 RCTs reported 0 events in both the intervention and control groups.

56 per 1000

56 per 1000
(44 to 72)

Revascularisation ‐ PCI
Follow‐up: range 6 months to 12 months

Study population

RR 0.86
(0.63 to 1.19)

3465
(13 RCTs)

⊕⊕⊕⊝
Moderatea

Exercise‐based CR likely results in little to no difference in risk of PCI revascularisation up to 12 months' follow‐up. 13 RCTs with 14 comparisons. 3 RCTs reported 0 events in both the intervention and control groups.

60 per 1000

52 per 1000
(38 to 72)

All‐cause hospital admissions
Follow‐up: range 6 months to 12 months

Study population

RR 0.58
(0.43 to 0.77)

2030
(14 RCTs)

⊕⊕⊕⊝
Moderateb

Exercise‐based cardiac rehabilitation likely results in a large reduction in all‐cause hospital admissions up to 12 months' follow‐up. 14 RCTs with 16 comparisons. One RCT reported 0 events in both the intervention and control group.

NNTB 12 (95% CI 9 to 21)

214 per 1000

124 per 1000
(92 to 165)

Cardiovascular hospital admissions
Follow‐up: range 6 months to 12 months

Study population

RR 0.80
(0.41 to 1.59)

1087
(6 RCTs)

⊕⊕⊝⊝
Lowa,c

We are uncertain about the effects of exercise‐based CR on cardiovascular hospitalisation, with a wide confidence interval including considerable benefit as well as harm.

78 per 1000

62 per 1000
(32 to 123)

*The risk in the intervention group (and its 95% confidence interval) is based on the assumed risk in the comparison group and the relative effect of the intervention (and its 95% CI). 

CI: confidence interval; RR: risk ratio; OR: odds ratio; NNTB/H: number needed to treat for an additional beneficial/harmful outcome

GRADE Working Group grades of evidence
High certainty: we are very confident that the true effect lies close to that of the estimate of the effect.
Moderate certainty: we are moderately confident in the effect estimate: the true effect is likely to be close to the estimate of the effect, but there is a possibility that it is substantially different.
Low certainty: our confidence in the effect estimate is limited: the true effect may be substantially different from the estimate of the effect.
Very low certainty: we have very little confidence in the effect estimate: the true effect is likely to be substantially different from the estimate of effect.

a95% CI is wide and overlaps no effect; therefore, downgraded by one level for imprecision.
bP < 0.05 in the Egger test, and funnel plot asymmetry; therefore, downgraded by one level for suspected publication bias.
cEvidence of heterogeneity in the I2 test; therefore, downgraded by one level for substantial heterogeneity.

Figuras y tablas -
Summary of findings 1. Exercise‐based cardiac rehabilitation compared to 'no exercise' control for coronary heart disease
Table 1. Summary of health‐related quality of life (HRQoL) scores at follow‐up

Measure of HRQoL

Mean (SD) outcome values at follow‐up

P value

Difference between groups

 

Exercise

Control

 

 

Aronov 2019

Quality of life questionnaire developed by authors (Aronov 2002) % change of mean score at 6 months

 

Δ%

Δ%

 

 

 

30.4

“no change”

NR

 

Bell 1998

Nottingham Health Profile at 10.5 months' follow‐up:

Energy

17.6 (27.1)

18.3 (29.8)

0.87**

Exercise = Control

Pain

2.8 (8.8)

4.82 (11.9)

< 0.05

Exercise > Control

Emotional reactions

6.4 (17.0)

12.2 (19.9)

< 0.001

Exercise > Control

Sleep

7.5 (18.4)

20.5 (27.8)

< 0.001

Exercise > Control

Social isolation

2.3 (10.6)

4.0 (13.3)

0.37*

Exercise = Control

Physical mobility

8.4 (11.1)

8.9 (14.5)

0.82**

Exercise = Control

Belardinelli 2001

SF‐36 at 6 months' follow‐up:

Physical functioning

78 (19)

55 (20)

0.001

Exercise > Control

Physical performance

75 (13)

65 (14)

0.01

Exercise > Control

Bodily pain

4 (9)

22 (10)

0.001

Exercise > Control

General health

68 (14)

50 (19)

0.001

Exercise > Control

Vitality

NR

NR

 

 

Social functioning

66 (10)

69 (12)

0.14*

Exercise = Control

Emotional performance

NR

NR

 

 

Mental health

65 (12)

48 (15)

0.01

Exercise > Control

SF‐36 at 12 months' follow‐up:

Physical functioning

82 (18)

54 (20)

0.001

Exercise > Control

Physical performance

76 (9)

58 (14)

0.01

Exercise > Control

Bodily pain

4 (9)

32 (12)

0.001

Exercise > Control

General health

70 (14)

50 (18)

0.001

Exercise > Control

Vitality

NR

NR

 

 

Social functioning

68 (11)

68 (12)

1.00*

Exercise = Control

Emotional performance

NR

NR

 

 

Mental health

70 (14)

45 (15)

0.001

Exercise > Control

Bettencourt 2005

SF‐36 at 1 year follow‐up:

Physical functioning

70

62

NS*

Exercise = Control

Physical performance

66

57

NS*

Exercise = Control

Bodily pain

73

65

NS*

Exercise = Control

General health

57

46

< 0.02

Exercise > Control

Vitality

62

47

< 0.02

Exercise > Control

Social functioning

73

66

NS*

Exercise = Control

Emotional performance

65

58

NS*

Exercise = Control

Mental health

87

75

NS*

Exercise = Control

Mental component

71

57

0.02

Exercise > Control

Physical component

63

57

NS*

Exercise = Control

Briffa 2005

SF‐36 at 6 months' follow‐up:

 

Δ (95% CI)

Δ (95% CI)

 

 

Physical functioning

15.9 (‐8 to 23)

7.1 (1 to 13)

NS*

Exercise = Control

Physical performance

75 (0 to 100)

75 (0 to 100)

NS*

Exercise = Control

Bodily pain

26.6 (18 to 35)

19.2 (11 to 27)

NS*

Exercise = Control

General health

0.1 (‐6 to 6)

‐0.6 (‐5 to 4)

NS*

Exercise = Control

Vitality

7.1 (1 to 13)

3.7 (‐2 to 9)

NS*

Exercise = Control

Social functioning

19.6 (10 to 29)

14.1 (7 to 21)

NS*

Exercise = Control

Emotional performance

33.3 (0 to 100)

33.3 (33 to 100)

NS*

Exercise = Control

Mental health

0.5 (‐4 to 5)

1.4 (‐3 to 5)

NS*

Exercise = Control

SF‐36 at 1 year follow‐up:

 

Δ (95% CI)

Δ (95% CI)

 

 

Physical functioning

17.6 (10 to 25)

6.8 (‐1 to 14)

0.04

Exercise > Control

Physical performance

100 (0 to 100)

75 (12 to 30)

NS*

Exercise = Control

Bodily pain

30.2 (23 to 37)

20.9 (‐2 to 7)

NS*

Exercise = Control

General health

2.7 (‐3 to 5)

2.2 (‐2 to 7)

NS*

Exercise = Control

Vitality

11.9 (6 to 18)

6.9 (1 to 12)

NS*

Exercise = Control

Social functioning

23.6 (14 to 33)

16.4 (9 to 23)

NS*

Exercise = Control

Emotional performance

33.3 (33 to 100)

33.3 (33 to 100)

NS*

Exercise = Control

Mental health

3.6 (‐1 to 9)

3.9 (0 to 8)

NS*

Exercise = Control

Bubnova 2019

Quality of life questionnaire developed by authors (Aronov 2002) mean (SD) score after 12 months:

Low rehabilitation potential subgroup

‐4.9 (4.5)

‐7.8 (3.1)

< 0.05

Exercise > Control

Average rehabilitation potential subgroup

‐5 (3.2)

‐7.4 (4.3)

< 0.05

Exercise > Control

High rehabilitation potential subgroup

‐4.3 (3.9)

‐5.6 (4.3)

< 0.05

Exercise > Control

Bubnova 2020

Quality of life questionnaire developed by authors (Aronov 2002) mean (%) score change at 12 months:

 

Δ (%)

Δ (%)

 

 

BMI < 30 kg/m2 group

42 (6%)

10 (2%)

<0.01

Exercise > Control

BMI ≥ 30 kg/m2 group

27 (5%)

8 (2%)

<0.001

Exercise > Control

Campo 2020

EuroQol at 6 months' follow‐up:

 

Median (IQR)

Median (IQR)

 

 

VAS (visual analogue scale)

80 (70‐90)

70 (50‐80)

< 0.001

Exercise > Control

5 domains

N (%)

N (%)

 

 

Pain/discomfort:
No
Moderate
Extreme

103 (89)
10 (9)
3 (3)

89 (77)
24 (21)
3 (3)

0.03

Exercise > Control

Anxiety/depression:
No
Moderate
Extreme

92 (79)
21 (18)
3 (3)

67 (58)
36 (31)
12 (10)

0.001

Exercise > Control

Mobility:
No problems
Some problems
Confined to bed

104 (90)
12 (10)
0 (0)

80 (70)
34 (30)
1 (1)

< 0.001

Exercise > Control

Self‐care:
No problems
Some problems
Unable

114 (98)
2 (2)
0 (0)

87 (76)
25 (22)
1 (1)

0.6

Exercise = Control

Usual activities:
No problems
Some problems
Unable

101 (87)
14 (12)
1 (1)

87 (76)
25 (22)
3 (3)

0.04

Exercise > Control

EuroQol at 12 months' follow‐up:

 

Median (IQR)

Median (IQR)

 

 

VAS (visual analogue scale)

75 (70‐87)

65 (50‐80)

< 0.001

Exercise > Control

5 domains

N (%)

N (%)

 

 

Pain/discomfort:
No
Moderate
Extreme

86 (77)
24 (21)
2 (2)

72 (65)
29 (26)
9 (8)

0.04

Exercise > Control

Anxiety/depression:
No
Moderate
Extreme

83 (74)
23 (21)
6 (5)

58 (53)
37 (34)
15 (14)

0.03

Exercise > Control

Mobility:
No problems
Some problems
Confined to bed

95 (85)
16 (14)
1 (1)

74 (67)
22 (20)
3 (3)

0.008

Exercise > Control

Self‐care:
No problems
Some problems
Unable

101 (91)
6 (5)
3 (3)

100 (91)
5 (5)
5 (5)

0.8

Exercise = Control

Usual activities:
No problems
Some problems
Unable

99 (88)
11 (10)
2 (1)

80 (73)
24 (22)
6 (5)

0.004

Exercise > Control

Dorje 2019

SF‐12 at 6 months' follow‐up:

Physical health score

46.8 (6.9)

45.2 (6.5)

0.22**

Exercise = Control

Mental health score

51.5 (9.3)

50 (8.6)

0.28**

Exercise = Control

Engblom 1992

Nottingham Health Profile at 5 years' follow‐up:

Energy

18

25

0.08

Exercise = Control

Pain

12

18

0.07

Exercise = Control

Emotional reactions

14

21

0.27

Exercise = Control

Sleep

24

29

0.42

Exercise = Control

Social isolation

7

9

0.42

Exercise = Control

Physical mobility

6

14

0.005

Exercise > Control

Hassan 2016

SF‐36 8 domains at 12 months' follow‐up

Physical functioning

83.5 (6.5)

76.7 (10.6)

0.01

Exercise > Control

Role limitations physical

62.5 (23.4)

50.8 (20.2)

0.04

Exercise > Control

Role limitations emotional

61.1 (21.6)

49.9 (19.1)

0.04

Exercise > Control

Energy/fatigue

66 (11.1)

57.7 (11.7)

0.01

Exercise > Control

Emotional well being

69.5 (2.6)

61.5 (7.5)

0.000

Exercise > Control

Social functioning

67.5 (19)

56.3 (16.3)

0.02

Exercise > Control

Pain

79.6 (18.4)

67.9 (15.9)

0.01

Exercise > Control

General health

43 (7.9)

38.5 (8.8)

0.04

Exercise > Control

Hautala 2017

15D Quality of life measure at 6 months' follow‐up:

 

0.915 (0.07)

0.876 (0.084)

0.0004*

Exercise > Control

15D Quality of life measure at 12 months' follow‐up:

 

0.922 (0.072)

0.886 (0.088)

< 0.0015*

Exercise > Control

He 2020

SF‐36 at 12 months:

Physical functioning

85 (22)

74 (19)

< 0.01

Exercise > Control

Role‐physical

80 (21)

77 (22)

0.362

Exercise = Control

Bodily pain

71 (32)

68 (30)

0.348

Exercise = Control

General health

79 (23)

72 (19)

< 0.01

Exercise > Control

Vitality

81 (17)

73 (25)

< 0.01

Exercise > Control

Social functioning

75 (22)

74 (19)

0.902

Exercise = Control

Role‐emotional

65 (34)

65 (33)

0.976

Exercise = Control

Mental health

72 (23)

71 (23)

0.825

Exercise = Control

Physical health score

79 (29)

73 (29)

< 0.01

Exercise > Control

Mental health score

73 (28)

71 (27)

0.102

Exercise = Control

Heller 1993

QLMI at 6 months' follow‐up:

Emotional

5.4 (1.1)

5.2 (1.2)

0.04

Exercise > Control

Physical

5.4 (1.2)

5.2 (1.3)

0.17*

Exercise = Control

Social

5.9 (1.1)

5.8 (1.1)

0.35*

Exercise = Control

Hofman‐Bang 1999

AP‐QLQ at 12 months' follow‐up:

Physical activity

4.9

4.3

< 0.05

Exercise > Control

Somatic symptoms

NR

NR

NS

Exercise = Control

Emotional distress

NR

NR

NS

Exercise = Control

Life satisfaction

NR

NR

NS

Exercise = Control

Houle 2012

Quality of Life Index ‐ cardiac version III at 6 months' follow‐up:

Health and functional score

26 (5.1)

24.5 (5.3)

0.048

Exercise > Control

Psychological/spiritual score

25.6 (5.8)

25.5 (3.8)

0.383

Exercise = Control

Social and economic score

25.7 (3.8)

25.4 (4.7)

0.392

Exercise = Control

Family score

28.1 (2.5)

26.7 (4.3)

0.048

Exercise > Control

Overall

26.2 (4.3)

25.8 (4.1)

0.057

Exercise = Control

Quality of Life Index ‐ cardiac version III at 12 months' follow‐up:

Health and functional score

27.8 (2.0)

25.3 (4.6)

0.036

Exercise > Control

Psychological/spiritual score

27.4 (2.5)

26.2 (4.0)

0.336

Exercise = Control

Social and economic score

27.2 (3.0)

25.9 (5.2)

0.638

Exercise = Control

Family score

28 (2.6)

26.8 (5.0)

0.092

Exercise = Control

Overall

27.7 (2.1)

25.7 (4.2)

0.048

Exercise > Control

Ma 2020

SF‐12 change at 12 months' follow‐up:

 

Δ (SD)

Δ (SD)

 

 

Physical component

13.3 (6)

9.9 (5.9)

< 0.001

Exercise > Control

Mental component

12.4 (5.4)

9 (6.2)

< 0.001

Exercise > Control

Maddison 2014

EQ‐5D at 24 weeks' follow‐up:

 

0.86

0.83

0.23

Exercise = Control

SF‐36 at 24 weeks' follow‐up:

 

 

 

Physical functioning

52.9

51.9

0.20

Exercise = Control

Role physical

52.6

50.8

0.08

Exercise = Control

Bodily pain

52.4

51.9

0.71

Exercise = Control

General health

55.3

53.2

0.03

Exercise > Control

Vitality

55.7

55.9

0.79

Exercise = Control

Social Functioning

53.3

52.4

0.42

Exercise = Control

Role emotional

51.4

51.6

0.81

Exercise = Control

Mental health

54.6

54.0

0.61

Exercise = Control

Mutwalli 2012

SF‐36 Health status score at 6 months' follow‐up:

 

90.14 (4.83)

60.55 (16.21)

0.000

Exercise > Control

Oerkild 2012

SF‐36 at 12 months' follow‐up:

 

Δ (95% CI)

Δ (95% CI)

 

 

SF 12 PCS

‐1.1 (‐5.3 to 3.1)

‐1.4 (‐5.2 to 2.3)

NS*

Exercise = Control

SF 12 MCS

‐1.4 (‐6.1 to 3.3)

‐0.3 (‐4.6 to 4.0)

NS*

Exercise = Control

Oldridge 1991

QLMI at 4 months' follow‐up:

Limitations

54

54

NS

Exercise = Control

Emotions

103

101

NS

Exercise = Control

QLMI at 8 months' follow‐up:

Limitations

54

54

NS

Exercise = Control

Emotions

103

103

NS

Exercise = Control

QLMI at 12 months' follow‐up:

Limitations

54

55

NS

Exercise = Control

Emotions

105

102

NS

Exercise = Control

Reid 2012

MacNew at 6 months' follow‐up:

Global score

5.8 (0.6)

5.6 (0.8)

0.112

Exercise = Control

Emotional subscale

5.6 (0.6)

5.4 (0.7)

0.038

Exercise > Control

Social subscale

6.3 (0.8)

6.0 (1.0)

0.162

Exercise = Control

Physical subscale

6.0 (0.8)

5.8 (1.0)

0.031

Exercise > Control

Sandstrom 2005

Time Trade Off (TTO) at 12 months' follow‐up:

 

0.86 (0.23)

0.85 (0.21)

NS*

Exercise = Control

EuroQol Part one at 12 months' follow‐up:

 

0.87 (0.15)

0.86 (0.16)

NS*

Exercise = Control

EuroQol Part two at 12 months' follow‐up:

 

 

 

7.6 (1.46)

7.43 (1.46)

NS*

Exercise = Control

Santaularia 2017

EuroQol‐5D at 12 months' follow‐up:

 

N (%)

N(%)

 

 

Mobility
No problems
Problems

33 (84.6)
6 (15.4)

33 (75)
11 (25)

0.019

Exercise > Control

Self‐care
No problems
Problems

38 (97.4)
1 (2.6)

43 (97.7)
1 (2.3)

0.172

Exercise = Control

Usual activities
No problems
Problems

32 (82)
7 (18)

31 (70.5)
13 (29.5)

0.803

Exercise = Control

Pain/discomfort
No problems
Problems

28 (71.8)
11 (28.2)

26 (59.1)
18 (40.9)

0.528

Exercise = Control

Anxiety/depression
No problems
Problems

22 (56.4)
17 (43.6)

26 (59.1)
18 (40.9)

0.429

Exercise = Control

Snoek 2020

SF‐36 summary scores at 6 months:

Physical

50.2 (7.2)

48.3 (7.5)

0.086*

Exercise = Control

Mental

54.0 (8.4)

52.7 (9.1)

0.322*

Exercise = Control

SF‐36 summary scores at 12 months:

Physical

50.6 (7.2)

49 (8.2)

0.167*

Exercise = Control

Mental

53.2 (8.8)

52.5 (9.2)

0.604*

Exercise = Control

Stahle 1999

Karolinska Questionnaire at 12 months' follow‐up:

Chest pain

0.6 (1.2)

0.4 (1.3)

NS

Exercise = Control

Shortness of breath

0.4 (1.1)

0.2 (1.0)

NS

Exercise = Control

Dizziness

‐0.1 (1.1)

0.2 (0.9)

NS

Exercise = Control

Palpitation

‐0.1 (1.0)

0.1 (0.9)

NS

Exercise = Control

Cognitive ability

‐0.1 (0.6)

0.0 (0.7)

NS

Exercise = Control

Alertness

0.0 (0.9)

0.1 (0.8)

NS

Exercise = Control

Quality of sleep

0.0 (0.5)

0.1 (0.5)

NS

Exercise = Control

Physical ability

0.2 (0.7)

0.1 (0.4)

NS

Exercise = Control

Daily activity

0.3 (0.5)

0.1 (0.5)

NS

Exercise = Control

Depression

0.1 (0.3)

0.1 (0.2)

NS

Exercise = Control

Self‐perceived health

0.5 (1.3)

0.3 (1.0)

NS

Exercise = Control

"Ladder of Life" present

1.2 (1.2)

0.9 (1.8)

NS

Exercise = Control

"Ladder of Life" future

0.8 (2.7)

0.4 (2.3)

NS

Exercise = Control

Fitness

0.6 (1.4)

0.4 (1.0)

NS

Exercise = Control

Physical ability

0.7 (1.0)

0.4 (1.1)

NS

Exercise = Control

Toobert 2000

SF‐36 at 24 months' follow‐up:

Physical functioning

NR

NR

NS

Exercise = Control

Physical performance

NR

NR

NS

Exercise = Control

Bodily pain

NR

NR

NS

Exercise = Control

General health

NR

NR

< 0.05

Exercise > Control

Vitality

NR

NR

NS

Exercise = Control

Social functioning

NR

NR

< 0.05

Exercise > Control

Emotional performance

NR

NR

NS

Exercise = Control

Mental health

NR

NR

NS

Exercise = Control

Uddin 2020

WHOQoL‐BREF at 12 months' follow‐up

Overall perception of HRQoL

4.03 (0.49)

3.2 (0.82)

< 0.01

Exercise > Control

Overall perception of health

4.06 (0.4)

3.17 (0.38)

< 0.01

Exercise > Control

Physical domain

26.9 (2.88)

21.17 (3.35)

< 0.01

Exercise > Control

Psychological domain

23.42 (2.84)

17.87 (3.19)

< 0.01

Exercise > Control

Social relationship domain

11.83 (1.5)

10.75 (0.89)

< 0.01

Exercise > Control

Environmental domain

28.8 (4.24)

21.77 (5.31)

0.03

Exercise > Control

Wang 2012

SF‐36 at 6 months' follow‐up:

Physical functioning

80.8 (13.7)

73.2 (13.0)

< 0.001

Exercise > Control

Physical performance

68.2 (17.3)

56.2 (46.8)

0.015

Exercise > Control

Bodily pain

68.2 (17.3)

63.5 (14.6)

0.012

Exercise > Control

General health

57.4 (20.3)

49.0 (16.2)

0.017

Exercise > Control

Vitality

66.3 (17.3)

56.4 (21.7)

0.002

Exercise > Control

Social functioning

71.3 (21.4)

65.8 (18.0)

0.031

Exercise > Control

Emotional performance

80.8 (37.9)

75.9 (39.7)

0.12

Exercise = Control

Mental health

73.5 (17.1)

65.4 (20.7)

0.011

Exercise > Control

MIDAS at 6 months' follow‐up:

Physical Activity

37.7 (11.2)

42.6 (12.3)

< 0.001

Exercise > Control

Insecurity

28.7 (9.7)

33.4 (13.8)

< 0.001

Exercise > Control

Emotional reaction

30.4 (12.8)

34.8 (14.4)

0.008

Exercise > Control

Dependency

27.6 (9.4)

31.8 (16.6)

0.001

Exercise > Control

Diet

36.8 (15.4)

43.6 (20.7)

0.40

Exercise = Control

Concerns over meds

29.4 (12.6)

37.7 (18.0)

<0.001

Exercise > Control

Side Effects

28.2 (11.1)

30.8 (14.3)

0.30

Exercise > Control

West 2012

SF‐36 at 12 months' follow‐up:

Physical function

65 (29)

64 (30)

NS*

Exercise = Control

Role physical

69 (31)

67 (33)

NS*

Exercise = Control

Role emotional

85 (23)

85 (25)

NS*

Exercise = Control

Social function

81 (28)

79 (29)

NS*

Exercise = Control

Mental health

76 (13)

76 (13)

NS*

Exercise = Control

Energy /vitality

65 (24)

65 (24)

NS*

Exercise = Control

Pain

69 (28)

68 (29)

NS*

Exercise = Control

Health Perception

58 (25)

57 (25)

NS*

Exercise = Control

Yu 2003

SF‐36 at 8 months' follow‐up:

Physical functioning

88 (12)

82 (17)

0.03*

Exercise > Control

Physical performance

75 (33)

66 (35)

0.18*

Exercise = Control

Bodily pain

80 (25)

80 (25)

1.00*

Exercise = Control

General health

64 (26)

60 (28)

0.45*

Exercise = Control

Vitality

79 (18)

65 (17)

0.0001

Exercise > Control

Social functioning

89 (27)

82 (28)

0.15

Exercise = Control

Emotional performance

93 (18)

83 (35)

0.05

Exercise = Control

Mental health

84 (16)

80 (15)

0.2

Exercise = Control

SF‐36 at 24 months' follow‐up:

Physical functioning

88 (13)

87 (9)

0.67*

Exercise = Control

Physical performance

80 (32)

79 (30)

0.87*

Exercise = Control

Bodily pain

81 (21)

85 (20)

0.33*

Exercise = Control

General health

64 (20)

61 (18)

0.43*

Exercise = Control

Vitality

73 (21)

73 (17)

1.00*

Exercise = Control

Social functioning

79 (30)

90 (18)

0.04*

Exercise > Control

Emotional performance

89 (25)

93 (25)

0.42*

Exercise = Control

Mental health

85 (14)

85 (12)

1.00*

Exercise = Control

Zwisler 2008

SF‐36 at 12 months' follow‐up:

Physical Component Score

45.2 (9.8)

46.4 (9.8)

0.39*

Exercise = Control

Mental Component Score

50.6 (10.8)

48.4 (11.5)

0.16*

Exercise = Control

AP‐QLQ: Angina Pectoris‐Quality of Life questionnaire
BMI: body mass index
EQ‐5D: five‐dimension EuroQol scale
EuroQoL: European Quality of Life Scale
IQR: interquartile range
MIDAS: Myocardial Infarction Dimensional Assessment Scale
NR: not reported
NS: not significant
QLMI: Quality of Life After Myocardial Infarction questionnaire
SD: standard deviation
SF‐36: Short Form 36‐item questionnaire
WHOQoL‐BREF: World Health Organization Quality of Life abbreviated instrument
* Calculated by authors of this report based on independent two group t test.
** Adjusted for baseline difference between groups.
Exercise = Control: no statistically significant difference (P > 0.05) between exercise and Control groups at follow up
Exercise > Control: statistically significant difference (P < 0.05) between exercise and Control groups at follow up
NS*: The authors of this review have inferred a P value of > 0.05 based either on the 95% CI, or from narrative in the paper, rather than from directly observing the P‐value.

Figuras y tablas -
Table 1. Summary of health‐related quality of life (HRQoL) scores at follow‐up
Table 2. Summary of costs of exercise‐based rehabilitation and usual care

Author/

year

Briffa 2005

Hambrecht 2004

Hautala 2017

Kovoor 2006/Hall 2002

Maddison 2014

Marchionni 2003

Oldridge 1991/93

Yu 2004

Follow‐up (months)

12

12

12

12

6

14

12

24

Year of costs (currency)

1998 (Australian dollars ‐ AUD)

NR (US dollars ‐ USD)

NR (euros ‐ EUR)

1999 (Australian dollars ‐ AUD)

NR (euros ‐ EUR)

2000 (US dollars ‐ USD)

1991 (US dollars ‐ USD)

2003 (US dollars ‐ USD)

Cost of rehabilitation

Mean cost/patient

AUD 694

NR

EUR 299

AUD 394

EUR 127

USD 5246

USD 670

NR

Costs considered

Details of costed elements not provided

NR

Estimated according to the average monthly fees in Finnish gyms where individual guidance in exercise training is led by a health care professional

staff, assessments, counselling, education, patient travel

NR

NR

space, equipment, staff, literature resources, operating costs, parking, patients costs

NR

Total healthcare costs

Rehabilitation mean cost/patient

AUD 4937

USD 3708 ± 156

EUR 1944

NR

NR

USD 17,272

NR

USD 15,292

Usual care mean cost/patient

AUD 4541

USD 6086 ± 370

EUR 3027

NR

NR

USD 12,433

NR

USD 15,707

Absolute difference in mean cost/patient*

AUD 395

USD ‐2378

EUR ‐1083

NR

NR

USD 4839

USD 480

USD ‐415

P value for cost difference

0.74

P < 0.001

NR

P > 0.05 (see below)

NR

NR

NR

P > 0.05

Additional healthcare costs considered

Hospitalisations, pharmaceuticals, tests, consultations, rehabilitation, patient expenses, ambulance

Rehospitalisations, revascularisation, cycle ergometers, training facilities, and supervising staff

Primary health care costs, secondary health care costs, occupational health care service costs

Phone calls (P = 0.10); hospital admissions (P = 0.11); gated heart pool scan (P = 0.50); exercise stress test (P = 0.72); other diagnostics (P = 0.37); visits to general practitioner (P = 0.61), specialist doctor (P = 0.35), or health‐care professional (P = 0.31)

NR

NR

Service utilisation, physician costs, emergency costs, in‐patient days, allied health, other rehabilitation visits

Hospitalisations; revascularisations; private clinic visit; cardiac clinic visits; public non‐cardiac visits; casualty visits; drugs

Cost‐effectiveness

Rehabilitation mean health care benefits

Utility‐based quality of life –
heart questionnaire: 0.026 (95% CI 0.013 to 0.039)

NR

Average change in 15D utility: 0.013

NR

NR

NR

NR

NR

Usual care mean health care benefit

Utility 0.010 (95% CI ‐0.001 to 0.022)

NR

Average change in 15D utility: ‐0.012

NR

NR

NR

NR

NR

Incremental mean health care benefit

Utility 0.013 (95% CI, NR) P = 0.38; +0.009 QALYs

NR

0.045 QALYs (0.023‐0.077)

NR

NR

NR

0.052 QALYs (95% CI, 0.007 to 0.1)

0.06 QALYs

Incremental cost effectiveness ratio/patient

AUD +42,535 per QALY. Extensive sensitivity analyses reported.

NR

EUR ‐24,511 per QALY

NR

EUR +15,247 per QALY

NR

USD +9200 per QALY

USD ‐650 per QALY

NR: not reported
QALY: quality‐adjusted life year

* The currency for Hambrecht 2004 is not reported, but healthcare costs are reported within the paper with $

Figuras y tablas -
Table 2. Summary of costs of exercise‐based rehabilitation and usual care
Table 3. Results for univariate meta‐regression for all‐cause mortality

Explanatory variable (n trials)

Exp (slope)*

95% confidence interval,
P value

Proportion of variance explained

(adjusted R2)

Interpretation

Case mix (% MI patients) (n = 46)

RR = 1.00

1.00 to 1.00, P = 0.15

56.1%

No evidence that risk ratio is associated with case mix

Dose of exercise (number of weeks of exercise training x average number of sessions/week x average min/session) (n = 33)

RR = 1.00

1.00 to 1.00, P = 0.11

 

 

100%

No evidence that risk ratio is associated with type of CR

Duration of follow‐up (months) (n = 47)

RR = 1.00

1.00 to 1.00, P = 0.07

100%

No evidence that risk ratio is associated with length of follow‐up

Type of CR (exercise only vs comprehensive CR) (n = 47)

RR = 1.04

0.84 to 1.31, P = 0.70

‐27.1%

No evidence that risk ratio is associated with type of CR

Year of publication (pre‐1995 vs post‐1995) (n = 47)

RR = 0.84

0.70 to 0.99, P = 0.04

100%

No evidence that risk ratio is associated with publication year

CR setting (n = 47)

RR = 0.95

0.82 to 1.24, P = 0.95

‐11.3%

No evidence that risk ratio is associated with type of CR

Risk of bias (low risk in ≤ 3 items vs > 3 items) (n = 47)

RR = 1.02

0.94 to 1.09, P = 0.67

‐68.55%

No evidence that risk ratio is associated with risk of bias

Study location (continent ‐ Europe, North America, Australia/Asia or Other) (n = 47)

RR = 1.01

0.86 to 1.19, P = 0.93

‐41.24%

No evidence that risk ratio is associated with study location

Low‐ and middle‐income country (LMIC) vs high‐income country (n = 47)

RR = 1.02

0.70 to 1.48, P = 0.93

‐45.10%

No evidence that risk ratio is associated with LMIC

Sample size (≤ 150 vs > 150) (n = 47)

RR = 1.19

0.73 to 1.93, P = 0.47

16.07%

No evidence that risk ratio is associated with study sample size

Figuras y tablas -
Table 3. Results for univariate meta‐regression for all‐cause mortality
Table 4. Results of univariate meta‐regression analysis for cardiovascular mortality

Explanatory variable (n trials)

Exp (slope)*

95% confidence interval,
Pvalue

Proportion of variance explained

(adjusted R2)

Interpretation

Case mix (% MI patients) (n = 27)

RR = 1.00

0.99 to 1.01, P = 0.76

‐8.74%

No evidence that risk ratio is associated with case mix

Dose of exercise (number of weeks of exercise training x average number of sessions/week x average min/session) (n = 22)

RR = 1.00

1.00 to 1.00, P = 0.62

0%

No evidence that risk ratio is associated with dose of exercise

Duration of follow‐up (months) (n = 28)

RR = 0.99

0.99 to 1.00, P = 0.05

90.36%

No evidence that risk ratio is associated with length of follow‐up

Type of CR (exercise only vs comprehensive CR) (n = 28)

RR = 0.83

0.62 to 1.10, P = 0.18

75.69%

No evidence that risk ratio is associated with type of CR

Year of publication (pre‐1995 vs post‐1995) (n = 28)

RR = 1.37

0.89 to 2.13, P = 0.15

63.31%

No evidence that risk ratio is associated with publication year

Setting (centre vs home) (n = 28)

RR = 1.05

0.88 to 1.24, P = 0.61

‐29.66%

No evidence that risk ratio is associated with setting of CR

Risk of bias (low risk in ≤ 3 items vs > 3 items) (n = 28)

RR = 0.90

0.73 to 1.11, P = 0.30

85.73%

No evidence that risk ratio is associated with risk of bias

Study location (continent ‐ Europe, North America, Australia/Asia or Other) (n = 28)

RR = 1.02

0.75 to 1.39, P = 0.89

‐41.75%

No evidence that risk ratio is associated with study location

Low‐ and middle‐income country (LMIC) vs high‐income country (n = 28)

RR = 0.69

0.22 to 2.19, P = 0.52

9.36%

No evidence that risk ratio is associated with LMIC

Sample size (≤ 150 vs > 150) (n = 28)

RR = 1.28

0.69 to 2.37, P = 0.42

28.43%

No evidence that risk ratio is associated with study sample size

Figuras y tablas -
Table 4. Results of univariate meta‐regression analysis for cardiovascular mortality
Table 5. Results of univariate meta‐regression analysis for fatal and/or non‐fatal MI

Explanatory variable (n trials)

Exp (slope)*

95% confidence interval,
Pvalue

Proportion of variance explained

(adjusted R2)

Interpretation

Case mix (% MI patients) (n = 41)

RR = 1.00

0.99 to 1.01, P = 0.93

‐4.57%

No evidence that risk ratio is associated with case mix

Dose of exercise (number of weeks of exercise training x average number of sessions/week x average min/session) (n = 33)

RR = 1.00

1.00 to 1.00, P = 0.68

0%

No evidence that risk ratio is associated with dose of exercise

Duration of follow‐up (months) (n = 41)

RR = 1.00

0.99 to 1.01, P = 0.97

‐12.45%

No evidence that risk ratio is associated with length of follow‐up

Type of CR (exercise only vs comprehensive CR) (n = 41)

RR = 0.85

0.58 to 1.25, P = 0.39

9.68%

No evidence that risk ratio is associated with type of CR

Year of publication (pre‐1995 vs post‐1995) (n = 41)

RR = 1.36

0.94 to 1.97, P = 0.11

25.40%

No evidence that risk ratio is associated with publication year

Setting (centre vs home) (n = 39)

RR = 0.80

0.67 to 0.95, P = 0.01

67.62%

No evidence that risk ratio is associated with setting of CR

Risk of bias (low risk in ≤ 3 items vs > 3 items) (n = 41)

RR=1.39

0.85 to 2.26, P = 0.18

‐16.70%

No evidence that risk ratio is associated with risk of bias

Study location (continent ‐ Europe, North America, Australia/Asia or Other) (n = 41)

RR = 0.71

0.49 to 1.05, P = 0.09

12.94%

No evidence that risk ratio is associated with study location

Low‐ and middle‐income country (LMIC) vs high income country (n = 41)

RR = 0.65

0.33 to 1.61, P = 0.20

0.86%

No evidence that risk ratio is associated with LMIC

Sample size (≤ 150 vs > 150) (n = 41)

RR = 1.69

1.05 to 2.72, P = 0.03

54.95%

No evidence that risk ratio is associated with study sample size

Figuras y tablas -
Table 5. Results of univariate meta‐regression analysis for fatal and/or non‐fatal MI
Table 6. Results of univariate meta‐regression analysis for CABG

Explanatory variable (n trials)

Exp (slope)*

95% confidence interval,
P value

Proportion of variance explained

(adjusted R2)

Interpretation

Case mix (% MI patients) (n = 31)

RR = 1.01

1.00 to 1.02, P = 0.05

0%

No evidence that risk ratio is associated with case mix

Dose of exercise (number of weeks of exercise training x average number of sessions/week x average min/session) (n = 25)

RR = 1.00

1.00 to 1.00, P = 0.78

0%

No evidence that risk ratio is associated with dose of exercise

Duration of follow‐up (months) (n = 31)

RR = 1.00

0.99 to 1.01, P = 0.75

0%

No evidence that risk ratio is associated with length of follow‐up

Type of CR (exercise only vs comprehensive CR) (n = 31)

RR = 1.04

0.67 to 1.61, P = 0.86

0%

No evidence that risk ratio is associated with type of CR

Year of publication (pre‐1995 vs post‐1995) (n = 31)

RR = 0.88

0.56 to 1.41, P = 0.59

0%

No evidence that risk ratio is associated with publication year

Setting (centre vs home) (n = 31)

RR = 1.07

0.87 to 1.33, P = 0.51

0%

No evidence that risk ratio is associated with setting of CR

Risk of bias (low risk in ≤ 3 items vs > 3 items) (n = 31)

RR = 0.94

0.64 to 1.38, P = 0.73

0%

No evidence that risk ratio is associated with risk of bias

Study location (continent ‐ Europe, North America, Australia/Asia or Other) (n = 31)

RR = 1.19

0.83 to 1.71, P = 0.34

0%

No evidence that risk ratio is associated with study location

Low‐ and middle‐income country (LMIC) vs high income country (n = 31)

RR = 0.51

0.08 to 3.18, P = 0.46

0%

No evidence that risk ratio is associated with LMIC

Sample size (≤ 150 vs > 150) (n = 31)

RR = 1.31

0.82 to 2.09, P = 0.25

0%

No evidence that risk ratio is associated with study sample size

Figuras y tablas -
Table 6. Results of univariate meta‐regression analysis for CABG
Table 7. Results of univariate meta‐regression for PCI

Explanatory variable (n trials)

Exp (slope)*

95% confidence interval,
P value

Proportion of variance explained

(adjusted R2)

Interpretation

Case mix (% MI patients) (n = 18)

RR = 1.00

1.00 to 1.01, P = 0.50

0%

No evidence that risk ratio is associated with case mix

Dose of exercise (number of weeks of exercise training x average number of sessions/week x average min/session) (n = 16)

RR = 1.00

1.00 to 1.00, P = 0.50

0%

No evidence that risk ratio is associated with dose of exercise

Duration of follow‐up (months) (n = 18)

RR = 1.00

0.99 to 1.01, P = 0.82

0%

No evidence that risk ratio is associated with length of follow‐up

Type of CR (exercise only vs comprehensive CR) (n = 18)

RR = 0.78

0.38 to 1.59, P = 0.47

0%

No evidence that risk ratio is associated with type of CR

Year of publication (pre‐1995 vs post‐1995) (n = 18)

RR = 0.95

0.46 to 1.95, P = 0.87

0%

No evidence that risk ratio is associated with publication year

Setting (centre vs home) (n = 18)

RR = 0.91

0.72 to 1.15, P = 0.41

0%

No evidence that risk ratio is associated with setting of CR

Risk of bias (low risk in ≤ 3 items vs > 3 items) (n = 18)

RR = 1.09

0.72 to 1.66, P = 0.67

0%

No evidence that risk ratio is associated with risk of bias

Study location (continent ‐ Europe, North America, Australia/Asia or Other) (n = 18)

RR = 0.81

0.53 to 1.23, P = 0.30

0%

No evidence that risk ratio is associated with study location

Low‐ and middle‐income country (LMIC) vs high income country (n = 18)

RR = 0.29

0.05 to 1.63, P = 0.15

0%

No evidence that risk ratio is associated with LMIC

Sample size (≤ 150 vs > 150) (n = 18)

RR = 1.19

0.70 to 2.01, P = 0.49

0%

No evidence that risk ratio is associated with study sample size

Figuras y tablas -
Table 7. Results of univariate meta‐regression for PCI
Table 8. Results of univariate meta‐regression for all‐cause hospitalisation

Explanatory variable (n trials)

Exp (slope)*

95% confidence interval,
P value

Proportion of variance explained

(adjusted R2)

Interpretation

Case mix (% MI patients) (n = 23)

RR = 1.00

1.00 to 1.01, P = 0.71

‐20.91%

No evidence that risk ratio is associated with case mix

Dose of exercise (number of weeks of exercise training x average number of sessions/week x average min/session) (n = 19)

RR = 1.00

1.00 to 1.00, P = 0.44

‐69.78%

No evidence that risk ratio is associated with dose of exercise

Duration of follow‐up (months) (n = 23)

RR = 1.01

1.00 to 1.01, P = 0.07

56.52%

No evidence that risk ratio is associated with length of follow‐up

Type of CR (exercise only vs comprehensive CR) (n = 23)

RR = 0.93

0.65 to 1.33, P = 0.70

‐50.20%

No evidence that risk ratio is associated with type of CR

Year of publication (pre‐1995 vs post‐1995) (n = 23)

RR = 1.12

0.80 to 1.57, P = 0.48

‐32.69%

No evidence that risk ratio is associated with publication year

Setting (centre vs home) (n = 23)

RR = 0.94

0.83 to 1.06, P = 0.28

‐36.70%

No evidence that risk ratio is associated with setting of CR

Risk of bias (low risk in ≤ 3 items vs > 3 items) (n = 23)

RR = 1.00

0.71 to 1.40, P = 0.99

‐44.14%

No evidence that risk ratio is associated with risk of bias

Study location (continent ‐ Europe, North America, Australia/Asia or Other) (n = 23)

RR = 0.86

0.69 to 1.08, P = 0.18

‐137.18%

No evidence that risk ratio is associated with study location

Low‐ and middle‐income country (LMIC) vs high income country (n = 23)

RR = 1.06

0.72 to 1.55, P = 0.76

‐49.12%

No evidence that risk ratio is associated with LMIC

Sample size (≤ 150 vs > 150) (n = 19)

RR = 1.45

1.08 to 1.96, P = 0.02

100%

No evidence that risk ratio is associated with study sample size

Figuras y tablas -
Table 8. Results of univariate meta‐regression for all‐cause hospitalisation
Comparison 1. Exercise‐based rehabilitation versus control

Outcome or subgroup title

No. of studies

No. of participants

Statistical method

Effect size

1.1 All‐cause mortality Show forest plot

47

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

1.1.1 Follow‐up of 6 to 12 months

25

8823

Risk Ratio (M‐H, Random, 95% CI)

0.87 [0.73, 1.04]

1.1.2 Follow‐up of > 12 to 36 months

16

11073

Risk Ratio (M‐H, Random, 95% CI)

0.90 [0.80, 1.02]

1.1.3 Follow‐up longer than 3 years

11

3828

Risk Ratio (M‐H, Random, 95% CI)

0.91 [0.75, 1.10]

1.2 Cardiovascular mortality Show forest plot

26

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

1.2.1 Follow‐up of 6 to 12 months

15

5360

Risk Ratio (M‐H, Random, 95% CI)

0.88 [0.68, 1.14]

1.2.2 Follow‐up of > 12 months to 36 months

5

3614

Risk Ratio (M‐H, Random, 95% CI)

0.77 [0.63, 0.93]

1.2.3 Follow‐up of longer than 3 years

8

1392

Risk Ratio (M‐H, Random, 95% CI)

0.58 [0.43, 0.78]

1.3 Fatal and/or nonfatal MI Show forest plot

39

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

1.3.1 Follow‐up of 6 to 12 months

22

7423

Risk Ratio (M‐H, Random, 95% CI)

0.72 [0.55, 0.93]

1.3.2 Follow‐up of > 12 to 36 months

12

9565

Risk Ratio (M‐H, Random, 95% CI)

1.07 [0.91, 1.27]

1.3.3 Follow‐up of longer than 3 years

10

1560

Risk Ratio (M‐H, Random, 95% CI)

0.67 [0.50, 0.90]

1.4 CABG Show forest plot

29

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

1.4.1 Follow‐up of 6 to 12 months

20

4473

Risk Ratio (M‐H, Random, 95% CI)

0.99 [0.78, 1.27]

1.4.2 Follow‐up of > 12 to 36 months

9

2826

Risk Ratio (M‐H, Random, 95% CI)

0.97 [0.77, 1.23]

1.4.3 Follow‐up of longer than 3 years

4

675

Risk Ratio (M‐H, Random, 95% CI)

0.66 [0.34, 1.27]

1.5 PCI Show forest plot

18

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

1.5.1 Follow‐up of 6 to 12 months

13

3465

Risk Ratio (M‐H, Random, 95% CI)

0.86 [0.63, 1.19]

1.5.2 Follow‐up of > 12 to 36 months

6

1983

Risk Ratio (M‐H, Random, 95% CI)

0.96 [0.69, 1.35]

1.5.3 Follow‐up of longer than 3 years

3

567

Risk Ratio (M‐H, Random, 95% CI)

0.76 [0.48, 1.20]

1.6 All‐cause hospital admissions Show forest plot

22

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

1.6.1 Follow‐up of 6 to 12 months

14

2030

Risk Ratio (M‐H, Random, 95% CI)

0.58 [0.43, 0.77]

1.6.2 Follow‐up of > 12 to 36 months

9

5995

Risk Ratio (M‐H, Random, 95% CI)

0.92 [0.82, 1.03]

1.7 Cardiovascular hospital admissions Show forest plot

8

Risk Ratio (M‐H, Random, 95% CI)

Subtotals only

1.7.1 Follow‐up of 6 to 12 months

6

1087

Risk Ratio (M‐H, Random, 95% CI)

0.80 [0.41, 1.59]

1.7.2 Follow up of >12 to 36 months

3

943

Risk Ratio (M‐H, Random, 95% CI)

0.92 [0.76, 1.12]

1.8 HRQoL SF‐36 summary scores at 6 to 12 months follow up Show forest plot

6

Mean Difference (IV, Random, 95% CI)

Subtotals only

1.8.1 Physical component score

6

1741

Mean Difference (IV, Random, 95% CI)

1.70 [‐0.08, 3.47]

1.8.2 Mental component score

6

1741

Mean Difference (IV, Random, 95% CI)

2.14 [1.07, 3.22]

1.9 HRQoL SF‐36 8 domains at 6 to 12 months follow up Show forest plot

8

Mean Difference (IV, Random, 95% CI)

Subtotals only

1.9.1 Physical functioning

8

2756

Mean Difference (IV, Random, 95% CI)

8.47 [3.69, 13.24]

1.9.2 Physical performance

8

2756

Mean Difference (IV, Random, 95% CI)

8.08 [2.89, 13.27]

1.9.3 Bodily pain

8

2756

Mean Difference (IV, Random, 95% CI)

‐0.06 [‐8.97, 8.84]

1.9.4 General health

8

2756

Mean Difference (IV, Random, 95% CI)

5.66 [2.08, 9.25]

1.9.5 Vitality

7

2638

Mean Difference (IV, Random, 95% CI)

5.78 [1.89, 9.67]

1.9.6 Social functioning

8

2756

Mean Difference (IV, Random, 95% CI)

1.98 [0.26, 3.70]

1.9.7 Emotional performance

7

2638

Mean Difference (IV, Random, 95% CI)

0.69 [‐1.33, 2.71]

1.9.8 Mental health

8

2756

Mean Difference (IV, Random, 95% CI)

5.60 [1.21, 9.98]

1.10 HRQoL EQ‐5D at 6 to 12 months follow up Show forest plot

3

476

Mean Difference (IV, Random, 95% CI)

0.05 [‐0.01, 0.10]

Figuras y tablas -
Comparison 1. Exercise‐based rehabilitation versus control