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Entrenamiento asistido por aparatos electromecánicos para caminar después de un accidente cerebrovascular

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Referencias

Aschbacher 2006 {unpublished data only}

Aschbacher B. Comparing gait training in patients after stroke with task oriented physiotherapy or robot‐assisted treadmill training: a feasibility study. Unpublished2006. CENTRAL

Bang 2016 {published data only}

Bang DH, Shin WS. Effects of robot‐assisted gait training on spatiotemporal gait parameters and balance in patients with chronic stroke: a randomized controlled pilot trial. NeuroRehabilitation 2016;38:343‐9. CENTRAL

Brincks 2011 {published data only}

Brincks J. The order of gait training, including Lokomat® and Physiotherapy, does not influence gait symmetry in subacute ambulatory persons with stroke. Physiotherapy, Supplement S1, 16th World Congress of Physical Therapy, 2011 June 20‐23 , Amsterdam. World Confederation of Physical Therapy, 2011; Vol. 97. [Number: RR‐PO‐208‐17‐Tue]CENTRAL

Buesing 2015 {published data only}

Buesing C, Fisch G, O'Donnell M, Shahidi I, Thomas L, Mummidisetty CK, et al. Effects of a wearable exoskeleton stride management assist system (SMA) on spatiotemporal gait characteristics in individuals after stroke: a randomized controlled trial. Journal of NeuroEngineering and Rehabilitation2015; Vol. 12, issue 69. CENTRAL

Chang 2012 {published data only}

Chang WH, Kim MS, Huh JP, Lee PK, Kim YH. Effects of robot‐assisted gait training on cardiopulmonary fitness in subacute stroke patients: a randomized controlled study. Neurorehabilitation and Neural Repair 2012;26(4):318–24. CENTRAL
Kim M, Kim YH, Lee PKW, Hyong MK, Jung PH. Effect of robot‐assisted gait therapy on cardiopulmonary fitness in subacute stroke patients. Neurorehabilitation and Neural Repair 2008;22:594. CENTRAL

Cho 2015 {published data only}

Cho DY, Park SW, Lee MJ, Park DS, Kim EJ. Effects of robot‐assisted gait training on the balance and gait of chronic stroke patients: focus on dependent ambulators. Journal of Physical Therapy Science 2015;27(10):3053‐7. [0915‐5287]CENTRAL

Chua 2016 {published data only}

Chua J, Culpan J, Menon E. Efficacy of an electromechanical gait trainer poststroke in Singapore: a randomized controlled trial. Archives of Physical Medicine and Rehabilitation 2016;97:683‐90. CENTRAL

Dias 2006 {published data only}

Dias D, Laíns J, Pereira A, Nunes R, Caldas J, Amaral C, et al. Partial body weight support in chronic hemiplegics: a randomized control trial. Europa Medicophysica 2007;43(4):499‐504. CENTRAL

Fisher 2008 {published and unpublished data}

Fisher S. Use of autoambulator for mobility improvement in patients with central nervous system (CNS) injury or disease. Neurorehabilitation and Neural Repair 2008;22:556. CENTRAL
Fisher S, Lucas L, Thrasher TA. Robot‐assisted gait training for patients with hemiparesis due to stroke. Topics in Stroke Rehabilitation 2011;18(3):269‐76. CENTRAL

Forrester 2014 {published data only}

Forrester LW, Roy A, Krywonis A, Kehs G, Krebs HI, Macko RF. Modular ankle robotics training in early subacute stroke: a randomized controlled pilot study. Neurorehabilitation and Neural Repair2014; Vol. 28, issue 7:678‐87. [1552‐6844]CENTRAL

Geroin 2011 {published data only}

Geroin C, Picelli A, Munari D, Waldner A, Tomelleri C, Smania N. Combined transcranial direct current stimulation and robot‐assisted gait training in patients with chronic stroke: a preliminary comparison. Clinical Rehabilitation 2011;25(6):537‐48. CENTRAL

Han 2016 {published data only}

Han EY, Im SH, Kim BR, Seo MJ, Kim MO. Robot‐assisted gait training improves brachial‐ankle pulse wave velocity and peak aerobic capacity in subacute stroke patients with totally dependent ambulation: Randomized controlled trial. Medicine 2016;95:e5078. CENTRAL

Hidler 2009 {published data only (unpublished sought but not used)}

Hidler J, Nichols D, Pelliccio M, Brady K, Campbell DD, Kahn JH, et al. Multicenter randomized clinical trial evaluating the effectiveness of the Lokomat in subacute stroke. Neurorehabilitation and Neural Repair 2009;23(1):5‐13. CENTRAL

Hornby 2008 {published data only}

Hornby TG, Campbell DD, Kahn JH, Demott T, Moore JL, Roth HR. Enhanced gait‐related improvements after therapist‐ versus robotic‐assisted locomotor training in subjects with chronic stroke: a randomized controlled study. Stroke 2008;39(6):1786‐92. CENTRAL

Husemann 2007 {published data only}

Husemann B, Müller F, Krewer C, Laß A, Gille C, Heller S, et al. Effects of locomotion training with assistance of a driven gait orthosis in hemiparetic patients after stroke. Neurologie & Rehabilitation 2004;10(4):25. CENTRAL
Husemann B, Müller F, Krewer C, Laß A, Gille C, Heller S, et al. Effects of locomotion training with assistance of a robot‐driven gait orthosis in hemiparetic patients after stroke: a randomized controlled pilot study. Stroke 2007;38(2):349‐54. CENTRAL

Kim 2015 {published data only}

Kim S‐Y, Yang L, Park IJ, Kim EJ, Park MS, You SH, et al. Effects of innovative WALKBOT robotic‐assisted locomotor training on balance and gait recovery in hemiparetic stroke: a prospective, randomized, experimenter blinded case control study with a four‐week follow‐up. IEEE Transactions on Neural Systems & Rehabilitation Engineering 2015;23(4):636‐42. [1558‐0210]CENTRAL

Kyung 2008 {published and unpublished data}

Jung KH, Ha HG, Shin HJ, Ohn SH, Sung DH, Lee PKW, et al. Effects of robot‐assisted gait therapy on locomotor recovery in stroke patients. Journal of Korean Academy of Rehabilitation Medicine 2008;32:258‐66. CENTRAL
Kyung HJ, Kim YH. Effects of robot‐assisted gait therapy on locomotor recovery in stroke patients. Asia‐Oceanian Conference of Physical & Rehabilitation Medicine; 2008 May 16‐19; Nanjing, China. 2008. CENTRAL

Mayr 2008 {published and unpublished data}

Mayr A, Quirbach E, Picelli A, Kofler M, Smania N, Saltuari L. Effect of early robot‐assisted gait retraining in nonambulatory patients with stroke: a single‐blind randomized controlled trial. Unpublished2016. CENTRAL
Mayr A, Saltuari L, Quirbach E. Impact of Lokomat training on gait rehabilitation. Neurorehabilitation and Neural Repair 2008;22(5):596. CENTRAL

Morone 2011 {published and unpublished data}

Morone G, Bragoni M, Iosa M, De Angelis D, Venturiero V, Coiro P, et al. Who may benefit from robotic‐assisted gait training? A randomized clinical trial in patients with subacute stroke. Neurorehabilitation and Neural Repair 2011;25(7):636‐44. CENTRAL

Noser 2012 {published data only (unpublished sought but not used)}

NCT00975156. NCT00975156 [Improving ambulation post stroke with robotic training]. clinicaltrials.gov/show/NCT00975156 (first received: 10 September 2009). CENTRAL

Ochi 2015 {published data only}

Ochi M, Wada F, Saeki S, Hachisuka K. Gait training in subacute non‐ambulatory stroke patients using a full weight‐bearing gait‐assistance robot: a prospective, randomized, open, blinded‐endpoint trial. Journal of the Neurological Sciences2015; Vol. 353, issue 1‐2:130‐6. [1878‐5883]CENTRAL

Peurala 2005 {published data only}

Peurala S, Tarkka I, Pitkänen K, Sivenius J. The effectiveness of body weight‐supported gait training and floor walking in patients with chronic stroke. Archives of Physical Medicine and Rehabilitation 2005;86:1557‐64. CENTRAL
Peurala SH, Pitkanen K, Sivenius J, Tarkka I. Body‐weight supported gait exercise compared with floor walking in chronic stroke patients. Archives of Physical Medicine and Rehabilitation 2004;85:E7. CENTRAL
Peurala SH, Pitkanen K, Sivenius J, Tarkka IM. Body‐weight supported gait trainer exercises with or without functional electrical stimulation improves gait in patients with chronic stroke. Neurorehabilitation and Neural Repair 2006;20(1):98. CENTRAL

Peurala 2009 {published and unpublished data}

Peurala SH, Airaksinen O, Huuskonen P, Jäkälä P, Juhakoski M, Sandell K, et al. Effects of intensive therapy using Gait Trainer or floorwalking exercises early after stroke. Journal of Rehabilitation Medicine 2009;41(3):166‐73. CENTRAL

Picelli 2016 {published data only}

Picelli A, Bacciga M, Melotti C, Marchina E, Verzini E, Ferrari F, et al. Combined effects of robot‐assisted gait training and botulinum toxin type A effect on spastic equinus foot in patients with chronic stroke: a pilot, single blind, randomized controlled trial. European Journal of Physical and Rehabilitation Medicine2016; Vol. 52, issue 6:759‐766. [PUBMED: 27098300]CENTRAL

Pohl 2007 {published data only}

Pohl M, Werner C, Holzgraefe M, Kroczek G, Mehrholz J, Wingendorf I, et al. Repetitive locomotor training and physiotherapy improve walking and basic activities of daily living in subacute, non‐ambulatory stroke patients: a single‐blind, randomised multi‐centre trial (DEutsche GAngtrainerStudie, DEGAS). Clinical Rehabilitation 2007;21(1):17‐27. CENTRAL

Saltuari 2004 {published data only}

Saltuari L. Efficiency of Lokomat training in stroke patients. Neurologie & Rehabilitation 2004;10(4):S4. CENTRAL

Schwartz 2006 {unpublished data only}

Schwartz I, Katz‐Leurer M, Fisher I, Sajin A, Shochina M, Meiner Z. The effectiveness of early locomotor therapy in patients with first CVA. Collaborative Evaluation of Rehabilitation in Stroke Across Europe (CERISE) Congress; 2006 February 10‐11; Leuven, Belgium. 2006. CENTRAL

Stein 2014 {published data only}

Stein J, Bishop L, Stein DJ, Wong CK. Gait training with a robotic leg brace after stroke. American Journal of Physical Medicine & Rehabilitation 2014;93(11):987‐94. [0894‐9115]CENTRAL

Tanaka 2012 {published data only}

Tanaka N, Saitou H, Takao T, Iizuka N, Okuno J, Yano H, et al. Effects of gait rehabilitation with a footpad‐type locomotion interface in patients with chronic post‐stroke hemiparesis: a pilot study. Clinical Rehabiilation 2012;26(8):686‐95. CENTRAL

Tong 2006 {published and unpublished data}

Li LSW, Tong RYU, Ng MFW, So EFM. Effectiveness of gait trainer in stroke rehabilitation. Journal of the Neurological Sciences 2005;238(Suppl 1):S81. CENTRAL
Ng MFW, Tong RKY, Li LSW. A pilot study of randomized clinical controlled trial of gait training in subacute stroke patients with partial body‐weight support electromechanical gait trainer and functional electrical stimulation: six‐month follow‐up. Stroke 2008;39:154‐60. CENTRAL
Ng MFW, Tong RKY, So EFM, Li LSW. The therapeutic effect of electromechanical gait trainer and functional electrical stimulation for patients with acute stroke. Neurorehabilitation and Neural Repair 2006;20(1):97 (Abstract F1D‐7). CENTRAL
Tong RKY, Ng MF, Li LS. Effectiveness of gait training using an electromechanical gait trainer, with and without functional electric stimulation, in subacute stroke: a randomized controlled trial. Archives of Physical Medicine and Rehabilitation 2006;87(10):1298‐304. CENTRAL

Ucar 2014 {published data only}

Uçar DE, Paker N, Buğdaycı D. Lokomat: a therapeutic chance for patients with chronic hemiplegia. NeuroRehabilitation 2014;34(3):447‐53. [1053: 8135]CENTRAL

Van Nunen 2012 {published data only}

Van Nunen M. RCT evaluating the effectiveness of robot‐assisted treadmill training in restoring walking ability of stroke patients. 7th World Congress of Neurological Rehabilitation; 2012 May 16‐19; Melbourne, Australia. Melbourne: World Federation for Neurorehabilittaion, 2012:210. [Abstract ID: 537, Poster No. 296]CENTRAL
Van Nunen MPM, Gerrits KHL, Konijnenbelt M, Janssen TWJ, de Haan A. Recovery of walking ability using a robotic device in subacute stroke patients: a randomized controlled study. Disability & Rehabilitation: Assistive Technology 2015;10(2):141‐8. [1748‐3107]CENTRAL

Waldman 2013 {published data only}

Waldman G, Yang C‐Y, Ren Y, Liu L, Guo X, Harvey RL, et al. Effects of robot‐guided passive stretching and active movement training of ankle and mobility impairments in stroke. NeuroRehabilitation. IOS Press, 2013; Vol. 32, issue 3:625‐34. [1053‐8135]CENTRAL

Watanabe 2014 {published data only}

Watanabe H, Tanaka N, Inuta T, Saitou H, Yanagi H. Locomotion improvement using a hybrid assistive limb in recovery phase stroke patients: a randomized controlled pilot study. Archives of Physical Medicine and Rehabilitation 2014;95(11):2006‐12. [0003: 9993]CENTRAL

Werner 2002 {published data only}

Werner C, Von Frankenberg S, Treig T, Konrad M, Hesse S. Treadmill training with partial body weight support and an electromechanical gait trainer for restoration of gait in subacute stroke patients: a randomized crossover study. Stroke 2002;33(12):2895‐901. CENTRAL

Westlake 2009 {published data only}

Westlake K, Patten C. Pilot study of Lokomat versus manual‐assisted treadmill training for locomotor recovery post‐stroke. Journal of NeuroEngineering and Rehabilitation 2009;6:18. [DOI: 10.1186/1743‐0003‐6‐18]CENTRAL

Bae 2014 {published data only}

Bae Y, Ko Y, Chang W, Lee J, Lee K, Park Y, et al. Effects of robot‐assisted gait training combined with functional electrical stimulation on recovery of locomotor mobility in chronic stroke patients: a randomized controlled trial. Journal of Physical Therapy Science2014; Vol. 26, issue 12:1949‐53. [0915: 5287]CENTRAL

Byun 2011 {published data only}

Byun SD, Jung TD, Kim CH, Lee YS. Effects of the sliding rehabilitation machine on balance and gait in chronic stroke patients ‐ a controlled clinical trial. Clinical Rehabilitation 2011;25(5):408‐15. [1477‐0873: (Electronic)]CENTRAL

Caldwell 2000 {published data only}

Caldwell C, Medley A. Effects of bicycling, treadmill, and variable surfaces on gait in people following a CVA. Neurology Report 2000;24(5):203. CENTRAL

Danzl 2013 {published data only}

Danzl MM, Chelette KC, Lee K, Lykins D, Sawaki L. Brain stimulation paired with novel locomotor training with robotic gait orthosis in chronic stroke: a feasibility study. NeuroRehabilitation 2013;33(1):67‐76. [1053‐8135]CENTRAL

David 2006 {published data only}

David D, Regnaux JP, Lejaille M, Louis A, Bussel B, Lofasso F. Oxygen consumption during machine‐assisted and unassisted walking: a pilot study in hemiplegic and healthy humans. Archives of Physical Medicine and Rehabilitation 2006;87:482‐9. CENTRAL

Forrester 2016 {published data only}

Forrester LW, Roy A, Hafer‐Macko C, Krebs HI, Macko RF. Task‐specific ankle robotics gait training after stroke: a randomized pilot study. Journal of NeuroEngineering and Rehabilitation2016; Vol. 13, issue 51. CENTRAL

Gong 2003 {published data only}

Gong S, Zhang J. Effect of early rehabilitation training on daily life activity of patients with hemiplegia after stroke. Chinese Journal of Clinical Rehabilitation 2003;7(5):848‐9. CENTRAL

Goodman 2014 {published data only}

Goodman R, Rietsehel J, Roy A, Jung B, Diaz J, Macko R, et al. Increased reward in ankle robotics training enhances motor control and cortical efficiency in stroke. Journal of Rehabilitation Research and Development2014; Vol. 51, issue 2:213‐7. [0748: 7711]CENTRAL

Hesse 2001 {published data only}

Hesse S, Werner C, Uhlenbrock D, von Frankenberg S, Bardeleben A, Brandl‐Hesse B. An electromechanical gait trainer for restoration of gait in hemiparetic stroke patients: preliminary results. Neurorehabilitation and Neural Repair 2001;15:37‐48. CENTRAL

Hsieh 2014 {published data only}

Hsieh YW, Lin KC, Horng YS, Wu CY, Wu TC, Ku FL. Sequential combination of robot‐assisted therapy and constraint‐induced therapy in stroke rehabilitation: a randomized controlled trial. Journal of Neurology 2014, (5):1037‐45. CENTRAL

Mirelman 2009 {published data only}

Mirelman A, Bonato P, Deutsch JE. Effects of training with a robot‐virtual reality system compared with a robot alone on the gait of individuals after stroke. Stroke 2009;40(1):169‐74. CENTRAL

Morone 2016 {published data only}

Morone G, Annicchiarico R, Iosa M, Federici A, Paolucci S, Cortes U, et al. Overground walking training with the i‐Walker, a robotic servo‐assistive device, enhances balance in patients with subacute stroke: a randomized controlled trial. Journal of NeuroEngineering and Rehabilitation 2016;13(47). CENTRAL

NCT01337960 {published data only}

NCT01337960. Ankle robotics training after stroke. clinicaltrials.gov/show/NCT01337960 (first received 15 April 2011). CENTRAL

Page 2008 {published data only}

Page SJ, Levine P, Teepen J, Hartman EC. Resistance‐based, reciprocal upper and lower limb locomotor training in chronic stroke: a randomized, controlled crossover study. Clinical Rehabilitation 2008;22(7):610‐7. CENTRAL

Park 2015 {published data only}

Park BS, Kim MY, Lee LK, Yang SM, Lee WD, Kim J. Effects of conventional overground gait training and a gait trainer with partial body weight support on spatiotemporal gait parameters of patients after stroke. Journal of Physical Therapy Science 2015;27:1603‐7. CENTRAL

Patten 2006 {published data only}

Westlake KP, Patten C. Pilot study of Lokomat versus manual‐assisted treadmill training for locomotor recovery post‐stroke. Journal of NeuroEngineering and Rehabilitation 2009;6:18. CENTRAL

Pennati 2015 {published data only}

Pennati GV, Da Re C, Messineo I, Bonaiuti D. How could robotic training and botulinum toxin be combined in chronic post stroke upper limb spasticity? A pilot study. European Journal of Physical & Rehabilitation Medicine 2015;51(4):381‐7. [1973‐9095]CENTRAL

Picelli 2015 {published data only}

Picelli A, Chemello E, Castellazzi P, Roncari L, Waldner A, Saltuari L, et al. Combined effects of transcranial direct current stimulation (tDCS) and transcutaneous spinal direct current stimulation (tsDCS) on robot‐assisted gait training in patients with chronic stroke: a pilot, double blind, randomized controlled trial. Restorative Neurology & Neuroscience 2015;33(3):357‐68. [1878‐3627]CENTRAL

Pitkanen 2002 {published data only}

Pitkanen K, Tarkka I, Sivenius J. Walking training with partial body weight support versus conventional walking training of chronic stroke patients: preliminary findings. Neurorehabilitation and Neural Repair 2001;15(4; SupplementAbstracts 3rd World Conference On Neurorehabilitation; April 2‐6, 2002 Venice, Italy):312. [http://journals.sagepub.com/doi/pdf/10.1177/154596830101500402]CENTRAL

Richards 1993 {published data only}

Richards CL, Malouin F, Wood‐Dauphinee S, Williams JI, Bouchard JP, Brunet D. Task‐specific physical therapy for optimization of gait recovery in acute stroke patients. Archives of Physical Medicine and Rehabilitation 1993;74:612‐20. CENTRAL

Richards 2004 {published data only}

Richards CL, Malouin F, Bravo G, Dumas F, Wood‐Dauphinee S. The role of technology in task‐oriented training in persons with subacute stroke: a randomized controlled trial. Neurorehabilitation and Neural Repair 2004;18(4):199‐211. CENTRAL

Shirakawa 2001 {published data only}

Shirakawa R, Uchida SU, Okajima YO, Sakaki TS, Shutou HS. Therapeutic effects of power‐assist training combined with biofeedback on hemiplegia by Therapeutic Exercise Machine (TEM). 1st International Congress of International Society of Physical and Rehabilitation Medicine (ISPRM); 2001 July 7‐13; Amsterdam. 2001. CENTRAL

Skvortsova 2008 {published data only (unpublished sought but not used)}

Skvortsova VI, Ivanova GE, Kovrazhkina EA, Rumiantseva NA, Staritsyn AN, Suvorov AIu, et al. The use of a robot‐assisted Gait Trainer GT1 in patients in the acute period of cerebral stroke: a pilot study. Zhurnal nevrologii i psikhiatrii imeni S.S. Korsakova 2008;Suppl 23:28‐34. CENTRAL
Skvortsova VI, Ivanova GE, Kovrazhkina EA, Rumyantseva NA, Staritsin AN, Sogomonyan EK. The efficacy of gait rehabilitation after stroke training with assistance of a robotic device gait trainer: a pilot study. International Journal of Stroke 2008;3(Suppl 3):355. CENTRAL

Stoller 2015 {published data only}

Stoller O, De Bruin ED, Schindelholz M, Schuster‐Amft C, De Bie RA, Hunt KJ. Feedback‐controlled robotics‐assisted treadmill exercise for cardiovascular training and assessment early after severe stroke. Cerebrovascular Diseases 2015;39:107. [1015‐9770]CENTRAL
Stoller O, de Bruin E, Schindelholz M, Schuster‐Amft C, de Bie R, Hunt KJ. Efficacy of feedback‐controlled robotics‐assisted treadmill exercise to improve cardiovascular fitness early after stroke. Journal of Neurologic Physical Therapy 2015;39(3):156. CENTRAL

Wu 2014 {published data only}

Wu M, Landry J, Kim J, Schmit B, Yen S, MacDonald J. Robotic resistance/assistance training improves locomotor function in individuals poststroke: A randomized controlled study. Archives of Physical Medicine and Rehabilitation2014; Vol. 95, issue 5:799‐806. [0003: 9993]CENTRAL

Chernikova 2014 {published data only}

Chernikova LA, Klochkov AS. The influence of physical training with the use of a Lokomat robotic system on the walking ability of the patients with post‐stroke hemiparesis. Voprosy Kurortologii, Fizioterapii i Lechebnoi Fizicheskoi Kultury2014, issue 3:13‐7. [0042‐8787]CENTRAL

Globokar 2005 {published data only}

Globokar D. Gait trainer in neurorehabilitation of patients after stroke. 3rd World Congress of the International Society of Physical and Rehabilitation Medicine ISPRM; 2005 April 10‐15; Sao Paulo, Brazil. Sao Paulo, Brazil, 2005:987‐1. CENTRAL

Golyk 2006 {published data only (unpublished sought but not used)}

Golyk VA, Pivnyk AP, Ipatov AV. Constraint‐induced movement therapy for walking improvement (comparison of two walking training machine modifications' efficacy) for stroke patients. European Journal of Neurology 2006;13(Suppl 2):263. CENTRAL

Jang 2005 {published data only}

Jang SJ, Park SW, Kim ES, Wee HM, Kim YH. Electromechanical gait trainer for restoring gait in hemiparetic stroke patients. 3rd World Congress of the International Society of Physical and Rehabilitation Medicine ISPRM; 2005 April 10‐15; Sao Paulo, Brazil. Sao Paulo, Brazil, 2005:909‐1. CENTRAL

Kim 2001 {published data only}

Kim BO, Lee JJ, Cho KH, Kim SH. Gait training robot (gaiTrainer) in rehabilitation. 1st International Congress of International Society of Physical and Rehabilitation Medicine (ISPRM); 2001 July 7‐13; Amsterdam. 2001. [Abstract Th.139.P]CENTRAL

Kim 2014 {published data only}

Kim JH, Park HI, Jang CH, Lim YH. Effects of robot‐assisted therapy on lower limb in geriatric patients with subacute stroke. European Geriatric Medicine2014; Vol. 5, issue Supplement 1:S174. [DOI: 10.1016/S1878‐7649(14)70458‐9]CENTRAL

Koeneman 2004 {published data only (unpublished sought but not used)}

Koeneman JB. Air muscle device for ankle stroke rehabilitation. www.sbir.gov/sbirsearch/detail/210093(accessed May 2017). CENTRAL

Mehrberg 2001 {published data only (unpublished sought but not used)}

Mehrberg RD, Flick C, Dervay J, Carmody J, Carrington C, Jermer M. Clinical evaluation of a new over ground partial body weight support assistive device in hemiparetic stroke patients. Archives of Physical Medicine and Rehabilitation 2001;82:1293 (Abstract 10). CENTRAL

Ohata 2015 {published data only}

Ohata K, Tsuboyama T, Watanabe A, Takahashi H. Gait training using new robotics device for patients with hemiplegia after stroke: a randomized cross‐over trial. Physiotherapy 2015;101:eS1123‐4. [0031‐9406]CENTRAL

Sale 2012 {published data only}

NCT01678547. Robot Walking Rehabilitation in Stroke Patients. clinicaltrials.gov/show/NCT01678547 (date first received 31 August 2012. [NCT01678547]CENTRAL

Wu 2012 {published data only}

Wu H, Gu XD, Fu JM, Yao YH, Li JH, Xu ZS. Effects of rehabilitation robot for lower‐limb on motor function in hemiplegic patients after stroke. National Medical Journal of China2012, issue 37:2628‐31. CENTRAL

Yoon 2015 {published data only}

Yoon Y, Seok TY, Yu K, Lee KJ, Kang SK, Yun SB. Gait training with the newly developed active‐assistive system for gait is feasible for hemiplegic patients after stroke. PM&R2015; Vol. 1:S115‐6. [193‐4148]CENTRAL

Zhu 2016 {published data only}

Zhu L, Song W, Liu L, Zhang R, Zhang Y. Rehabilitation effect of lower limb rehabilitation training robot combined with task‐oriented training on walking ability after stroke. Chinese Journal of Cerebrovascular Diseases2016; Vol. 13, issue 5:240‐4 and 248. [1672‐5921]CENTRAL

Louie 2015 {published data only}

Louie DR, Eng JJ, Mortenson WB, Yao J. Use of a powered robotic exoskeleton to promote walking recovery after stroke: study protocol for a randomized controlled trial. International Journal of Stroke. 2015; Vol. 10, Supplement 4:89. [http://onlinelibrary.wiley.com/doi/10.1111/ijs.12633_2/pdf]CENTRAL

NCT00284115 {unpublished data only}

Brissot R, Laviolle B. Efficacy of a mechanical gait repetitive training technique in hemiparetic stroke patients. www.clinicaltrials.gov(last accessed September 2016). CENTRAL

NCT00530543 {published data only}

NCT00530543. Effects of gait training with assistance of a robot‐driven gait orthosis in hemiparetic patients after stroke. clinicaltrials.gov2007. CENTRAL

NCT01146587 {published data only}

Waldner A. Robot assisted therapy for acute stroke patients: a comparative study of GangTrainer GT I, Lokomat system and conventional physiotherapy. www.clinicaltrials.gov(last accessed September 2016). CENTRAL

NCT01187277 {published data only}

Chanubol R. Robotic versus conventional training on hemiplegic gait. www.clinicaltrials.gov(last accessed September 2016). CENTRAL
Chanubol R, Wongphaet P, Werner C, Chavanich N, Panichareon L. Gait rehabilitation in subacute hemiparetic stroke: robot‐assisted gait training versus conventional physical therapy. Journal of the Neurological Sciences2013; Vol. 333, issue Suppl 1:e574. CENTRAL

NCT01678547 {published data only}

Sale P. Effect of robot assisted treatment on gait performance in stroke patients. www.clinicaltrials.gov(last accessed December 2012). CENTRAL

NCT01726998 {published data only}

NCT01726998. Effects of locomotion training with assistance of a robot‐driven gait orthosis in hemiparetic patients after subacute stroke. www.clinicaltrials.gov2014. CENTRAL

NCT02114450 {published data only}

NCT02114450. Human‐machine system for the H2 lower limb exoskeleton. www.clinicaltrials.gov2016. CENTRAL

NCT02471248 {published data only}

NCT02471248. Interactive exoskeleton robot for walking ‐ ankle joint. www.clinicaltrials.gov2016. CENTRAL

NCT02483676 {published data only}

NCT02483676. Ankle robot to reduce foot‐drop in stroke. www.clinicaltrials.gov2016. CENTRAL

NCT02545088 {published data only}

NCT02545088. New technology for individualised, intensive training of gait after stroke ‐ study II (HAL‐RCT‐II). www.clinicaltrials.gov2015. CENTRAL

NCT02680691 {published data only}

NCT02680691. Robot assisted gait training in patients with infratentorial stroke. www.clinicaltrials.gov2016. CENTRAL

NCT02694302 {published data only}

NCT02694302. Clinical trial of robot‐assisted‐gait‐training (RAGT) in stroke patients. www.clinicaltrials.gov2016. CENTRAL

NCT02755415 {published data only}

NCT02755415. Clinical applicability of robot‐assisted gait training system in acute stroke patients. www.clinicaltrials.gov2016. CENTRAL

NCT02781831 {published data only}

NCT02781831. Robot‐assisted gait training for patients with stroke. www.clinicaltrials.gov2016. CENTRAL

NCT02843828 {published data only}

NCT02843828. Gait pattern analysis and feasibility of gait training with a walking assist robot in stroke patients and elderly adults. www.clinicaltrials.gov2016. CENTRAL

Adams 1993

Adams HP, Bendixen BH, Kappelle LJ, Biller J, Love BB, Gordon DL, et al. Classification of subtype of acute ischemic stroke: definitions for use in a multicenter clinical trial (TOAST: Trial of Org 10172 in Acute Stroke Treatment). Stroke 1993;24(1):35‐41.

Atkins 2004

Atkins D, Best D, Briss PA, Eccles M, Falck‐Ytter Y, Flottorp S, et al. Grading quality of evidence and strength of recommendations. BMJ 2004;328:1490.

Bohannon 1988

Bohannon R. Rehabilitation goals of patients with hemiplegia. International Journal of Rehabilitation Research 1988;11(2):181‐3.

Bohannon 1991

Bohannon RW, Horton MG, Wikholm JB. Importance of four variables of walking to patients with stroke. International Journal of Rehabilitation Research 1991;14:246‐50.

Carr 2003

Carr J, Shepherd R. Stroke Rehabilitation: Guidelines for Exercises and Training. London: Butterworth Heinemann, 2003.

Collen 1991

Collen FM, Wade DT, Robb GF, Bradshaw CM. The Rivermead Mobility Index: a further development of the Rivermead Motor Assessment. International Disability Studies 1991;13(2):50‐4.

Colombo 2000

Colombo G, Joerg M, Schreier R, Dietz V. Treadmill training of paraplegic patients using a robotic orthosis. Journal of Rehabilitation Research and Development 2000;37(6):693‐700.

Deeks 2011

Deeks JJ, Higgins JPT, Altman DG. Chapter 9: Analysing data and undertaking meta‐analyses. In: Higgins JPT, Green S (editors). Cochrane Handbook for Systematic Reviews of Interventions Version 5.1.0 [updated March 2011]. The Cochrane Collaboration, 2011. Available from handbook.cochrane.org.

Freivogel 2009

Freivogel S, Schmalohr D, Mehrholz J. Improved walking ability and reduced therapeutic stress with an electromechanical gait device. Journal of Rehabilitation Medicine 2009;41:734–9.

French 2007

French B, Thomas LH, Leathley MJ, Sutton CJ, McAdam J, Forster A. Repetitive task training for improving functional ability after stroke. Cochrane Database of Systematic Reviews 2007, Issue 4. [DOI: 10.1002/14651858.CD006073.pub2]

French 2016

French B, Thomas LH, Coupe J, McMahon NE, Connell L, Harrison J, et al. Repetitive task training for improving functional ability after stroke. Cochrane Database of Systematic Reviews 2016, Issue 11. [DOI: 10.1002/14651858.CD006073.pub3]

GRADEpro GDT [Computer program]

McMaster University (developed by Evidence Prime, Inc.). Available from gradepro.org. GRADEpro GDT: GRADEpro Guideline Development Tool. McMaster University (developed by Evidence Prime, Inc.). Available from gradepro.org, 2015.

Hamilton 1994

Hamilton BB, Laughlin JA, Fiedler RC, Granger CV. Interrater reliability of the 7‐level functional independence measure (FIM). Scandinavian Journal of Rehabilitation Medicine 1994;26(3):115‐9.

Hesse 1999

Hesse S, Sarkodie‐Gyan T, Uhlenbrock D. Development of an advanced mechanised gait trainer, controlling movement of the centre of mass, for restoring gait in non‐ambulant subjects. Biomedizinische Technik [Biomedical Engineering] 1999;44(7‐8):194‐201.

Hesse 2003

Hesse S, Schmidt H, Werner C, Bardeleben A. Upper and lower extremity robotic devices for rehabilitation and for studying motor control. Current Opinion in Neurology 2003;16(6):705‐10.

Hesse 2010

Hesse S, Waldner A, Tomelleri C. Innovative gait robot for the repetitive practice of floor walking and stair climbing up and down in stroke patients. Journal of NeuroEngineering and Rehabilitation 2010;7:30.

Higgins 2011a

Higgins JPT, Altman DG, Sterne JAC (editors). Chapter 8: Assessing risk of bias in included studies. In: Higgins JPT, Green S (editors). Cochrane Handbook for Systematic Reviews of Interventions Version 5.1.0 [updated March 2011]. The Cochrane Collaboration, 2011. Available from handbook.cochrane.org.

Higgins 2011b

Schünemann HJ, Oxman AD, Vist GE, Higgins JPT, Deeks JJ, Glasziou P, et al. Chapter 12: Interpreting results and drawing conclusions. In: Higgins JPT, Green S (editors). Cochrane Handbook for Systematic Reviews of Interventions Version 5.1.0 [updated March 2011]. The Cochrane Collaboration, 2011. Available from handbook.cochrane.org.

Holden 1984

Holden MK, Gill KM, Magliozzi MR, Nathan J, Piehl‐Baker L. Clinical gait assessment in the neurologically impaired: reliability and meaningfulness. Physical Therapy 1984;64(1):35‐40.

Jorgensen 1995

Jorgensen H, Nakayama H, Raaschou H, Olsen T. Recovery of walking function in stroke patients: the Copenhagen stroke study. Archives of Physical Medicine and Rehabilitation 1995;76:27‐32.

Kelley 2013

Kelley CP, Childress J, Boake C, Noser EA. Over‐ground and robotic‐assisted locomotor training in adults with chronic stroke: a blinded randomized clinical trial. Disability & Rehabilitation: Assistive Technology. Philadelphia, Pennsylvania: Taylor & Francis Ltd, 2013; Vol. 8, issue 2:161‐8. [1748‐3107]

Kim 2008

Kim M, Kim YH, Lee PKWY, Hyong MK, Jung PH. Effect of robot‐assisted gait therapy on cardiopulmonary fitness in subacute stroke patients. Neurorehabilitation and Neural Repair 2008;22:594. CENTRAL

Kwakkel 1999

Kwakkel G, Wagenaar RC, Twisk JW, Lankhorst GJ, Koetsier JC. Intensity of leg and arm training after primary middle‐cerebral‐artery stroke: a randomised trial. Lancet 1999;354(9174):191‐6.

Louie 2016

Louie DR, Eng JJ. Powered robotic exoskeletons in post‐stroke rehabilitation of gait: a scoping review. Journal of NeuroEngineering and Rehabilitation2016; Vol. 13, issue 1:1‐10. [MEDLINE: Louie2016; 1743‐0003]

Mehrholz 2012a

Mehrholz J, Pohl M. Electromechanical‐assisted gait training after stroke: a systematic review comparing end‐effector and exoskeleton devices. Journal of Rehabilitation Medicine 2012;44(3):193‐9.

Mehrholz 2012b

Mehrholz J, Hädrich A, Platz T, Kugler J, Pohl M. Electromechanical and robot‐assisted arm training for improving generic activities of daily living, arm function, and arm muscle strength after stroke. Cochrane Database of Systematic Reviews 2012, Issue 6. [DOI: 10.1002/14651858.CD006876.pub3]

Mehrholz 2014

Mehrholz J, Pohl M, Elsner B. Treadmill training and body weight support for walking after stroke. Cochrane Database of Systematic Reviews 2014, Issue 1. [DOI: 10.1002/14651858.CD002840.pub3]

MIT 2005

Massachusetts Institute of Technology. MIT develops Anklebot for stroke patients. web.mit.edu/newsoffice/2005/stroke‐robot.html (accessed 20 December 2005).

Nuyens 2002

Nuyens GE, De Weerdt WJ, Spaepen AJ, Kiekens C, Feys HM. Reduction of spastic hypertonia during repeated passive knee movements in stroke patients. Archives of Physical Medicine and Rehabilitation 2002;83(7):930‐5.

Pollock 2014

Pollock A, Farmer SE, Brady MC, Langhorne P, Mead GE, Mehrholz J. Interventions for improving upper limb function after stroke. Cochrane Database of Systematic Reviews 2014, Issue 11. [DOI: 10.1002/14651858.CD010820.pub2]

RevMan 2014 [Computer program]

The Nordic Cochrane Centre, The Cochrane Collaboration. Review Manager (RevMan). Version 5.3. Copenhagen: The Nordic Cochrane Centre, The Cochrane Collaboration, 2014.

Sackett 1996

Sackett DL, Deeks JJ, Altman DG. Down with odds ratios!. Evidence‐based Medicine 1996;1:164‐6.

Schmidt 2005

Schmidt H, Hesse S, Bernhardt R, Krüger J. HapticWalker ‐ a novel haptic foot device. ACM Transactions on Applied Perception 2005;2(2):166‐80.

States 2009

States RA, Pappas E, Salem Y. Overground physical therapy gait training for chronic stroke patients with mobility deficits. Cochrane Database of Systematic Reviews 2009, Issue 3. [DOI: 10.1002/14651858.CD006075.pub2]

Van Peppen 2004

Van Peppen RP, Kwakkel G, Wood‐Dauphinee S, Hendriks HJ, Van der Wees PJ, Dekker J. The impact of physical therapy on functional outcomes after stroke: what's the evidence?. Clinical Rehabilitation 2004;18(8):833‐62.

Veneman 2005

Veneman J, Kruidhof R, van der Helm FCT, van der Kooy H. Design of a Series Elastic‐ and Bowdencable‐based actuation system for use as torque‐actuator in exoskeleton‐type training robots. International Conference on Rehabilitation Robotics; 2005 June 28‐July 1; Chicago (IL). 2005.

Wade 1988

Wade DT, Collin C. The Barthel ADL Index: a standard measure of physical disability?. International Disability Studies 1988;10(2):64‐7.

WHO 2006

World Health Organization. Cerebrovascular accident, stroke. www.who.int/topics/cerebrovascular_accident/en/ (accessed 1 February 2006).

Mehrholz 2006

Mehrholz J, Werner C, Kugler J, Pohl M. Electromechanical‐assisted training for walking after stroke [Protocol]. Cochrane Database of Systematic Reviews 2006, Issue 4. [DOI: 10.1002/14651858.CD006185]

Mehrholz 2007

Mehrholz J, Werner C, Kugler J, Pohl M. Electromechanical‐assisted training for walking after stroke. Cochrane Database of Systematic Reviews 2007, Issue 4. [DOI: 10.1002/14651858.CD006185.pub2]

Mehrholz 2013

Mehrholz J, Elsner B, Werner C, Kugler J, Pohl M. Electromechanical‐assisted training for walking after stroke. Cochrane Database of Systematic Reviews 2013, Issue 7. [DOI: 10.1002/14651858.CD006185.pub3]

Characteristics of studies

Characteristics of included studies [ordered by study ID]

Aschbacher 2006

Methods

RCT
Method of randomisation: not stated
Blinding of outcome assessors: stated as 'yes' by the investigator
Adverse events: not stated
Deaths: not stated
Dropouts: 4 (1 in treatment group, 3 in control group)
ITT: unclear

Participants

Country: Switzerland
23 participants (12 in treatment group, 11 in control group)
Not ambulatory at start of study
Mean age: 57 to 67 years (control and treatment groups, respectively)
Inclusion criteria: ≤ 3 months after stroke, ability to stand or walk 5 metres
Exclusion criteria: orthopaedic problems, contractures, NYHA III‐IV

Interventions

2 arms:

  • Control group used task‐oriented physiotherapy, 5 times a week for 3 weeks (2.5 hours a week)

  • Experimental group used robotic‐assisted treadmill training (Lokomat) for the same time and frequency

Outcomes

Outcomes were recorded at baseline and after 3 weeks and 6 months
Primary outcomes: walking velocity, step length, endurance, walking ability (FAC)
Secondary outcomes: isometric knee extension strength, patient acceptance and satisfaction (visual analogue scale)

Notes

Unpublished data

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)

Unclear risk

Not described

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Unclear

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

Unclear

Bang 2016

Methods

RCT

Method of randomisation: opaque, closed envelopes
Blinding of outcome assessors: stated as 'yes' by the investigator
Adverse events: not stated
Deaths: not stated
Dropouts: no

Participants

Country: Korea
18 participants (9 in treatment group, 9 in control group)
Ambulatory at start of study
Mean age: 54 years (control and treatment group)

Inclusion criteria: > 6 months after stroke, ability to walk over 10 meters, gait speed > 0.4 m/s, MMSE ≥ 24

Exclusion criteria: uncontrolled health condition, comorbidity or disability other than stroke precluding gait training

Interventions

2 arms:

  • Experimental group used robotic‐assisted treadmill training with body weight support (Lokomat) 5 times a week for 4 weeks (1 hour per day)

  • Control group used conventional treadmill training without body weight support for the same time and frequency

Outcomes

Outcomes were recorded at baseline and after 2 weeks.

Outcome measures: gait speed, cadence, step length, double support period (GAITRite system), balance, level of balance confidence (ABC scale)

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

The randomisation was performed by selection of an opaque, closed envelope in which the group assignment was written, which was given to the physical therapist.

Allocation concealment (selection bias)

Low risk

By sealed envelopes

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Described as blinded by an assessor not participating in study

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No dropouts

Brincks 2011

Methods

Randomised cross‐over trial
Method of randomisation: shuffled envelopes
Blinding of outcome assessors: no
Adverse events: none
Deaths: none
Dropouts: none
ITT: yes

Participants

Country: Denmark
13 participants (7 in treatment group, 6 in control group)
All participants were ambulatory at start of study
Mean age: 59 to 61 years (control and treatment groups, respectively)
Inclusion criteria: unknown
Exclusion criteria: unknown

Interventions

2 arms:

  • Group 1 received 3 weeks of robotic‐assisted treadmill training (Lokomat), followed (after cross‐over) by 3 weeks of physiotherapy

  • Group 2 received 3 weeks of physiotherapy followed (after cross‐over) by 3 weeks of robotic‐assisted treadmill training (Lokomat)

Outcomes

Outcomes were recorded at baseline, after 3 and 6 weeks
Primary outcomes: single support stance time in impaired extremity and gait asymmetry and swing time ratio
Secondary outcomes: walking speed

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Shuffling envelopes

Allocation concealment (selection bias)

Low risk

Using sealed, shuffled envelopes

Blinding of outcome assessment (detection bias)
All outcomes

High risk

No blinding was done.

Incomplete outcome data (attrition bias)
All outcomes

Low risk

ITT

Buesing 2015

Methods

RCT

Method of randomisation: random number generator
Blinding of outcome assessors: stated as 'yes' by the investigator
Adverse events: no adverse events
Deaths: not stated
Dropouts: none

Participants

Country: USA
50 participants (25 in treatment group, 25 in control group)
Ambulatory at start of study
Mean age: 62 years experimental group and 60 years control group

Inclusion criteria: > 12 months after stroke, medically stable, initial gait speed between 0.4 and 0.8 m/s, > 17 MMSE, sit unsupported for 30 s, walk ≥ 10 m with maximum 1 person, follow a 3‐step command

Interventions

2 arms:

  • Experimental group: robot‐assisted task‐specific training (Stride Management Assist) 3 times a week for 6 to 8 weeks, 45 minutes per day (maximum of 18 visits)

  • Control group: functional task‐specific training for the same time and frequency

Outcomes

Outcomes were recorded at baseline and after visit 10 and 18, 3‐month follow‐up
Outcome measures: gait velocity, cadence, step time, step length, stride length, swing time, stance time, double support time (GAITRite)

Notes

NCT01994395

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Method of randomisation described as "random number generator".

Allocation concealment (selection bias)

High risk

Allocation concealment not described.

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Evaluated by a research physical therapist, who was blinded to the participant’s training group

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No dropouts

Chang 2012

Methods

RCT
Method of randomisation: not stated
Blinding of outcome assessors: not stated
Adverse events: not stated
Deaths: not stated
Dropouts: 3 (2 in experimental group, 1 in control group)
ITT analysis: not described

Participants

Country: Republic of Korea
48 allocated participants (24 in treatment group, 24 in control group)
38 participants were non‐ambulatory at start of study
Mean age: 58 years
Inclusion criteria: first‐ever stroke, stroke onset within 1 month, supratentorial lesion, age > 20 years and < 65 years, not an independent ambulator (FAC < 2), and ability to co‐operate during exercise testing
Exclusion criteria: people who met criteria for absolute and relative contraindications to exercise testing established by the American College of Sports Medicine (ACSM) were excluded. Also, people who met contraindications for Lokomat therapy or musculoskeletal disease involving the lower limbs, such as severe painful arthritis, osteoporosis, or joint contracture and other neurological diseases, were also excluded

Interventions

2 arms:

  • Robotic gait trainer (Lokomat) 40 minutes per day, and 60 minutes conventional physiotherapy for 10 days

  • Conventional physiotherapy, same sessions of conventional gait training by physical therapist

Outcomes

Outcomes were recorded at baseline and after training:

  • FAC

  • Exercise and gas exchange capacity

  • Cardiopulmonary function

  • Fugl‐Meyer Assessment

  • Motricity Index

Notes

This study describes the same study protocol and participants as described in the study Kim 2008, but provides further explanation of participant characteristics; the ID Chang 2012 therefore replaces the formerly review used ID Kim 2008.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Method of randomisation is unclear.

Allocation concealment (selection bias)

Unclear risk

Method of concealment is unclear.

Blinding of outcome assessment (detection bias)
All outcomes

High risk

No

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

Unclear

Cho 2015

Methods

RCT, cross‐over
Method of randomisation: not stated
Blinding of outcome assessors: not stated
Adverse events: not stated
Deaths: not stated
Dropouts: not stated

ITT: not stated

Participants

Country: Korea
20 participants (13 in treatment group, 7 in control group)
Not ambulatory at start of study
Mean age: 55 years in control and treatment group

Inclusion criteria: onset period of > 6 months, FAC < 2, independent ambulation before stroke, ability to understand and execute RAGT, no orthopaedic or neurosurgical problems in the lower extremities

Exclusion criteria: weight > 120 kg; femoral length < 35 cm or > 47 cm; history of low‐extremity fracture after stroke, instability or subluxation of the hip joint, or pressure ulcers on the hips or lower extremities; any underlying disease preventing execution of RAGT

Interventions

2 arms:

  • Experimental group: robot‐assisted gait training (Lokomat) 3 times per week, 4 weeks (30 minutes/day) and conventional physical therapy 5 times per week, 8 weeks (30 minutes/day)

  • Control group: conventional physical therapy 5 times per week, 8 weeks (30 minutes/day)

Outcomes

Outcomes were recorded at baseline and after 4 and 8 weeks:

  • Primary outcome measures: balance (Berg Balance Scale, Modified Functional Reach Test)

  • Secondary outcome measures: walking ability (FAC), motor function (Modified Ashworth Scale, Fugl‐Meyer Assessment of Lower Extremity, Motricity Index), activities of daily living (Modified Barthel Index)

Notes

Higher dose of intervention in experimental group compared to control group; group differences at baseline (modified forward reach)

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)

High risk

Allocation not described.

Blinding of outcome assessment (detection bias)
All outcomes

High risk

Not mentioned

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

Unclear

Chua 2016

Methods

RCT
Method of randomisation: computer‐generated sequence
Blinding of outcome assessors: stated as 'yes' by the investigator
Adverse events: no
Deaths: yes
Dropouts: yes (7 in treatment group, 13 in control group)

ITT: yes

Participants

Country: Singapore
108 participants (53 in treatment group, 53 in control group)
Not ambulatory at start of study
Mean age: 62 years experimental and 61 years control group

Inclusion criteria: unilateral haemorrhagic/ischaemic stroke, age between 18 and 80 years, independent ambulation pre‐stroke

Exclusion criteria: > 8 weeks poststroke, FAC ≥ 4, cardiovascular instability, MMSE < 16, communication deficits, lower limb joint contractures

Interventions

2 arms:

  • Experimental group: electromechanical gait training (20 minutes) and conventional physiotherapy including stance/gait (25 minutes) 6 days a week for 8 weeks (45 minutes per day)

  • Control group: conventional physiotherapy (including therapy to improve stance/gait), same time and frequency as experimental group

Outcomes

Outcomes were recorded at baseline and 4, 8, 12, 24, and 48 weeks after baseline

Outcome measures: walking ability (FAC), Barthel Index, gait velocity (10‐metre walk test), gait endurance (6‐minute walk test), health status (Stroke Impact Scale)

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Authors state: "Randomization was performed using a computer‐generated sequence of random numbers."

Allocation concealment (selection bias)

Low risk

Authors state: "An independent department generated the random group allocation sequence and transferred the sequence to a series of serially numbered opaque envelopes, which were not opened and revealed until after acceptance into the study and the baseline tests, therefore ensuring allocation concealment."

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Authors state: "The data assessors were blinded to group allocation, but it was not possible to blind participants or the health care professionals providing interventions."

Incomplete outcome data (attrition bias)
All outcomes

Low risk

All data for all participants provided and analysed. Authors state: "An intention‐to‐treat approach was used. Data from subjects were analysed according to the group to which they were randomised, regardless of whether they completed the intervention. Participants failing to complete either intervention were asked to return for follow‐up."

Dias 2006

Methods

RCT
Method of randomisation: permuted block randomisation
Blinding of outcome assessors: stated as blinded
Adverse events: none stated
Deaths: none
Dropouts: none
ITT: not stated but probably done because there were no dropouts

Participants

Country: Portugal
40 participants (20 in treatment group, 20 in control group)
Ambulatory at start of study
Mean age: 69 years
Inclusion criteria: first‐ever stroke patients > 12 months after stroke; age > 18 and < 80 years; cognitive (MMSE > 19) and communication capacities to understand the treatment; absence of cardiac, psychological, and orthopaedic contraindications
Exclusion criteria: not stated

Interventions

2 arms:

  • Control group used the Bobath method, 5 times a week for 5 weeks

  • Experimental group used the Gait Trainer for the same time and frequency

Outcomes

Outcomes were recorded at baseline and after 4 weeks and 3 months:

  • Motricity Index

  • Toulouse Motor Scale

  • Modified Ashworth Scale

  • Berg Balance Scale

  • Rivermead Motor Score

  • Fugl‐Meyer Stroke Scale (lower limb and balance)

  • FAC

  • Barthel Index

  • 10‐metre walking test and gait cycle parameters

  • Timed Up and Go test

  • 6‐minute walking distance test

  • Step test

After study end and at follow‐up, participants rated satisfaction with and efficiency of treatment in a self questionnaire (Likert scale).

Notes

Published and unpublished data provided by the authors.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Unclear

Allocation concealment (selection bias)

Low risk

Central allocation

Blinding of outcome assessment (detection bias)
All outcomes

High risk

Not done

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No missing outcome data

Fisher 2008

Methods

RCT
Method of randomisation: blocked randomisation
Blinding of outcome assessors: stated as 'yes'
Adverse events: control group 14, experimental group 11
Deaths: none
Dropouts: none
ITT: stated as 'yes'

Participants

Country: USA
20 participants (10 in treatment group, 10 in control group)
5 in treatment group and 7 in control group were ambulatory at start of study
Mean age: not stated
Inclusion criteria: subacute, < 2 months after stroke
Exclusion criteria: not stated

Interventions

2 arms:

  • Control group received standard physical therapy, 3 to 5 times a week for 24 consecutive sessions

  • Experimental group used the AutoAmbulator for the same time and frequency

Outcomes

Outcomes were recorded at baseline and after 24 sessions:

  • Gait test portion of Tinetti's balance and mobility assessment

  • 3‐minute walk

  • 25‐foot walk

Notes

This trial is described as ongoing; the results of the first 20 participants were reported.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Unclear

Allocation concealment (selection bias)

Unclear risk

Stated as concealed, but method not described.

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Yes

Incomplete outcome data (attrition bias)
All outcomes

Low risk

ITT stated.

Forrester 2014

Methods

RCT
Method of randomisation: not described
Blinding of outcome assessors: stated as 'no'
Adverse events: no
Deaths: not mentioned
Dropouts: 5 (3 in treatment group, 2 in control group)

ITT: no

Participants

Country: USA
39 participants (21 in treatment group, 18 in control group)
Not ambulatory at start of study
Mean age: 63 years in experimental group and 60 years in control group

Inclusion criteria: first stroke; residual lower extremity hemiparesis involving the ankle (1/5 to 4/5 MRC); capable of generating at least trace muscle activation in PF‐DF; adequate language and neurocognitive function; sit in the chair for 30 to 60 minutes per session of ankle training

Exclusion criteria: total plegia (0/5) at paretic ankle; fixed or painful contractures; dementia; orthopaedic, arthritic, or inflammatory condition limiting ankle movement; deep venous thrombosis or pulmonary thromboembolism; vision impairment; severe receptive or global aphasia

Interventions

2 arms:

  • Experimental group: robot‐assisted ankle training, daily for 60 minutes/day, 10 sessions until discharge

  • Control group: passive manual moving and stretching ankle, for the same time

Outcomes

Outcomes were recorded at baseline and at discharge.

Outcome measures: walking ability (Functional Independence Measure walking), balance (Berg Balance Scale), walking velocity, active range of motion, muscle strength, spatiotemporal gait parameters (step time, step length, step symmetry), motor control variables (angular velocity, co‐ordination)

Notes

Unclear amount of therapy

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Not clearly described; authors only state "blocked randomisation"

Allocation concealment (selection bias)

High risk

Not described

Blinding of outcome assessment (detection bias)
All outcomes

High risk

Authors state "not blinded".

Incomplete outcome data (attrition bias)
All outcomes

High risk

5 participants were excluded from analysis after randomisation.

Geroin 2011

Methods

RCT
Method of randomisation: software‐generated randomisation scheme
Blinding of outcome assessors: no
Adverse events: none
Deaths: none
Dropouts: none
ITT: yes

Participants

Country: Italy
30 participants (10 in treatment group 1, 10 in treatment group 2, and 10 in control group)
5 in both treatment groups and 7 in control group were ambulatory at start of study
Mean age: not stated
Inclusion criteria: at least 12 months from their first unilateral ischaemic stroke; age < 75 years; European Stroke Scale score between 75 and 85; MMSE score ≧ 24; ability to maintain standing position without aids for at least 5 minutes; ability to walk independently for at least 15 metres with the use of walking aids (cane and orthoses)
Exclusion criteria: preceding epileptic fits; an electroencephalography suspect of elevated cortical excitability; metallic implants within the brain and previous brain surgery; medications altering cortical excitability or with a presumed effect on brain plasticity; posterior circulation stroke; deficits of somatic sensation involving the paretic lower limb; presence of vestibular disorders or paroxysmal vertigo; presence of severe cognitive or communicative disorders; presence of other neurological or orthopaedic conditions involving the lower limbs; presence of cardiovascular comorbidity; performance of any type of rehabilitation treatment in the 3 months before start of study

Interventions

3 arms:

  • Robot‐assisted gait training (Gait Trainer GT 1) combined with transcranial direct current stimulation

  • Robot‐assisted gait training (Gait Trainer GT 1) combined with sham transcranial direct current stimulation

  • Walking overground

All participants received 10 x 50‐minute treatment sessions, 5 days a week, for 2 consecutive weeks

Outcomes

Outcomes were recorded at baseline and after 2 weeks:

  • Primary outcomes were the 6‐minute walk test and the 10‐metre walking test

  • Secondary outcomes were spatiotemporal gait parameters, FAC, Rivermead Mobility Index, Motricity Index leg subscore, and Modified Ashworth Scale

Notes

We combined the results of both robotic‐assisted groups (arms 1 and 2) into a single group, which we compared with the results of the control group (arm 3).

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Software‐generated list

Allocation concealment (selection bias)

Low risk

Central allocation

Blinding of outcome assessment (detection bias)
All outcomes

High risk

Not done

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No missing outcome data

Han 2016

Methods

RCT
Method of randomisation: not stated
Blinding of outcome assessors: stated as 'yes'
Adverse events: none
Deaths: none
Dropouts: 4 in control group (2 refused and 2 dropped)

ITT: no

Participants

Country: Republic of Korea

60 participants (30 in treatment group, 30 in control group)
Non‐ambulatory at start of study
Mean age: 68 years in experimental group and 63 years in control group

Inclusion criteria: clinical diagnosis of stroke < 3 months after stroke onset, first‐ever stroke, dependent ambulation with severe gait impairment (FAC < 2), and sufficient cognition to understand procedures and provide informed consent

Exclusion criteria: contraindications for RAGT therapy; cerebellar or brainstem lesions that could affect autonomic or balance function; musculoskeletal disease involving the lower limbs, such as severe painful arthritis, osteoporosis, amputation, or joint contracture; and other concurrent neurological diseases (e.g. Parkinson's disease, multiple sclerosis, etc.)

Interventions

2 arms:

  • Experimental group: 30 minutes of exoskeletal robot‐driven gait orthosis training (Lokomat) and 30 minutes conventional rehabilitation therapy 5 times per week for 4 weeks

  • Control group: 60 minutes conventional rehabilitation therapy. Physical therapy conducted by physical therapists certified in neurodevelopmental techniques was provided for balance and mobility 5 times per week for 4 weeks

Outcomes

Outcomes were recorded at baseline and after the 4‐week intervention; all outcome parameters were measured within 3 days before and after 20 sessions of training:

  • Primary outcomes: brachial–ankle pulse wave velocity (baPWV, which evaluates arterial stiffness) and cardiopulmonary fitness

  • Secondary outcomes: clinical functional outcomes, including basic ADL function, balance, gait functions, and motor functions of the paretic lower limb

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)

Unclear risk

Allocation concealment not described.

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

A physiatrist (rehabilitation doctor) who remained blinded to participant group and treatment throughout the entire study analysed outcome measures.

Incomplete outcome data (attrition bias)
All outcomes

High risk

No ITT

Hidler 2009

Methods

RCT
Method of randomisation: randomisation table
Blinding of outcome assessors: not described
Adverse events: control group 14; experimental group 11
Deaths: 1, which study arm not reported
Dropouts: 9
ITT: no, described as analysis per protocol

Participants

Country: USA
72 participants (36 in treatment group, 36 in control group); 63 participants completed all training sessions and were analysed as per protocol
All participants were ambulatory at start of study
Mean age: 60 years
Inclusion criteria: hemiparesis resulting from unilateral ischaemic or haemorrhagic stroke, time since stroke less than 6 months, no prior stroke, age > 18 years, ability to ambulate 5 metres without physical assistance and a self selected walking speed between 0.1 and 0.6 m/s, not receiving any other physical therapy targeting the lower limbs
Exclusion criteria: severe osteoporosis, contractures limiting range of motion in the lower extremities, not ambulating before stroke, severe cardiac disease (NYHA classification of II‐IV), uncontrolled hypertension (systolic > 200 mm Hg, diastolic > 110 mm Hg), stroke of the brainstem or cerebellar lesions, uncontrolled seizures, presence of lower limb non‐healing ulcers, lower limb amputation, uncontrolled diabetes, cognitive deficits (< 24 on the MMSE), symptoms of depression (≥ 16 on the Center for Epidemiological Studies Depression Scale)

Interventions

2 arms:

  • Control group received conventional gait training, 3 times a week for 8 to 10 weeks for 24 sessions, each session lasted 1½ hours

  • Experimental group used the Lokomat for the same time and frequency

Outcomes

Outcomes were recorded at baseline and after 12 and 24 sessions, and at 3‐month follow‐up:

  • Primary outcome measures: self selected walking speed over 5 metres, walking distance in 6 minutes

  • Secondary outcome measures: Berg Balance Scale, FAC, NIHSS, Motor Assessment Scale, Rivermead Mobility Index, Frenchay Activities Index, SF‐36, cadence

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Randomisation table

Allocation concealment (selection bias)

Unclear risk

Not described in sufficient detail

Blinding of outcome assessment (detection bias)
All outcomes

High risk

Not done

Incomplete outcome data (attrition bias)
All outcomes

High risk

No ITT, analysis per protocol

Hornby 2008

Methods

RCT
Method of randomisation: opaque, sealed envelopes
Blinding of outcome assessors: not done
Adverse events: 8 events in control group and 3 events in experimental group
Deaths: none
Dropouts: 14 (10 in control group and 4 in experimental group)
ITT: no ITT; analysis per protocol

Participants

Country: USA
62 participants (31 in treatment group, 31 in control group), 48 participants completed all training sessions and were analysed as per protocol
All participants were ambulatory at start of study
Mean age: 57 years
Inclusion criteria: hemiparesis of longer than 6 months' duration after patients with unilateral, supratentorial, ischaemic, or haemorrhage stroke were recruited; no evidence of bilateral or brainstem lesions; able to walk 10 metres overground without physical assistance at speeds of 0.8 m/s at self selected velocity, using assistive devices and bracing below the knee as needed
Exclusion criteria: significant cardiorespiratory/metabolic disease or other neurological or orthopaedic injury that may limit exercise participation or impair locomotion, size limitations for the harness/counterweight system or robotic orthosis, botulinum toxin therapy in the lower limbs within 6 months before enrolment, scores lower than 23 on the MMSE, patients could not receive concurrent physical therapy

Interventions

2 arms:

  • Control group received therapist‐assisted gait training, 12 sessions, each session lasted 30 minutes

  • Experimental group received robotic‐assisted gait training using the Lokomat for the same time and frequency

Outcomes

Outcomes were recorded at baseline and after 12 sessions and at 6‐month follow‐up:

  • Primary outcome measures: self selected walking speed

  • Secondary outcome measures: single‐limb stance time, step length asymmetry, 6‐minute walk test, modified Emory Functional Ambulation Profile, Berg Balance Scale, Frenchay Activities Index, physical component summary score of the Medical Outcomes Questionnaire Short Form 36, strength, Modified Ashworth Scale, Center for Epidemiological Studies Depression Scale

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

(Probably) shuffling envelopes

Allocation concealment (selection bias)

Low risk

Opaque, sealed envelopes

Blinding of outcome assessment (detection bias)
All outcomes

High risk

No blinding

Incomplete outcome data (attrition bias)
All outcomes

High risk

'As‐treated' analysis done

Husemann 2007

Methods

RCT
Method of randomisation: opaque envelopes, stratified by side of paresis and aetiology
Blinding of outcome assessors: yes
Adverse events: 2 (1 in experimental group, 1 in control group)
Deaths: none
Dropouts: 2 (1 in experimental group, 1 in control group)
ITT analysis: not provided for all dropouts

Participants

Country: Germany
32 participants (17 in treatment group, 15 in control group)
Non‐ambulatory at start of study
Mean age: not provided
Inclusion criteria: not provided
Exclusion criteria: not provided

Interventions

2 arms:

  • Robotic gait trainer (Lokomat), 30 minutes per weekday for 4 weeks

  • Conventional physiotherapy, 30 minutes per weekday for 4 weeks

Both groups received additional 30 minutes of physiotherapy daily.

Outcomes

Outcomes were recorded at baseline and after 4 weeks:

  • FAC

Notes

Published and unpublished data provided by the authors.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Random numbers generated by a computer program, block randomisation.

Allocation concealment (selection bias)

Low risk

Sealed, opaque envelopes

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Evaluating therapist blinded for group allocation.

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

Insufficient reporting of attrition/exclusions to permit judgement of ‘low risk’ or ‘high risk’

Kim 2015

Methods

RCT
Method of randomisation: not described
Blinding of outcome assessors: not described
Adverse events: not mentioned
Deaths: none
Dropouts: 4 (2 in experimental group, 2 in control group)

ITT: no

Participants

Country: Korea
30 participants (15 in treatment group, 15 in control group)
Not ambulatory at start of study
Mean age: 54 years in experimental group and 50 years in control group

Inclusion criteria: first stroke < 1 year, plateau in recovery of the locomotor functions after a 30‐day conventional neurorehabilitation

Exclusion criteria: severe spasticity (Modified Ashworth Scale 2), tremor, severe visual and cognitive impairments, musculoskeletal diseases, cardiopulmonary diseases, body weight of 135 kg; height of 150 cm

Interventions

2 arms:

  • Experimental group: robot‐assisted training (Walkbot) (2 x 20 minutes/day) and conventional physical therapy (2 x 20 minutes/day) 5 for 4 weeks

  • Control group: conventional physical therapy (2 x 40 minutes/day) for the same time as experimental group

Outcomes

Outcomes were recorded at baseline and after 4 and 8 weeks.

Outcome measures: walking ability (FAC), balance (Berg Balance Scale), modified Barthel Index, spasticity (Modified Ashworth Scale), quality of life (EuroQol‐5 dimension)

Notes

NCT02053233

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Method not described.

Allocation concealment (selection bias)

Unclear risk

Unclear

Blinding of outcome assessment (detection bias)
All outcomes

High risk

Not described

Incomplete outcome data (attrition bias)
All outcomes

High risk

No ITT

Kyung 2008

Methods

RCT
Method of randomisation: unclear
Blinding of outcome assessors: unclear
Adverse events: unclear
Deaths: unclear
Dropouts: 3 (2 in experimental group, 1 in control group)
ITT analysis: unclear

Participants

Country: Republic of Korea
35 participants (18 in treatment group, 17 in control group)
10 participants in the experimental group and 7 participants in the control group were ambulatory at start of study
Mean age: not stated
Inclusion criteria: not stated
Exclusion criteria: not stated

Interventions

2 arms:

  • Robotic training (Lokomat), 30 minutes, 3 times a week for 4 weeks

  • Conventional physiotherapy, received equal time and sessions of conventional gait training

Outcomes

Outcomes were recorded at baseline and after training

  • FAC

  • Modified Motor Assessment Scale

  • Gait speed

  • Isometric torque

  • Fugl‐Meyer Assessment

  • Motricity Index

  • Ashworth Scale

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Unclear

Allocation concealment (selection bias)

Unclear risk

Method neither described nor stated.

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Unclear

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

Unclear

Mayr 2008

Methods

RCT
Method of randomisation: unclear
Blinding of outcome assessors: unclear
Adverse events: not stated
Deaths: unclear, probably none
Dropouts: 13 (4 in experimental group, 9 in control group)
ITT analysis: not stated

Participants

Country: Austria
74 participants (37 in treatment group, 37 in control group)
Most participants in both groups were non‐ambulatory at start of study
Mean age: not stated
Inclusion criteria: primary ischaemic lesion of the medial cerebral artery, between 10 days and 6 weeks after stroke, stable cardiovascular system, ability to walk with assistance of 1 therapist
Exclusion criteria: brainstem lesions, thrombosis, severe contractures, good walking ability with standing only help by therapist

Interventions

2 arms:

  • Add‐on robotic training (Lokomat), 45 minutes, 5 times a week for 8 weeks

  • Add‐on conventional physiotherapy, received equal time and sessions of conventional gait training

Outcomes

Outcomes were recorded at baseline and after training phase:

  • Modified Emory Functional Ambulatory Profile

  • Hochzirl Walking Aids Profile

  • Rivermead Motor Index

  • Mobility milestones

  • Gait analysis

Notes

Published as conference abstract and unpublished data

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Software‐generated list

Allocation concealment (selection bias)

Low risk

Described concealed allocation

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Described as blinded evaluator

Incomplete outcome data (attrition bias)
All outcomes

High risk

No ITT

Morone 2011

Methods

RCT
Method of randomisation: by computer program
Blinding of outcome assessors: stated as 'yes'
Adverse events: control group 4, experimental group 3
Deaths: none
Dropouts: (defined in this study as discontinued intervention) 12 in robotic groups and 9 in control groups
ITT: yes

Participants

Country: Italy
48 participants (24 in treatment group , 24 in control group )
All participants were non‐ambulatory at start of study
Mean age: 62 years
Inclusion criteria: hemiplegia/hemiparesis in the subacute phase with significant gait deficits (FAC < 3) caused by a first‐ever stroke, lesions that were confirmed by computed tomography or magnetic resonance imaging, and age between 18 and 80 years

Exclusion criteria: presence of subarachnoid haemorrhages, sequelae of prior cerebrovascular accidents or other chronic disabling pathologies, orthopaedic injuries that could impair locomotion, spasticity that limited lower extremity range of motion to less than 80%, sacral skin lesions, MMSE score < 24, and hemispatial neglect, as evaluated by a neuropsychologist

Interventions

2 arms (including strata for motor function):

  • After first week post‐admission, participants performed 20 robotic sessions (5 times per week for 4 weeks) instead of a second session of standard physiotherapy. These sessions lasted 40 minutes, 20 of which consisted of active gait‐training therapy (the remaining 20 minutes were allocated for the participant's preparation, parameter setting, and rest breaks as needed)

  • After first week of admission, participants performed 2 daily physiotherapy sessions. One session was dedicated to walking training, consisting of 20 sessions of 40‐minute therapy (5 times per week), instead of a second session of standard physiotherapy. In light of the participant's ability, the walking therapy was focused on trunk stabilisation, weight transfer to the paretic leg, and walking between parallel bars or on the ground. If necessary, the participant was helped by 1 or 2 therapists and walking aids

The standard physiotherapy, shared by both groups, was focused on facilitation of movement on the paretic side and upper limb exercises, as well as improving balance, standing, sitting, and transferring.

Outcomes

Outcomes were recorded by a physician who was blinded to the treatment at baseline, after 4 weeks of the intervention, and at hospital discharge:

  • Primary outcome: walking ability (as measured by FAC)

  • Secondary outcomes: assessments of mobility function and ability level, evaluated by lower‐leg Ashworth (sum of scores for hip, knee, and ankle), Rivermead Mobility Index, Motricity Index, Trunk Control Test, Canadian Neurological Scale, Barthel Index, Rankin Scale, 6‐minute walk test on a 20‐metre path and 10‐metre walk test at a self selected speed

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Generated electronically by www.random.org

Allocation concealment (selection bias)

Low risk

Central allocation

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Yes

Incomplete outcome data (attrition bias)
All outcomes

Low risk

ITT done; missing outcome data balanced in numbers across intervention groups, with similar reasons for missing data across groups.

Noser 2012

Methods

RCT
Method of randomisation: unclear
Blinding of outcome assessors: stated as 'yes'
Adverse events: 4 (2 in experimental group and 2 in control group)
Deaths: none stated
Dropouts: 1 in the control group (protocol violation)
ITT: stated as 'yes'

Participants

Country: USA
21 participants (11 in treatment group, 10 in control group); 20 participants completed all training sessions, and 11 in treatment group and 9 in control group completed the study and were analysed as per protocol
All participants were ambulatory at start of study
Mean age: unclear
Inclusion criteria: people with ischaemic or haemorrhagic stroke confirmed by cerebral CT or MRI scan; age > 18; at least 3 months' poststroke at time of enrolment into study; ability to walk at least 10 feet with maximum 1 person assist, but not to walk in the community independently; residual paresis in the lower extremity as defined by NIHSS lower extremity motor score 2 to 4; ability to perform Lokomat ambulation training with assistance of 1 therapist; ability to follow a 3‐step command; physician approval for patient participation; ability to give informed consent, completed rehabilitation services (i.e. not receiving concurrent physical, occupational, or speech therapy)
Exclusion criteria: serious cardiac condition, uncontrolled blood pressure defined as > 200 or diastolic > 100 at rest, history of serious chronic obstructive pulmonary disease or oxygen dependence, severe weight‐bearing pain, lower extremity amputation, claudication while walking, life expectancy < 1 year, history of deep vein thrombosis or pulmonary embolism within 6 months, severe orthopaedic problem, any medical or psychiatric condition that the investigators believe would prevent participation in study

Interventions

2 arms:

  • Control group received therapist‐assisted gait training (duration and frequency unclear)

  • Experimental group received robotic‐assisted gait training using the Lokomat (duration and frequency unclear)

Outcomes

Outcomes were recorded at baseline and at postintervention, 3 months' postintervention

  • Primary outcome measures: 10‐metre walk test

  • Secondary outcome measures: 6‐minute walk test

Notes

NCT00975156; same study as Kelley 2013

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Unclear

Allocation concealment (selection bias)

Unclear risk

Unclear

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Authors state: "Blinded assessors tested the participants at baseline, post‐intervention, and 3‐month follow‐up."

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

1 participant in the control group was not analysed.

Ochi 2015

Methods

RCT

Method of randomisation: random number table

Blinding of outcome assessors: stated as 'yes'
Adverse events: none
Deaths: none
Dropouts: none

Participants

Country: Japan
26 participants (13 in treatment group, 13 in control group)
Not ambulatory at start of study
Mean age: 62 years in experimental group and 65 years in control group

Inclusion criteria: first‐ever stroke < 5 weeks; age between 40 and 85 years; lower extremities Brunnstrom's recovery stage ≤ grade III; FAC ≤ 2; independence in walking before stroke

Exclusion criteria: height between 145 and 180 cm; body weight over 100 kg; limitation in range of motion in the lower extremity; severe cardiovascular, respiratory, renal, or musculoskeletal disease; difficulty in communicating

Interventions

2 arms:

  • Experimental group: robot‐assisted training (gait‐assistance robot) 5 days/week for 4 weeks (20 minutes)

  • Control group: overground conventional gait training for the same time as experimental group

Outcomes

Outcomes were recorded at baseline and after 4 weeks.

Outcome measures: Fugl‐Meyer Assessment lower extremity, muscle torque, walking ability (FAC), 10‐metre walk test, Functional Independence Measure

Notes

Clinical group differences in FAC at baseline

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)

Unclear risk

No allocation concealment described.

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Described as blinded assessors

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No dropouts, no participants excluded from analysis.

Peurala 2005

Methods

RCT
Method of randomisation: an investigator not involved in the study randomly assigned participants to groups using concealed envelopes
Blinding of outcome assessors: no
Adverse events: none
Deaths: none
Dropouts: none
ITT analysis: not stated

Participants

Country: Finland
45 participants (15 in treatment group A, 15 in treatment group B, 15 in control group)
Ambulatory and non‐ambulatory at study onset
Mean age: 52 years
Inclusion criteria: first supratentorial stroke with duration of illness longer than 6 months, younger than 65 years of age, slow or difficult walking, no unstable cardiovascular disease, no severe malposition of joints, no severe cognitive or communicative disorders, written informed consent
Exclusion criteria: not stated

Interventions

3 arms:

  • Gait trainer exercise without functional electrical stimulation

  • Gait trainer exercise with functional electrical stimulation

  • Walking overground

All participants practised gait for 15 sessions over 3 weeks (each session lasting 20 minutes) and received an additional 55 minutes daily physiotherapy.

Outcomes

Outcomes were recorded at baseline and after 2 and 3 weeks and 6 months:

  • 10‐metre walk test

  • 6‐minute walk test

  • Lower limb spasticity

  • Muscle force

  • Postural sway tests

  • Modified Motor Assessment Scale

  • Functional Independence Measure instrument scores

Notes

Published and unpublished data provided by the authors.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

An investigator not involved in the study randomly assigned participants to groups using concealed envelopes.

Allocation concealment (selection bias)

Low risk

Concealed envelopes

Blinding of outcome assessment (detection bias)
All outcomes

High risk

Not done

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

Unclear if reasons for missing outcome data are unlikely to be related to true outcome

Peurala 2009

Methods

RCT
Method of randomisation: sealed envelopes (stratified according to ability to walk)
Blinding of outcome assessors: no
Adverse events: 2 in treatment group A, 3 in control group
Deaths: 1 in control group
Dropouts: 5 in treatment group A, 1 in treatment group B, 3 in control group
ITT analysis: not stated

Participants

Country: Finland
56 participants (22 in treatment group A, 21 in treatment group B, 13 in control group)
Non‐ambulatory at start of study
Mean age: 68 years
Inclusion criteria: first supratentorial stroke or no significant disturbance from an earlier stroke (Modified Rankin Scale 0 to 2), acute phase after stroke with a maximum duration of 10 days, FAC 0 to 3, voluntary movement in the leg of the affected side, Barthel Index 25 to 75 points, age 18 to 85 years, no unstable cardiovascular disease, body mass index < 32, no severe malposition of joints, no severe cognitive or communicative disorders
Exclusion criteria: not stated

Interventions

Between June 2003 and December 2004, random allocation to 2 arms took place (2 walking exercise groups)

  • Gait training with Gait Trainer device (GT‐Group)

  • Overground walking training (WALK‐Group)

All participants received 55 minutes daily gait‐oriented physiotherapy and additional gait training for 15 sessions over 3 weeks (each session lasting maximum of 20 minutes of walking).

Between January 2005 and February 2007, random allocation to 3 arms took place (3 walking exercise groups)

  • Gait training with Gait Trainer device (GT‐Group)

  • Overground walking training (WALK‐Group)

  • Control group (CT‐Group)

All participants received 55 minutes daily gait‐oriented physiotherapy and additional gait training for 15 sessions over 3 weeks (each session lasting maximum of 20 minutes of walking). However, CT‐Group received 1 or 2 physiotherapy sessions daily but not at the same intensity as in the other groups.

Outcomes

Outcomes were recorded at baseline and after 3 weeks and 6 months:

  • FAC

  • 10‐metre walk test

  • 6‐minute walk test

  • Modified Motor Assessment Scale

  • Rivermead Motor Assessment Scale

  • Rivermead Mobility Index

Notes

Because we were interested in the effects of automated electromechanical‐ and robotic‐assisted gait‐training devices for improving walking after stroke, we combined the results of the CT‐Group and the WALK‐Group as one group, which we compared with the results from the GT‐Group.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

An investigator not involved in the study randomly assigned participants to groups using concealed envelopes.

Allocation concealment (selection bias)

Low risk

Allocation was performed by an independent person not otherwise involved with the participants.

Blinding of outcome assessment (detection bias)
All outcomes

High risk

No

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

Unclear whether reasons for missing outcome data are unlikely to be related to true outcome

Picelli 2016

Methods

RCT
Method of randomisation: software generated
Blinding of outcome assessors: yes
Adverse events: none
Deaths: none
Dropouts: none
ITT analysis: no dropouts

Participants

Country: Italy
22 participants (11 in treatment group, 11 in control group)
Ambulatory at study onset
Mean age: 63 years
Inclusion criteria: age > 18 years, leg spasticity, FAC > 4, duration of illness > 6 months
Exclusion criteria: participation in other trials, deformities such as contractures, spasticity treatment before the study

Interventions

2 arms:

  • Botulinum toxin injections for spastic triceps surae and additional 30 minutes G‐EO gait training for 5 days

  • Botulinum toxin injections for spastic triceps surae without additional gait training

Outcomes

Outcomes were recorded at baseline, 1 month

Primary outcome:

  • Modified Ashworth Scale

Secondary outcomes:

  • Tardieu Scale

  • 6‐minute walk test

Notes

1 group received additional gait training (performance bias).

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Software‐generated random order

Allocation concealment (selection bias)

Low risk

Sealed, opaque envelopes

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Blinded evaluator

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No dropouts

Pohl 2007

Methods

RCT
Method of randomisation: lots indicating A or B were prepared in sealed envelopes
Blinding of outcome assessors: primary outcomes were evaluated by blinded assessors
Adverse events: 4 (3 in experimental group, 1 in control group)
Deaths: 2 (1 in experimental group, 1 in control group)
Dropouts: 11 (5 in experimental group, 6 in control group)
ITT analysis: yes

Participants

Country: Germany
155 participants (77 in treatment group, 78 in control group)
Non‐ambulatory at study onset
Mean age: 63 years
Inclusion criteria: first supratentorial stroke (ischaemic or haemorrhagic); age between 18 and 79 years; interval between stroke and study onset less than 60 days; able to sit unsupported (i.e. without holding onto supports such as the edge of the bed), with feet supported, could not walk at all, or required the help of 1 or 2 therapists irrespective of the use of an ankle‐foot orthosis or a walking aid (FAC 3 or less); understanding the meaning of the study and following instructions, providing written informed consent to participation in the study approved by the local ethical committee
Exclusion criteria: unstable cardiovascular condition after a 12‐lead electrocardiogram examined by a cardiologist, restricted passive range of motion in the major lower limb joints (extension deficit > 20° for the affected hip or knee joints, or a dorsiflexion deficit > 20° for the affected ankle, tested while lying supine and on the non‐affected side), prevalence of other neurological or orthopaedic diseases impairing walking ability

Interventions

2 arms:

  • 20 minutes locomotor training with Gait Trainer in combination with 25 minutes physiotherapy weekdays for 4 weeks

  • 45 minutes physiotherapy weekdays for 4 weeks

Outcomes

Outcomes were recorded at baseline and after 4 weeks and 6 months.

Primary outcomes:

  • Gait ability (FAC 0 to 5)

  • Barthel Index (0 to 100)

Participants who were ambulatory (FAC 4 or 5) or reaching a Barthel Index > 75 were defined as responders to therapy.

Secondary outcomes:

  • Walking velocity

  • Walking endurance

  • Mobility (Rivermead Mobility Index)

  • Leg power (Motricity Index)

Notes

Published and unpublished data provided by the authors.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Lots indicating A or B were prepared in sealed envelopes; a person not involved in the study allocated participants to groups using the concealed envelopes.

Allocation concealment (selection bias)

Low risk

Concealed envelopes

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Blinded primary outcomes (a person not involved in the study rated videotapes of participants)

Incomplete outcome data (attrition bias)
All outcomes

Low risk

ITT analysis done; missing outcome data balanced in numbers across intervention groups, with similar reasons for missing data across groups.

Saltuari 2004

Methods

Cross‐over RCT
Method of randomisation: by random numbers
Blinding of outcome assessors: unclear
Adverse events: none
Deaths: none
Dropouts: none
ITT: yes

Participants

Country: Austria
16 participants (8 in treatment group, 8 in control group)
Ambulatory and non‐ambulatory at study onset
Mean age: 61 years
Inclusion criteria: not provided
Exclusion criteria: not provided

Interventions

2 arms (A: Lokomat, B: physiotherapy):

  • 3 weeks A, 3 weeks B, 3 weeks A

  • 3 weeks B, 3 weeks A, 3 weeks B

Outcomes

Outcomes were recorded at baseline and after 3 weeks (they were additionally recorded after 6 and 9 weeks, but only outcomes of the first phase were included in this review).

Notes

Unpublished data provided by the authors.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

By random numbers

Allocation concealment (selection bias)

Unclear risk

Unclear

Blinding of outcome assessment (detection bias)
All outcomes

Unclear risk

Unclear

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No missing outcome data

Schwartz 2006

Methods

RCT
Method of randomisation: block sampling method (each block contained 6 participants: 4 experimental group and 2 control group)
Blinding of outcome assessors: no
Adverse events: 5 (3 in experimental group, 2 in control group)
Deaths: none
Dropouts: 11 (8 in experimental group, 3 in control group)
ITT: no (stated, but 2 participants from the control group were excluded from analysis)

Participants

Country: Israel
67 participants (at October 2006) (37 in treatment group, 30 in control group)
Non‐ambulatory at study onset
Mean age: 60 years
Inclusion criteria: first stroke, until 3 months after stroke
Exclusion criteria: not provided

Interventions

2 arms:

  • Physiotherapy with additional gait training using the Lokomat 3 times a week for 6 weeks

  • Physiotherapy with additional gait training 3 times a week for 6 weeks

Outcomes

Outcomes were recorded at baseline and after 3, 6, and 9 weeks:

  • FAC

  • NIHSS

  • Stroke Activity Scale

  • Functional Independence Measure

  • Gait velocity

  • 2‐minute walk test

  • Timed Up and Go Test

  • Stair‐climbing test

Notes

Published and unpublished data provided by the authors.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Block sampling

Allocation concealment (selection bias)

Unclear risk

Unclear

Blinding of outcome assessment (detection bias)
All outcomes

High risk

Not done

Incomplete outcome data (attrition bias)
All outcomes

High risk

For dichotomous outcome data, the proportion of missing outcomes compared with observed event risk was enough to induce clinically relevant bias into intervention effect estimate.

Stein 2014

Methods

RCT
Method of randomisation: not stated
Blinding of outcome assessors: stated as 'yes'
Adverse events: none
Deaths: none
Dropouts: none immediately after study end (at 3‐month follow‐up: 2 in experimental group and 2 in control group)

ITT: no

Participants

Country: USA
24 participants (12 in treatment group, 12 in control group)
Ambulatory at start of study
Mean age: 58 years in experimental group and 57 years in control group

Inclusion criteria: single stroke, significant leg weakness and gait alterations < 6 months before study entry, independent in household ambulation

Exclusion criteria: ongoing physical therapy for the leg and/or gait and mobility, botulinum toxin injections < 3 months before study entry, no further planned injections, other neurologic disorders, excessive spasticity of lower limb (Ashworth Scale > 3), uncontrolled hypertension, unstable coronary artery disease, contractures of lower limb, impaired cognition (MMSE score < 24)

Interventions

2 arms:

  • Experimental group: robotic gait treatment (robotic leg brace), 3 days/week for 6 weeks (60 minutes/day)

  • Control group: group exercises for relaxation/meditation, self stretching, and gentle upper and lower limb active range‐of‐motion exercises for the same time

Outcomes

Outcomes were recorded at baseline, after 6, 10, and 19 weeks

Outcome measures: Timed Up and Go Test, 10‐metre walk test, 6‐minute walk test, Five‐Times‐Sit‐to‐Stand Test, Berg Balance Scale, California Functional Evaluation, Emory Functional Ambulation Profile

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Method unclear

Allocation concealment (selection bias)

Unclear risk

Unclear, not described

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Performed by 1 physical therapist blinded to group assignment

Incomplete outcome data (attrition bias)
All outcomes

High risk

No ITT

Tanaka 2012

Methods

Cross‐over RCT
Method of randomisation: computer‐generated randomisation
Blinding of outcome assessors: no
Adverse events: none described
Deaths: none
Dropouts: none
ITT: no

Participants

Country: Japan
12 participants (7 in treatment group, 5 in control group)
All were ambulatory at study onset
Mean age: 62 years
Inclusion criteria: first stroke; more than 6 months since stroke onset; slight‐to‐moderate motor deficit (Brunnstrom recovery stages III–VI); could walk with or without walking aids
Exclusion criteria: higher brain function disorder or cognitive deficit affecting ability to understand and describe symptoms (< 24 on the MMSE); severe heart disorder affecting gait movement intensity; severe bone and joint disease affecting gait movement

Interventions

2 arms (only the first 12 weeks before cross‐over are described here; A: no training, B: gait training with Gait Master 4, 1 session: 20 minutes):

  • 4 weeks A; 2 or 3 times a week, 12 gait training sessions B; 4 weeks A

  • 4 weeks A; 4 weeks A; 4 weeks follow‐up

Outcomes

Outcomes were recorded weekly over a 24‐week period:

  • Gait speed

  • Timed Up and Go Test times

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Computer‐generated randomisation

Allocation concealment (selection bias)

Unclear risk

Unclear

Blinding of outcome assessment (detection bias)
All outcomes

High risk

No

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

Unclear

Tong 2006

Methods

RCT
Randomisation was done by computer‐generated random numbers
Blinding of outcome assessors: no (except for Barthel Index and Functional Independence Measure scores, which were performed by nurses who were blinded)
Adverse events: 2 (none in experimental group, 2 in control group)
Deaths: none
Dropouts: 4 (none in experimental group, 4 in control group)
ITT: yes

Participants

Country: Hong Kong, China
50 participants (15 in treatment group A, 15 in treatment group B, 20 in control group)
Non‐ambulatory at study onset
Mean age: 68 years
Inclusion criteria: diagnosis of first ischaemic brain injury or intracerebral haemorrhage shown by magnetic resonance imaging or computed tomography less than 6 weeks after onset of stroke; sufficient cognition to follow simple instructions and understand the content and purpose of the study (MMSE score > 21); ability to stand upright, supported or unsupported, for 1 minute; significant gait deficit (FAC score < 3); no skin allergy to electrical stimulation
Exclusion criteria: recurrent stroke; other neurological, medical, or psychological deficit or condition that would affect ambulation ability or compliance with study protocol (such as Parkinson's disease, major depression, pain, cardiac arrhythmias); aphasia with an inability to follow 2 consecutive step commands or a cognitive deficit; severe hip, knee, or ankle contracture that would preclude passive range of motion of the leg

Interventions

3 arms:

  • Gait trainer

  • Gait trainer + functional electrical stimulation

  • Conventional physiotherapy alone

The study consisted of 1 training session per weekday for 4 weeks.
Experimental groups 1 and 2 underwent gait training for 20 minutes, with body weight support by an electromechanical gait trainer; group 2 also received functional electrical stimulation to the paretic lower limb during gait training.
Participants in group 3 received physiotherapy overground gait training based on the principles of proprioceptive neuromuscular facilitation and Bobath concepts.

Outcomes

  • 5‐metre walking speed test

  • Elderly Mobility Scale

  • Berg Balance Scale

  • FAC

  • Motricity Index leg subscale

  • Functional Independence Measure instrument score

  • Barthel Index score

Notes

Published and unpublished data provided by the authors.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Computer‐generated random numbers

Allocation concealment (selection bias)

Low risk

Concealed

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Yes for primary outcome

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

ITT unclear

Ucar 2014

Methods

RCT
Method of randomisation: random number list

Blinding of outcome assessors: yes
Adverse events: not described
Deaths: not described
Dropouts: not described
ITT: unknown

Participants

Country: Turkey
22 participants (11 in treatment group, 11 in control group)
Ambulatory at start of study
Mean age: 56 years in experimental group and 62 years in control group

Inclusion criteria: adult male (> 18 years), ability to ambulate 10 metres without personal assistance, and not receiving any other physical therapy

Exclusion criteria: body weight more than 300 pounds (135 kg), FAC score < 3 and not able to walk consistently or independently within the community, cognitive deficits, cardiac disease, spasticity of the lower limbs preventing robotic walking, traumatic stroke, intracranial space occupying lesion‐induced strokes, and seizures

Interventions

2 arms:

  • Experimental group: robotic gait treatment (Lokomat), 30‐minute sessions, 5 sessions per week for 2 weeks

  • Control group: the conventional exercise group received the equivalent additional time of conventional physiotherapy at home as determined by rehabilitation unit physiotherapists. Home exercise procedure focused on gait in order to raise awareness about trunk stability–symmetry and body weight support on the paretic leg. Sessions taken 5 days per week for 2 weeks included active and passive range of motion, active‐assistive exercises, strengthening of the paretic leg, and balance training

Outcomes

Outcomes were assessed at baseline and after 2 and 8 weeks:

  • Walking speed

  • Timed Up and Go Test

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Random number list

Allocation concealment (selection bias)

Unclear risk

Not described

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Stated as blinded

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

Unclear

Van Nunen 2012

Methods

RCT
Method of randomisation: stated as block randomisation
Blinding of outcome assessors: no
Adverse events: none described
Deaths: none
Dropouts: none
ITT: unknown

Participants

Country: Hong Kong, China
50 participants (30 in treatment group , 20 in control group)
Non‐ambulatory at study onset (intervention group: 3 , control group: 2 )

Mean age: 53 years
Inclusion criteria: unknown
Exclusion criteria: unknown

Interventions

2 arms

  • 60‐minute sessions of gait training 2 times a week with the Lokomat, 60‐minute sessions of overground gait training 3 times a week for 8 weeks

  • 60‐minute sessions of overground gait training without device 5 times a week for 8 weeks

Outcomes

Outcomes were assessed at baseline and after 8 weeks:

  • Walking speed

  • FAC

  • Berg Balance Scale

  • Rivermead Mobility Index

  • Fugl‐Meyer Leg Score

Notes

Published and unpublished data provided by the authors.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Unclear

Allocation concealment (selection bias)

Low risk

A person not involved in the study was asked to draw 1 of the opaque envelopes inside which group assignment was established each time a new participant entered the study.

Blinding of outcome assessment (detection bias)
All outcomes

High risk

No

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

Unclear

Waldman 2013

Methods

RCT
Method of randomisation: unclear
Blinding of outcome assessors: no
Adverse events: none described
Deaths: none
Dropouts: none
ITT: unknown

Participants

Country: USA
24 participants (12 in treatment group, 12 in control group)
Ambulatory at study onset

Mean age: 51 years
Inclusion criteria: people with stroke duration longer than 3 months, with reduced ankle range of motion and strength, and able to walk with or without assistant devices
Exclusion criteria: unknown

Interventions

2 arms

  • 18 sessions (1 hour, 3 times a week over 6 weeks) gait training with portable rehabilitation robot

  • 18 sessions (1 hour, 3 times a week over 6 weeks) exercise training without device (instructed exercise for the control group involved stretching the plantar flexors and active movement exercises for ankle mobility and strength)

Outcomes

Outcomes were assessed at baseline and after 6 and 12 weeks :

  • modified Ashworth scale

  • Stroke Rehabilitation Assessment of Movement (STREAM)

  • Berg Balance Scale

  • 6‐minute walk test

  • Passive range of motion

  • Plantar flexor strength

Notes

Published and unpublished data provided by the authors.

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Method not described.

Allocation concealment (selection bias)

High risk

Not described

Blinding of outcome assessment (detection bias)
All outcomes

High risk

Not described

Incomplete outcome data (attrition bias)
All outcomes

Unclear risk

No ITT

Watanabe 2014

Methods

RCT
Method of randomisation: computer generated
Blinding of outcome assessors: stated as 'no'
Adverse events: none
Deaths: none
Dropouts: 10 (6 in experimental group and 4 in control group)

ITT: no

Participants

Country: Japan
32 participants (17 in treatment group, 15 in control group)
Not ambulatory at start of study
Mean age: 67 years in experimental group and 76 years in control group

Inclusion criteria: stroke < 6 months

Exclusion criteria: not ambulating prior to stroke, FAC 4 or 5, severe cardiac disease, NYHA III or IV, severe disturbance of consciousness (Japan Coma Scale II or III), size limitations for the robotic orthosis, skin disease, pacemaker

Interventions

2 arms:

  • Experimental group: robotic gait treatment (robot suit Hybrid Assistive Limb, single‐leg version of the Hybrid Assistive Limb on the paretic side), 20 minutes daily for 12 sessions over 4 weeks

  • Control group: conventional gait rehabilitation for the same amount of time

Outcomes

Outcomes were recorded at baseline, after 12 training sessions

Primary outcome:

  • FAC

Secondary outcomes:

  • Maximum walking speed

  • Timed Up and Go Test

  • 6‐minute walk test

  • Short Physical Performance Battery

  • Fugl‐Meyer Assessment of Lower Extremity

  • Isometric muscle strength (hip flexion and extension, knee flexion and extension)

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

Computer‐generated sequence

Allocation concealment (selection bias)

Unclear risk

Odd‐numbered participants underwent gait training using the Hybrid Assistive Limb, and even‐numbered participants underwent conventional gait training (maybe even high risk of bias).

Blinding of outcome assessment (detection bias)
All outcomes

High risk

Not done

Incomplete outcome data (attrition bias)
All outcomes

High risk

No ITT

Werner 2002

Methods

Cross‐over RCT
Method of randomisation: participants randomly assigned to groups (group allocation in envelopes that were drawn by an independent person)
Blinding of outcome assessors: yes
Adverse events: none
Deaths: none
Dropouts: none
ITT: yes

Participants

Country: Germany
30 participants (15 in treatment group, 15 in control group)
Non‐ambulatory at study onset
Mean age: 60 years
Inclusion criteria: first stroke, supratentorial lesion 4 to 12 weeks' poststroke, younger than 75 years of age, not able to walk (FAC of 2 or less), able to sit unsupported on the edge of a bed, able to stand for at least 10 seconds with help, able to provide and did provide written informed consent
Exclusion criteria: hip and knee extension deficit > 20 degrees; passive dorsiflexion of the affected ankle to less than a neutral position; severe impairment of cognition or communication; evidence of cardiac ischaemia, arrhythmia, decompression, or heart failure; feeling of 'overexertion' or heart rate exceeding the age‐predicted maximum (i.e. 190 beats/minute minus age) during training; resting systolic blood pressure exceeding 200 mm Hg at rest or dropping by more than 10 mm Hg with increasing workload

Interventions

2 arms:

  • 2 weeks A, 2 weeks B, 2 weeks A

  • 2 weeks B, 2 weeks A, 2 weeks B

Treated as inpatients for five 15‐ to 20‐minute sessions per week for 2 weeks
A: treadmill training with body weight support: participants walked on a treadmill with partial body weight support provided by a harness
B: gait trainer with body weight support: participants walked on Gait Trainer with partial body weight support provided by a harness

Outcomes

Outcomes were recorded at baseline and after 2 weeks (additionally after 4 and 6 weeks, but only the first phase was included in this review):

  • FAC

  • Fast walking speed over 10 metres with personal assistance and gait aids if required

  • Rivermead Motor Assessment Scale

  • Ankle spasticity (Modified Ashworth Scale)

Notes

We used the first treatment phase only.
Published and unpublished data provided by the authors.
0% dropouts at the end of first treatment phase (data were analysed as ITT)

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Low risk

By envelopes

Allocation concealment (selection bias)

Low risk

Concealed envelopes that were drawn by an independent person

Blinding of outcome assessment (detection bias)
All outcomes

Low risk

Yes

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No missing data

Westlake 2009

Methods

RCT
Method of randomisation: computer‐generated random order (stratified by fast or slow walking)
Blinding of outcome assessors: not described
Adverse events: 1 in control group
Deaths: none
Dropouts: none
ITT: yes

Participants

Country: USA
16 participants (8 in treatment group, 8 in control group)
All were ambulatory at study onset
Mean age: 57 years
Inclusion criteria: hemiparesis resulting from a single cortical or subcortical stroke > 6 months before the study, categorised as at least unlimited household ambulatory, written informed consent
Exclusion criteria: unstable cardiovascular, orthopaedic, or neurological conditions; uncontrolled diabetes that would preclude exercise of moderate intensity; significant cognitive impairment affecting ability to follow directions

Interventions

2 arms:

  • 12 physiotherapy sessions including gait training using the Lokomat (3 times a week over 4 weeks)

  • 12 physiotherapy sessions including manual guided gait training (3 times a week over 4 weeks)

Outcomes

Outcomes were recorded at baseline and after 4 weeks

  • Self selected and fast walking speed

  • 6‐minute walk test

  • Absolute step length ratio

  • Lower extremity Fugl‐Meyer

  • Short Physical Performance Battery

  • Berg Balance Scale

  • Late‐Life Function & Disability Instrument

Notes

Risk of bias

Bias

Authors' judgement

Support for judgement

Random sequence generation (selection bias)

Unclear risk

Unclear

Allocation concealment (selection bias)

Low risk

Randomisation list was overseen by 1 of the investigators who had no contact with participants until group assignment was revealed.
Group assignment was not revealed to study personnel until the participant consented and baseline testing was complete.

Blinding of outcome assessment (detection bias)
All outcomes

High risk

No

Incomplete outcome data (attrition bias)
All outcomes

Low risk

No missing data

ABC: Activities‐specific Balance Confidence
ADL: activities of daily living
CT: computed tomography
FAC: Functional Ambulation Category
ITT: intention‐to‐treat
MMSE: Mini–Mental State Examination
MRC: Medical Research Council
MRI: magnetic resonance imaging
NIHSS: National Institutes of Health Stroke Scale
NYHA: New York Heart Association
PF‐DF: plantar flexion and dorsiflexion
RAGT: robot‐assisted gait training
RCT: randomised controlled trial
SF‐36: 36‐Item Short Form Health Survey

Characteristics of excluded studies [ordered by study ID]

Study

Reason for exclusion

Bae 2014

Intervention: both groups received robot‐assisted gait training (the experimental group also received functional electrical stimulation on the ankle dorsiflexor of the affected side).

Byun 2011

Uses a sliding rehabilitation machine, not robotic training as experimental condition

Caldwell 2000

Did not investigate electromechanical‐ and robotic‐assisted gait‐training devices as stated in the protocol of this review: bicycle training versus treadmill walking versus variable surface training were investigated

Danzl 2013

Investigates brain stimulation, and both groups participated in identical locomotor training with a robotic gait orthosis

David 2006

Did not meet inclusion criteria of this review: not an RCT

Forrester 2016

Compared different robotic applications

Gong 2003

Did not investigate electromechanical‐ and robotic‐assisted gait‐training devices as stated in the protocol of this review: no electromechanical‐assisted devices were compared

Goodman 2014

Did not meet inclusion criteria of this review: not an RCT

Hesse 2001

Did not meet inclusion criteria of this review: not an RCT

Hsieh 2014

Investigated upper limbs

Mirelman 2009

Did not meet inclusion criteria of this review: experimental and control groups received a kind of assisted stepping therapy in a seated position. This study investigated the effects of virtual reality as an adjunct to stepping training. After discussion, we reached consensus to exclude this study from our review.

Morone 2016

Investigated the i‐Walker, a rollator vehicle

NCT01337960

Compared different robotic approaches

Page 2008

Did not meet inclusion criteria of this review: the experimental group received a kind of assisted stepping therapy in a seated position. This study investigated the effect of the NuStep apparatus. After discussion, we reached consensus to exclude this study from our review.

Park 2015

Uses a treadmill training approach as experimental condition (Gait Trainer 2 analysis system, Biodex Medical Systems, Inc., Shirley, NY, USA)

Patten 2006

According to the information on ClinicalTrials.gov (NCT00125619), this is a 1‐arm, non‐randomised trial.

Pennati 2015

Investigated upper limbs

Picelli 2015

Both groups received the same robotic treatment.

Pitkanen 2002

Did not meet inclusion criteria of this review: the study describes preliminary findings of an initial sample of 9 participants; the experimental group received treadmill training or gait training

Richards 1993

Did not meet inclusion criteria of this review: the experimental group received a specialised locomotor training including early intensive physiotherapy with tilt table, limb load monitor, resistance exercises, and treadmills to promote functional recovery. After discussion, we reached consensus to exclude this study.

Richards 2004

Did not meet inclusion criteria of this review: the experimental group received specialised locomotor training including early intensive physiotherapy with tilt table, limb load monitor, resistance exercises and treadmills to promote functional recovery. After discussion, we reached consensus to exclude this study.

Shirakawa 2001

Not an RCT

Skvortsova 2008

Not an RCT, control groups were age and sex matched

Stoller 2015

Compared 2 treadmill exercise options

Wu 2014

Compared different modes (resistance versus assistance training) of the same robotic device

RCT: randomised controlled trial

Characteristics of studies awaiting assessment [ordered by study ID]

Chernikova 2014

Methods

Probably an RCT

Participants

Unclear

Interventions

Unclear

Outcomes

Unclear

Notes

Globokar 2005

Methods

Probably an RCT

Participants

People after stroke, number unclear

Interventions

2 arms:

  • 25 minutes neurophysiotherapy plus 20 minutes of Gait Trainer

  • Not described

Outcomes

Unclear

Notes

This study was presented at the 5th World Congress of Physical Medicine and Rehabilitation.

Golyk 2006

Methods

Probably an RCT

Participants

Unclear

Interventions

Unclear

Outcomes

Unclear

Notes

Jang 2005

Methods

Probably an RCT

Participants

34 non‐ambulatory stroke survivors

Interventions

2 arms:

  • 14 participants: 20 minutes of physiotherapy 2 days per week and 20 minutes of Gait Trainer 3 days per week

  • 20 participants: 20 minutes of physiotherapy 5 days per week

Outcomes

Unclear

Notes

This study was presented at the 5th World Congress of Physical Medicine and Rehabilitation.

Kim 2001

Methods

Probably an RCT

Participants

Unclear

Interventions

Unclear

Outcomes

Unclear

Notes

Study was found in the Proceedings of the 1st International Congress of International Society of Physical and Rehabilitation Medicine (ISPRM), 2001 July 7‐13.

Kim 2014

Methods

Probably an RCT

Participants

Unclear

Interventions

Unclear

Outcomes

Unclear

Notes

Koeneman 2004

Methods

Probably an RCT

Participants

Unclear

Interventions

Unclear

Outcomes

Unclear

Notes

Mehrberg 2001

Methods

Probably an RCT

Participants

Unclear

Interventions

Unclear

Outcomes

Unclear

Notes

Ohata 2015

Methods

Probably a randomised cross‐over trial

Participants

23 participants with stroke (stroke onset < 6 months)

Group 1 (N = 13; mean: 60.9 ± 9.6 years)

Group 2 (N = 10; mean: 61.1 ± 14.6 years)

Interventions

Gait training with the Stride Management Assist device (Honda R&D Co., Ltd. Japan) (20 minutes/time, 5 times per week for 4 weeks)

Conventional rehabilitation (40 minutes/time) 4 weeks

Outcomes

  • Brunnstrom Recovery Stage

  • Sensory subscale of Fugl‐Meyer Assessment

  • Modified Ashworth Scale

  • Barthel Index

  • Short‐Form Berg Balance Scale

  • Functional Reach

  • Activities‐specific Balance Confidence Scale

  • Functional Ambulation Category

  • 10‐metre walk test

  • Timed Up and Go Test

  • Muscle strength measured by hand‐held dynamometry

Notes

Published as abstract

Sale 2012

Methods

Probably an RCT

Participants

Unclear

Interventions

Unclear

Outcomes

Unclear

Notes

No longer at ClinicalTrials.gov

Wu 2012

Methods

Probably an RCT

Participants

Unclear

Interventions

Unclear

Outcomes

Unclear

Notes

Yoon 2015

Methods

Probably an RCT

Participants

Unclear

Interventions

N = 10 in gait training with active‐assistive gait device group

N = 10 in control group

Outcomes

  • 10‐metre walk test (m/s)

  • Step cycle (cycle/s)

  • Step length (m)

  • Angle of ankle dorsiflexion in swing phase

  • Korean Modified Barthel Index

  • Manual Muscle Test

  • Modified Ashworth Scale of hemiplegic ankle

Notes

Conference abstract

Zhu 2016

Methods

Probably an RCT

Participants

Unclear

Interventions

Unclear

Outcomes

Unclear

Notes

RCT: randomised controlled trial

Characteristics of ongoing studies [ordered by study ID]

Louie 2015

Trial name or title

Use of a powered robotic exoskeleton to promote walking recovery after stroke: study protocol for a randomised controlled trial

Methods

Single‐blind randomised controlled trial to evaluate the efficacy of a powered mobile exoskeleton (Ekso) on improving walking ability in people early after stroke

Participants

50 individuals admitted for stroke rehabilitation in Canada, within 4 weeks' poststroke and needing second person assist to walk, will be randomly assigned to either a usual care group or exoskeleton group for 5 days/week for 4 weeks.

Interventions

2 arms:

  • Usual care will consist of daily 1‐hour physical therapy with approximately 45 minutes of walking‐related activities including muscle strengthening and standing

  • Exoskeleton group will receive the same care, except that the 45 minutes of walking‐related activities will initially take place with the participant wearing an exoskeleton to ensure early overground walking; participants will transition to walking without the device when able

Outcomes

Outcomes will be measured at baseline, 4 weeks later at discharge, and at 6 months after program ends.

Primary outcome:

  • Walking ability (FAC)

Secondary outcomes:

  • Walking speed (10‐metre walk test)

  • Endurance (6‐minute walk test)

  • Quality of life

Starting date

Unknown

Contact information

Louie DR1,2

1University of British Columbia, Vancouver, Canada

2Rehabilitation Research Program, Vancouver Coastal Health Research Institute, Vancouver, Canada

Notes

Presented at the Canadian Stroke Conference, Toronto, 2015 September 17

NCT00284115

Trial name or title

Efficacy of a mechanical gait repetitive training technique compared with a usual rehabilitation program on gait recovery in hemiparetic stroke patients

Methods

RCT with 2 arms

Participants

Country: France
Inclusion criteria: men or women aged 18 years or older; hemiplegia secondary to stroke; interval between stroke and study inclusion of 2 months or less; first‐time supratentorial stroke; non‐ambulatory (FAC stage 0); able to sit unsupported at the edge of the bed; no severe impairment of cognition or communication; written informed consent provided
Exclusion criteria: orthopaedic or rheumatological disease impairing mobility, or both; other neurologically associated disease; history of myocardial infarction or deep venous embolism or pulmonary embolism within 3 months before study inclusion; chronic pulmonary disease; intolerance to standing up

Interventions

4‐week rehabilitation programme comparing physiotherapy and gait trainer therapy with physiotherapy alone

Outcomes

Primary outcomes: walking speed (time needed to walk 10 metres) after the 4‐week rehabilitation programme
Secondary outcomes: FAC; walking endurance (6‐minute walk test); time to self sufficient gait recovery; spasticity (Modified Ashworth Scale); Motricity Index; need for mobility and self assistance (Barthel Index, PMSI‐SSR scores, need for physical assistance); economic evaluation (healthcare requirements, rehabilitation unit length of stay)

Starting date

March 2006

Contact information

Principal Investigator:
Régine Brissot, MD, Service de Médecine Physique et Réadaptation, Hôpital Pontchaillou, Rennes, 35033, France
Tel: +33 2 9928 4219
email: regine.brissot@chu‐rennes.fr

Notes

Expected total enrolment: 122 participants
Sponsored by: Rennes University Hospital
Information derived from: ClinicalTrials.gov identifier: NCT00284115

NCT00530543

Trial name or title

Effects of gait training with assistance of a robot‐driven gait orthosis in hemiparetic patients after stroke

Methods

Randomised

2 arms

Participants

Inclusion criteria

  • first‐ever stroke

  • hemiplegic patient after stroke

  • can stand independently, but cannot walk more than 10 meters independently

  • muscle powers of hip and knee are more than poor on manual muscle test

Exclusion criteria

  • previous gait difficulty before stroke onset

  • arthralgia on lower extremity

  • uncontrolled hypertension or hypotension

  • severe medical illness

Interventions

Robot‐assisted gait training

Outcomes

Not provided

Starting date

Unknown status

Contact information

Not provided

Notes

The recruitment status of this study is unknown. The completion date has passed, and the status has not been verified in more than 2 years.

NCT01146587

Trial name or title

Comparative study of GangTrainer GT1, Lokomat and conventional physiotherapy (GALOP)

Methods

RCT with 3 arms

Participants

Inclusion criteria: first supratentorial stroke (ischaemic, haemorrhagic, or intracerebral haemorrhage) resulting in hemiparesis; interval from stroke 3 to 12 weeks; non‐ambulatory (FAC < 3); free sitting on bedside for 1 minute, with both feet on the floor and holding onto bedside by hands; Barthel Index 25 to 65
Exclusion criteria: unstable cardiovascular system (in case of doubt, only after approval by an internist); manifested heart diseases like labile compensated cardiac insufficiency (NYHA III), angina pectoris, myocardial infarction 120 days before study onset, cardiomyopathy, severe cardiac arrhythmia, severe joint misalignment (severe constriction of movement for hip, knee, or ankle, or any combination of the 3: more than 20° fixed hip and knee extension deficit, or more than 20° fixed plantar flexion of the ankle); severe cognitive dysfunction that prevents comprehension of the aims of study; severe neurological or orthopaedic diseases (e.g. polio, Parkinson's disease) that massively affect mobility; deep vein thrombosis; severe osteoporosis; or malignant tumour disease

Interventions

Group A: 30 minutes of treatment on the GangTrainer GT1 and 30 minutes of conventional physiotherapy every workday for 8 weeks
Group B: 30 minutes of treatment on the Lokomat and 30 minutes of conventional physiotherapy every workday for 8 weeks
Group C: 60 minutes of conventional physiotherapy every workday for 8 weeks

Outcomes

Primary outcomes: FAC, modified Emory Functional Ambulation

Secondary outcomes: Barthel Index, 10‐metre walk test, 6‐minute walk test on the floor, Medical Research Council, Rivermead Visual Gait Assessment, EuroQol‐5 Dimensions (EQ‐5D)

Starting date

August 2010

Contact information

Contact: Andreas Waldner, MD; +39 0471 471 471; [email protected]
Contact: Christopher Tomelleri, MSc; +39 0471 471 471; [email protected]

Notes

Estimated enrolment: 120
Estimated study completion date: August 2013
Estimated primary completion date: August 2013 (final data collection date for primary outcome measure)

NCT01187277

Trial name or title

A randomised controlled trial on hemiplegic gait rehabilitation: robotic locomotor training versus conventional training in subacute stroke

Methods

RCT with 2 arms

Participants

Country: Thailand
Inclusion criteria: subacute first‐time stroke patients (haemorrhage and ischaemic), age 18 to 80 years, impaired FAC at initial score 0 to 2, cardiovascular stable, provided signed informed consent

Exclusion criteria: unstable general medical condition, severe malposition or fixed contracture of joint with an extension deficit > 30°, any functional impairment before stroke, cannot adequately co‐operate in training, severe communication problems, severe cognitive‐perceptual deficits

Interventions

Group A: conventional therapy: 50 minutes individual physiotherapy and 60 minutes individual occupational therapy per workday (5 times per week) for 4 consecutive weeks
Group B: conventional therapy plus robot‐assisted gait training: 30 minutes individual physiotherapy plus 20 minutes robotic‐assisted gait training (with Gait Trainer GT1) and 60 minutes individual occupational therapy per workday (5 times per week) for 4 consecutive weeks

Outcomes

Primary outcomes: FAC 0 to 5 and Barthel Index 0 to 100
Secondary outcome: Berg Balance Scale 0 to 56, Resistance to Passive Movement Scale (REPAS)‐Muscle tone 0 to 52

Starting date

January 2011

Contact information

Principal Investigator:

Ratanapat Chanubol, MD, Rehabilitation Department, Prasat Neurological Institute, Mahidol University

Notes

Study Completion Date: July 2012

Enrolment: 60

NCT01678547

Trial name or title

Robot walking rehabilitation in stroke patients

Methods

RCT with 3 arms

Participants

Inclusion criteria: between the ages of 18 and 95 years, able to walk 25 feet unassisted or with assistance, first acute event of cerebrovascular stroke, unilateral paresis, ability to understand and follow simple instructions, ability to walk without assistance before stroke, endurance sufficient to stand at least 20 minutes unassisted per participant report
Exclusion criteria: unable to understand instructions required by the study (Informed Consent Test of Comprehension), medical or neurological comorbidities that could contribute to significant gait dysfunction, uncontrolled hypertension > 190/110 mm Hg, significant symptoms of orthostasis when standing up, circulatory problems, history of vascular claudication or significant (+ 3) pitting oedema, lower extremity injuries or joint problems (hip or leg) that limit range of motion or function or cause pain with movement, bilateral impairment, severe sensory deficits in the paretic upper limb, cognitive impairment or behavioural dysfunction that would influence the ability to comprehend or participate in the study, women who are pregnant or lactating, or both

Interventions

Experimental group: Robot G‐EO: each participant will be asked to perform 15 sessions (3 to 5 days a week for 4 up to 5 weeks) consisting of a treatment cycle using the G‐EO system device, according to individually tailored exercise scheduling
Control group: Treadmill training: each participant will be asked to perform 15 sessions (3 to 5 days a week for 4 up to 5 weeks) consisting of a treatment cycle using the treadmill system device, according to individually tailored exercise scheduling
Control group: Ground treatment: each participant will be asked to perform 15 sessions (3 to 5 days a week for 4 up to 5 weeks) of traditional lower limb physiotherapy

Outcomes

Starting date

September 2012

Contact information

Contact: Patrizio Sale, MD; [email protected]
Contact: Marco Franceschini, MD; [email protected]

Notes

Estimated enrolment: 90
Estimated study completion date: September 2015
Estimated primary completion date: August 2014 (final data collection date for primary outcome measure)

NCT01726998

Trial name or title

Effects of locomotion training with assistance of a robot‐driven gait orthosis in hemiparetic patients after subacute stroke

Methods

Randomised trial

2 arms

Participants

Inclusion criteria

  • Hemiparesis as result of first stroke

  • No other neurologic or orthopaedic disorder

  • Independent ambulation before the stroke

  • No severe medical illnesses

  • Hemiparesis: lower extremity strength graded ≤ 3 in more than 2 muscle groups

  • FAC ≤ 1: indicating a need for personal assistance in ambulation

  • Time since stroke onset < 6 months

  • Age 20 to 80 years old

Exclusion criteria

  • Unstable fractures

  • Severe osteoporosis

  • Severe skin problems

  • Severe joint problems

  • Major difference in leg length

  • Body weight over 130 kg

  • Orthostatic circulatory problem

  • Severe cognitive impairment

72 first‐ever stroke patients who could not walk independently (FAC < 2), and suffered stroke within 6 months were enrolled and randomly assigned into 2 groups. People with congestive heart failure, malignancies, cardiopulmonary dysfunctions, and who could not walk independently before their stroke were excluded.

Interventions

2 groups received 30 minutes of conventional gait training including neurodevelopmental treatment:

  • the robotic‐assisted locomotor training group received additional robotic‐assisted gait therapy for 30 minutes with Lokomat (Hocoma, Zurich, Switzerland) daily for 4 weeks;

  • the conventional gait‐training group received additional daily conventional gait training with neurodevelopmental treatment for the same period.

Outcomes

Independent walking ability (FAC ≥ 3), FAC, Motricity index, Fugl‐Meyer Assessment, Modified Barthel Index, Medical Research Council were assessed for lower extremity muscles before, during (2 weeks), and after training. Independent walking ability was followed until 3 months.

Starting date

March 2012

Contact information

Yonsei University

Notes

NCT02114450

Trial name or title

Human‐machine system for the H2 lower limb exoskeleton (H2‐NeuroExo)

Methods

RCT with 2 arms

Participants

Inclusion criteria

  • Subacute or chronic stroke, i.e. interval of at least 3 months or at least 6 months from stroke to time of enrolment, respectively

  • Cognitive ability to assimilate and participate actively in the treatment protocol (Mini Mental State Examination score > 24 points, out of a total 30 indicating normal cognitive ability)

  • Modified Rankin Scale scores 2 to 4 (mild‐moderate functional disability poststroke)

  • Modified Ashworth Scale of Spasticity score ≤ 2 (range 0 to 4, with 4 reflecting maximum spasticity)

  • Have no skin integrity issues

  • Sufficient passive range of motion at the hip (at least 90° flexion, 15° to 20° extension), knee (90° flexion, complete extension), and ankle (15° dorsiflexion, 15° plantar flexion)

  • Have no contraindications to standing or walking; able to stand with assistive device for at least 5 minutes; and able to walk with assistive device for 10 metres

Exclusion criteria

  • Severe cognitive or visual deficit, or both

  • Hemineglect (determined based on medical record or initial clinical assessment)

  • Severe sensory deficit

  • Joint contractures of any extremity that limit normal range of motion during ambulation with assistive devices

  • Skin lesions that may hinder or prevent the application of exoskeleton

  • Uncontrolled angina

  • Severe chronic obstructive pulmonary disease

  • Other medical contraindications; any medical comorbidities that would prevent standard rehabilitation

Interventions

Experimental: robot‐assisted rehabilitation participants will receive robot‐assisted training with the H2 lower limb powered exoskeleton. They will perform walking and other lower limb exercises (as applicable) while wearing the H2 lower limb powered exoskeleton. Training will involve 3 sessions per week for 4 weeks, each lasting about 1.5 hours.

Control: supervised motor practice participants will perform walking and other lower limb exercises (as applicable) under the supervision of a research physical therapist. Training will involve 3 sessions per week for 4 weeks, each lasting about 1.5 hours.

Outcomes

Primary outcome measures

  • Change from baseline in Fugl‐Meyer Assessment Lower Extremity

  • Functional Gait Assessment

  • Lower limb joint kinematics during walking

  • Cortical dynamics measured by electroencephalography

Secondary outcome measures

  • Robotic measure of performance measured by the H2

  • Berg Balance Scale score

  • Distance walked during the 6‐minute walk test

  • Timed Up and Go Test score

Starting date

March 2014

Contact information

clinicaltrials.gov/ct2/show/study/NCT02114450#contacts

Notes

NCT02471248

Trial name or title

Interactive exoskeleton robot for walking ‐ ankle joint

Methods

Randomised

2 arms

Participants

Inclusion criteria

  • Ischaemic or haemorrhagic stroke with drop‐foot problem

  • Sufficient cognition to follow simple instructions and to understand the content and purpose of the study (Mini Mental State Examination > 21)

  • Capable of standing and walking independently for an extended period of time (FAC > 3, Berg Balance Scale > 40)

Exclusion criteria

  • Any medical or psychological dysfunctions that would affect ability to comply with test study protocol, such as lower back pain, neuralgia, rotational vertigo, musculoskeletal disorders, injuries, and pregnancy

  • Any severe contractures in hip, knee, or ankle joint that would preclude passive range of motion in the lower extremity

  • Participation in any therapeutic treatment ("outside therapy") performed with the lower extremity during the planned study, including the baseline and the follow‐up

Interventions

  • Experimental: ankle robot with power assistance. The ankle robot assists the ankle dorsiflexion when the stroke patient voluntarily performs the swing phase gait movement.

  • Placebo comparator: sham group. The ankle robot provides very low assistance to generate tactile feedback to the stroke patient indicating the patient is performing the swing phase gait movement, but no assistance will be given to support ankle dorsiflexion.

Outcomes

  • Fugl‐Meyer Assessment Lower Extremity

  • Timed 10‐metre walk test

  • 6‐minute walk test

  • Berg Balance Scale

  • Modified Ashworth Scale

  • Kinematic and Kinetic Gait Motion Capture

  • Subjective feedback questionnaire

Starting date

June 2015

Contact information

Raymond KY Tong, Professor, Chinese University of Hong Kong

Notes

NCT02483676

Trial name or title

Adaptive ankle robot control system to reduce foot‐drop in chronic stroke

Methods

Randomised

2 arms

Participants

Inclusion criteria

  • Ischaemic or haemorrhagic stroke > 2 months prior in men or women

  • Residual hemiparesis of the lower extremity that includes symptoms of foot‐drop

  • Capable of ambulating on a treadmill with handrail support

  • Have completed all conventional physical therapy

  • Adequate language and cognitive function to provide informed consent and participate in testing and training

Exclusion criteria

  • Cardiac history of: unstable angina, recent (< 3 months) myocardial infarction, congestive heart failure (NYHA category II or higher), haemodynamic valvular dysfunction, hypertension that is a contraindication for a bout of treadmill training (> 160/100 on 2 assessments)

Interventions

  • Device: treadmill plus Anklebot: this intervention employs the use of the adaptive Anklebot control system to complement treadmill exercise training over a 6‐week intervention period

  • Behavioural: treadmill only: this intervention employs the use of a treadmill for gait exercise training over a 6‐week intervention period

Outcomes

  • Independent gait function indexed by gait velocity, swing‐phase dorsiflexion, terminal stance push‐off

  • Balance function indexed by measures of postural sway (centre of pressure), asymmetric loading in quiet standing, peak paretic anteroposterior forces in non‐paretic gait initiation, and standardised scales for balance and fall risk

  • Long‐term mobility outcomes, assessed by repeated measures of all key gait and balance outcomes at 6 weeks and 3 months after cessation of formal training

Starting date

September 2015

Contact information

clinicaltrials.gov/ct2/show/study/NCT02483676?term=NCT02483676&rank=1#contacts

Notes

NCT02545088

Trial name or title

New technology for individualised, intensive training of gait after stroke ‐ phase III trials, study II

Methods

Randomised

3 arms

Participants

Inclusion criteria

  • 1 to 10 years since stroke onset

  • Able to walk but not independently, i.e. need for manual support or close supervision due to lower extremity paresis; FAC score 2 to 3 or FAC 4 combined with gait speed < 0.8 m/s according to 10‐metre walk test, which corresponds to limitations in community ambulation

  • Ability to understand training instructions as well as written and oral study information and to express informed consent or by proxy

  • Body size compatible with the Hybrid Assistive Limb (HAL) suit

Exclusion criteria

  • Contracture restricting gait movements at any lower limb joint

  • Cardiovascular or other somatic condition incompatible with intensive gait training

  • Severe, contagious infections (e.g. methicillin‐resistant Staphylococcus aureus or extended‐spectrum beta‐lactamase bacteria)

Interventions

  • Device: Hybrid Assistive Limb (HAL) intensive gait training is performed 1 session/day, 3 days/week for 6 weeks; each session will not exceed 60 minutes of effective walking time with HAL. In addition, each session will include conventional gait training that will not exceed 30 minutes effective training time.

  • 1st control group: conventional gait training performed 1 session/day, 3 days/week for 6 weeks that will not exceed 90 minutes effective training time

  • 2nd control group: no intervention

Outcomes

  • FAC

  • Fugl‐Meyer Assessment Lower Extremity

  • Modified Ashworth Scale

  • Spasticity measured with NeuroFlexor foot module Spasticity

  • Berg Balance Scale

  • 10‐metre walk test

  • 2‐minute walk test

  • 6‐minute walk test

  • Borg Rating of Perceived Exertion Scale

  • Montreal Cognitive Assessment

  • Hospital Anxiety and Depression Scale

  • Barthel Index

  • Stroke Impact Scale

  • Physical activity in everyday life using SenseWear

  • Gait Deviation Index (Laboratory gait analysis)

Starting date

October 2015

Contact information

clinicaltrials.gov/ct2/show/study/NCT02545088?term=NCT02545088&rank=1#contacts

Notes

NCT02680691

Trial name or title

Robot assisted gait training in patients with infratentorial stroke

Methods

Randomised

2 arms

Participants

Inclusion criteria

  • Patients with infratentorial stroke

  • Cognitively intact enough to understand and follow the instructions from the investigator

Exclusion criteria

  • Chronic neurological pathology

  • Orthopaedic injuries

  • Femur lengths of less than 34 cm

  • Severely limited range of lower extremity joint motion

  • Medical instability

Interventions

  • Experimental: robot, then conventional training: robot‐assisted gait training 4 weeks after conventional gait training

  • Active comparator: conventional, then robot training: conventional gait training 4 weeks after robot‐assisted gait training

Outcomes

Primary outcome measures

  • Berg Balance Scale

Secondary outcome measures

  • Trunk Impairment Scale

  • FAC

  • 10‐metre walk test

  • Fugl‐Meyer Assessment

  • Korean version of Falls Efficacy Scale (assesses fear of falling in the elderly population) (time frame: baseline, 4 weeks from baseline, 8 weeks from baseline, 12 weeks from baseline); designated as safety issue: no perception of balance and stability during activities of daily living

  • Scale for the assessment and rating of ataxia

  • Balance test using force plate

Starting date

April 2015

Contact information

clinicaltrials.gov/ct2/show/study/NCT02680691?term=NCT02680691&rank=1#contacts

Notes

NCT02694302

Trial name or title

Clinical trial of robot‐assisted‐gait‐training (RAGT) in stroke patients (Walkbot)

Methods

Randomised

2 arms

Participants

Inclusion criteria

  • Age older than 19 years and younger than 80 years

  • Weight under 100 kg

  • Height less than 200 cm

  • Able to walk independently before onset of stroke

  • Ischaemic or haemorrhagic stroke patients

  • Motor paralysis and gait disturbance after stroke and seeking rehabilitation treatment

  • FAC under 3 (0 ˜ 2)

  • Subacute stroke patients, i.e. after 3 days and before 3 months of stroke onset

  • Be informed of the nature of the study and agreed on written consent voluntarily

  • Taking medications or scheduled medications due to stroke

Exclusion criteria

  • Contraindications to weight bearing such as fractures, etc.

  • Uncontrolled stage 2 hypertension (systolic over 160 mm Hg or diastolic over 100 mm Hg) or with uncontrolled orthostatic hypotension

  • Cardiopulmonary disease or other underlying diseases that cannot tolerate gait training

  • Severe skin damage and bedsore on wearing part of the trial device

  • Pregnant or breastfeeding

  • Participationin other clinical trials within 30 days

  • People whom the investigator considers inappropriate to participate in the study

Interventions

  • Walkbot (robot‐assisted gait training) 30 minutes and conventional physical therapy 30 minutes per day to be administered 5 times a week for 3 weeks

  • Conventional physical therapy 30 minutes to be administered twice a day, 5 times a week for 3 weeks

Outcomes

Primary outcome measure

  • FAC

Secondary outcome measures

  • Motricity Index

  • 10‐metre walk test

  • 6‐minute walk test

  • Medical Research Council

  • Modified Ashworth Scale

  • Fugl‐Meyer Assessment

  • Modified Barthel Index

  • National Institutes of Health Stroke Scale

  • Beck Depression Inventory

  • Treatment Satisfaction Survey

Starting date

March 2014

Contact information

P&S Mechanics Co., Ltd.

Notes

NCT02755415

Trial name or title

Clinical applicability of robot‐assisted gait training system in acute stroke patients

Methods

Randomised

2 arms

Participants

Inclusion criteria

  • Between the ages of 20 and 80 years

  • Diagnosis of first single unilateral cortical‐subcortical acute stroke verified by brain imaging

  • Paresis of a lower limb

  • Ability to walk only a few metres either with or without aid

Exclusion criteria

  • Deemed by a physician to be medically unstable

  • Other prior musculoskeletal conditions that affected gait capacity

  • Coexistence of other neurological diseases

  • Cognitive impairments that would impact on the safe participation in the study (Mini Mental State Examination < 23)

Interventions

Device: HIWIN Robotic Gait Training System˜: the HIWIN Robotic Gait Training System is an automatic training system that combines weight‐bearing standing, repetitive stepping, and gait training

Outcomes

  • Berg Balance Scale

  • Pittsburgh Sleep Quality Index

  • EuroQol‐5 Dimensions (EQ‐5D)

  • 6‐minute walk test

  • Beck Depression Inventory

Starting date

May 2016

Contact information

China Medical University Hospital

Notes

Other study ID: CMUH105‐REC1‐037

NCT02781831

Trial name or title

Robot‐assisted gait training for patients with stroke

Methods

Randomised

2 arms

Participants

Inclusion criteria

  1. Between the ages of 20 and 65 years

  2. Diagnosis of first single unilateral cortical‐subcortical stroke verified by brain imaging

  3. Paresis of a lower limb

  4. Inability to walk without aid or device

Exclusion criteria

  1. Deemed by a physician to be medically unstable

  2. Other prior musculoskeletal conditions that affected gait capacity

  3. Coexistence of other neurological diseases

  4. Cognitive impairments that would impact on the safe participation in the study (Mini Mental State Examination < 23)

Interventions

Standard hospital‐based rehabilitation for people with stroke

Outcomes

  • Fugl‐Meyer Assessment Lower Extremity

  • 10‐metre walk test

  • Berg Balance Scale

Starting date

May 2016

Contact information

Principal Investigator: Nai‐Hsin Meng, MD, China Medical University Hospital

Notes

HIWIN‐CMU‐C‐105‐1

NCT02843828

Trial name or title

Gait pattern analysis and feasibility of gait training with a walking assist robot in stroke patients and elderly adults

Methods

Randomised

2 treatment groups

Participants

Number of participants: 54 (n = 27 per group)

Inclusion criteria

  • Elderly adults: age between 65 and 84 years; no neurological or musculoskeletal abnormalities affecting gait; ability to walk at least 10 metres regardless of assist devices; high levels of physical performance (Short Physical Performance Battery > 7); participant is willing to be randomised to either the control group or the treatment group

  • Stroke: age between 50 and 84 years; ≥ 3 months' poststroke; ability to walk at least 10 metres regardless of assist devices; adequate gait function (FAC > 3); physician approval for patient participation; participant is willing to be randomised to either the control group or the treatment group

Exclusion criteria

  • Elderly adults: history of any diseases (e.g. lower extremity orthopaedic diseases, neurologic disorders, cardiovascular disease, heart failure, uncontrolled hypertension) that affect walking capacity, efficiency, and endurance; severe visual impairment or dizziness that increases the risk of falls

  • Stroke: serious cardiac conditions (hospitalisation for myocardial infarction or heart surgery within 3 months, history of congestive heart failure, documented serious and unstable cardiac arrhythmias, hypertrophic cardiomyopathy, severe aortic stenosis, angina or dyspnoea at rest or during activities of daily living); advanced liver, kidney, cardiac, or pulmonary disease; history of concussion in last 6 months; history of unexplained, recurring headaches, epilepsy/seizures/skull fractures, or skull deficits

Interventions

Group 1 : gait rehabilitation with hip assist robot (Samsung Hip Assist v1): 10 sessions (5 sessions: treadmill gait training/5 sessions: overground gait training), 30 minutes per session

Group 2 : gait rehabilitation without hip assist robot: 10 sessions (5 sessions: treadmill gait training/5 sessions: overground gait training), 30 minutes per session

Outcomes

  • Berg Balance Scale

  • Tinetti Performance‐Oriented Mobility Assessment

  • Modified Barthel Index

  • FAC

Starting date

September 2015

Contact information

Yun‐Hee Kim, MD, PhD; 82‐2‐3410‐2824 [email protected]

Notes

FAC: Functional Ambulation Category
NYHA: New York Heart Association
RCT: randomised controlled trial

Data and analyses

Open in table viewer
Comparison 1. Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care)

Outcome or subgroup title

No. of studies

No. of participants

Statistical method

Effect size

1 Independent walking at the end of intervention phase, all electromechanical devices used Show forest plot

36

1472

Odds Ratio (M‐H, Random, 95% CI)

1.94 [1.39, 2.71]

Analysis 1.1

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 1 Independent walking at the end of intervention phase, all electromechanical devices used.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 1 Independent walking at the end of intervention phase, all electromechanical devices used.

2 Recovery of independent walking at follow‐up after study end Show forest plot

6

496

Odds Ratio (M‐H, Random, 95% CI)

1.93 [0.72, 5.13]

Analysis 1.2

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 2 Recovery of independent walking at follow‐up after study end.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 2 Recovery of independent walking at follow‐up after study end.

3 Walking velocity (metres per second) at the end of intervention phase Show forest plot

24

985

Mean Difference (IV, Random, 95% CI)

0.04 [‐0.00, 0.09]

Analysis 1.3

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 3 Walking velocity (metres per second) at the end of intervention phase.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 3 Walking velocity (metres per second) at the end of intervention phase.

4 Walking velocity (metres per second) at follow‐up Show forest plot

9

578

Mean Difference (IV, Random, 95% CI)

0.07 [‐0.05, 0.19]

Analysis 1.4

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 4 Walking velocity (metres per second) at follow‐up.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 4 Walking velocity (metres per second) at follow‐up.

5 Walking capacity (metres walked in 6 minutes) at the end of intervention phase Show forest plot

12

594

Mean Difference (IV, Random, 95% CI)

5.84 [‐16.73, 28.40]

Analysis 1.5

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 5 Walking capacity (metres walked in 6 minutes) at the end of intervention phase.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 5 Walking capacity (metres walked in 6 minutes) at the end of intervention phase.

6 Walking capacity (metres walked in 6 minutes) at follow‐up Show forest plot

7

463

Mean Difference (IV, Random, 95% CI)

‐0.82 [‐32.17, 30.53]

Analysis 1.6

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 6 Walking capacity (metres walked in 6 minutes) at follow‐up.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 6 Walking capacity (metres walked in 6 minutes) at follow‐up.

7 Acceptability of electromechanical‐assisted gait training devices during intervention phase: dropouts Show forest plot

36

1472

Odds Ratio (M‐H, Random, 95% CI)

0.67 [0.43, 1.05]

Analysis 1.7

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 7 Acceptability of electromechanical‐assisted gait training devices during intervention phase: dropouts.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 7 Acceptability of electromechanical‐assisted gait training devices during intervention phase: dropouts.

8 Death from all causes until the end of intervention phase Show forest plot

36

1472

Risk Difference (M‐H, Random, 95% CI)

0.00 [‐0.01, 0.02]

Analysis 1.8

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 8 Death from all causes until the end of intervention phase.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 8 Death from all causes until the end of intervention phase.

Open in table viewer
Comparison 2. Planned sensitivity analysis by trial methodology

Outcome or subgroup title

No. of studies

No. of participants

Statistical method

Effect size

1 Regaining independent walking ability Show forest plot

36

Odds Ratio (M‐H, Random, 95% CI)

Subtotals only

Analysis 2.1

Comparison 2 Planned sensitivity analysis by trial methodology, Outcome 1 Regaining independent walking ability.

Comparison 2 Planned sensitivity analysis by trial methodology, Outcome 1 Regaining independent walking ability.

1.1 All studies with adequate sequence generation process

20

949

Odds Ratio (M‐H, Random, 95% CI)

1.80 [1.06, 3.08]

1.2 All studies with adequate concealed allocation

17

831

Odds Ratio (M‐H, Random, 95% CI)

1.87 [1.12, 3.12]

1.3 All studies with blinded assessors for primary outcome

16

762

Odds Ratio (M‐H, Random, 95% CI)

1.81 [1.10, 2.98]

1.4 All studies without incomplete outcome data

14

590

Odds Ratio (M‐H, Random, 95% CI)

2.23 [1.16, 4.29]

1.5 All studies excluding the largest study Pohl 2007

35

1317

Odds Ratio (M‐H, Random, 95% CI)

1.65 [1.17, 2.34]

Open in table viewer
Comparison 3. Subgroup analysis comparing participants in acute and chronic phases of stroke

Outcome or subgroup title

No. of studies

No. of participants

Statistical method

Effect size

1 Independent walking at the end of intervention phase, all electromechanical devices used Show forest plot

36

Odds Ratio (IV, Random, 95% CI)

Subtotals only

Analysis 3.1

Comparison 3 Subgroup analysis comparing participants in acute and chronic phases of stroke, Outcome 1 Independent walking at the end of intervention phase, all electromechanical devices used.

Comparison 3 Subgroup analysis comparing participants in acute and chronic phases of stroke, Outcome 1 Independent walking at the end of intervention phase, all electromechanical devices used.

1.1 Acute phase: less than or equal to 3 months after stroke

20

1143

Odds Ratio (IV, Random, 95% CI)

1.90 [1.38, 2.63]

1.2 Chronic phase: more than 3 months after stroke

16

461

Odds Ratio (IV, Random, 95% CI)

1.20 [0.40, 3.65]

Open in table viewer
Comparison 4. Post hoc sensitivity analysis: ambulatory status at study onset

Outcome or subgroup title

No. of studies

No. of participants

Statistical method

Effect size

1 Recovery of independent walking: ambulatory status at study onset Show forest plot

36

Odds Ratio (M‐H, Random, 95% CI)

Subtotals only

Analysis 4.1

Comparison 4 Post hoc sensitivity analysis: ambulatory status at study onset, Outcome 1 Recovery of independent walking: ambulatory status at study onset.

Comparison 4 Post hoc sensitivity analysis: ambulatory status at study onset, Outcome 1 Recovery of independent walking: ambulatory status at study onset.

1.1 Studies that included independent walkers

15

500

Odds Ratio (M‐H, Random, 95% CI)

1.38 [0.45, 4.20]

1.2 Studies that included dependent and independent walkers

9

340

Odds Ratio (M‐H, Random, 95% CI)

1.90 [1.11, 3.25]

1.3 Studies that included dependent walkers

12

632

Odds Ratio (M‐H, Random, 95% CI)

1.90 [1.04, 3.48]

2 Walking velocity: ambulatory status at study onset Show forest plot

24

Mean Difference (IV, Random, 95% CI)

Subtotals only

Analysis 4.2

Comparison 4 Post hoc sensitivity analysis: ambulatory status at study onset, Outcome 2 Walking velocity: ambulatory status at study onset.

Comparison 4 Post hoc sensitivity analysis: ambulatory status at study onset, Outcome 2 Walking velocity: ambulatory status at study onset.

2.1 Studies that included independent walkers

10

317

Mean Difference (IV, Random, 95% CI)

‐0.02 [‐0.10, 0.06]

2.2 Studies that included dependent and independent walkers

5

146

Mean Difference (IV, Random, 95% CI)

0.03 [‐0.05, 0.11]

2.3 Studies that included dependent walkers

9

522

Mean Difference (IV, Random, 95% CI)

0.10 [0.03, 0.17]

Open in table viewer
Comparison 5. Post hoc sensitivity analysis: type of device

Outcome or subgroup title

No. of studies

No. of participants

Statistical method

Effect size

1 Different devices for regaining walking ability Show forest plot

32

Odds Ratio (M‐H, Random, 95% CI)

Subtotals only

Analysis 5.1

Comparison 5 Post hoc sensitivity analysis: type of device, Outcome 1 Different devices for regaining walking ability.

Comparison 5 Post hoc sensitivity analysis: type of device, Outcome 1 Different devices for regaining walking ability.

1.1 All studies using end‐effector devices

11

598

Odds Ratio (M‐H, Random, 95% CI)

1.90 [0.99, 3.63]

1.2 All studies using exoskeleton devices

16

585

Odds Ratio (M‐H, Random, 95% CI)

2.05 [1.21, 3.50]

1.3 All studies using mobile devices

3

106

Odds Ratio (M‐H, Random, 95% CI)

0.0 [0.0, 0.0]

1.4 All studies using ankle devices

2

63

Odds Ratio (M‐H, Random, 95% CI)

0.0 [0.0, 0.0]

2 Different devices for regaining walking speed Show forest plot

24

Mean Difference (IV, Random, 95% CI)

Subtotals only

Analysis 5.2

Comparison 5 Post hoc sensitivity analysis: type of device, Outcome 2 Different devices for regaining walking speed.

Comparison 5 Post hoc sensitivity analysis: type of device, Outcome 2 Different devices for regaining walking speed.

2.1 All studies using end‐effector devices

9

519

Mean Difference (IV, Random, 95% CI)

0.11 [0.04, 0.18]

2.2 All studies using exoskeleton devices

12

360

Mean Difference (IV, Random, 95% CI)

‐0.02 [‐0.08, 0.04]

2.3 All studies using mobile devices

3

106

Mean Difference (IV, Random, 95% CI)

0.02 [‐0.11, 0.15]

2.4 All studies using ankle devices

1

39

Mean Difference (IV, Random, 95% CI)

0.04 [0.01, 0.07]

3 Different devices for regaining walking capacity Show forest plot

12

594

Mean Difference (IV, Random, 95% CI)

5.84 [‐16.73, 28.40]

Analysis 5.3

Comparison 5 Post hoc sensitivity analysis: type of device, Outcome 3 Different devices for regaining walking capacity.

Comparison 5 Post hoc sensitivity analysis: type of device, Outcome 3 Different devices for regaining walking capacity.

3.1 All studies using end‐effector devices

4

328

Mean Difference (IV, Random, 95% CI)

27.50 [3.64, 51.36]

3.2 All studies using exoskeleton devices

5

186

Mean Difference (IV, Random, 95% CI)

‐15.64 [‐46.34, 15.05]

3.3 All studies using mobile devices

2

56

Mean Difference (IV, Random, 95% CI)

20.06 [‐39.52, 79.63]

3.4 All studies using ankle devices

1

24

Mean Difference (IV, Random, 95% CI)

8.0 [‐83.03, 99.03]

Study flow diagram.
Figuras y tablas -
Figure 1

Study flow diagram.

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: 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), outcome: 1.1 Independent walking at the end of intervention phase, all electromechanical devices used.
Figuras y tablas -
Figure 3

Funnel plot of comparison: 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), outcome: 1.1 Independent walking at the end of intervention phase, all electromechanical devices used.

Funnel plot of comparison: 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), outcome: 1.3 Walking velocity (metres per second) at the end of intervention phase.
Figuras y tablas -
Figure 4

Funnel plot of comparison: 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), outcome: 1.3 Walking velocity (metres per second) at the end of intervention phase.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 1 Independent walking at the end of intervention phase, all electromechanical devices used.
Figuras y tablas -
Analysis 1.1

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 1 Independent walking at the end of intervention phase, all electromechanical devices used.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 2 Recovery of independent walking at follow‐up after study end.
Figuras y tablas -
Analysis 1.2

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 2 Recovery of independent walking at follow‐up after study end.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 3 Walking velocity (metres per second) at the end of intervention phase.
Figuras y tablas -
Analysis 1.3

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 3 Walking velocity (metres per second) at the end of intervention phase.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 4 Walking velocity (metres per second) at follow‐up.
Figuras y tablas -
Analysis 1.4

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 4 Walking velocity (metres per second) at follow‐up.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 5 Walking capacity (metres walked in 6 minutes) at the end of intervention phase.
Figuras y tablas -
Analysis 1.5

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 5 Walking capacity (metres walked in 6 minutes) at the end of intervention phase.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 6 Walking capacity (metres walked in 6 minutes) at follow‐up.
Figuras y tablas -
Analysis 1.6

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 6 Walking capacity (metres walked in 6 minutes) at follow‐up.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 7 Acceptability of electromechanical‐assisted gait training devices during intervention phase: dropouts.
Figuras y tablas -
Analysis 1.7

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 7 Acceptability of electromechanical‐assisted gait training devices during intervention phase: dropouts.

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 8 Death from all causes until the end of intervention phase.
Figuras y tablas -
Analysis 1.8

Comparison 1 Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care), Outcome 8 Death from all causes until the end of intervention phase.

Comparison 2 Planned sensitivity analysis by trial methodology, Outcome 1 Regaining independent walking ability.
Figuras y tablas -
Analysis 2.1

Comparison 2 Planned sensitivity analysis by trial methodology, Outcome 1 Regaining independent walking ability.

Comparison 3 Subgroup analysis comparing participants in acute and chronic phases of stroke, Outcome 1 Independent walking at the end of intervention phase, all electromechanical devices used.
Figuras y tablas -
Analysis 3.1

Comparison 3 Subgroup analysis comparing participants in acute and chronic phases of stroke, Outcome 1 Independent walking at the end of intervention phase, all electromechanical devices used.

Comparison 4 Post hoc sensitivity analysis: ambulatory status at study onset, Outcome 1 Recovery of independent walking: ambulatory status at study onset.
Figuras y tablas -
Analysis 4.1

Comparison 4 Post hoc sensitivity analysis: ambulatory status at study onset, Outcome 1 Recovery of independent walking: ambulatory status at study onset.

Comparison 4 Post hoc sensitivity analysis: ambulatory status at study onset, Outcome 2 Walking velocity: ambulatory status at study onset.
Figuras y tablas -
Analysis 4.2

Comparison 4 Post hoc sensitivity analysis: ambulatory status at study onset, Outcome 2 Walking velocity: ambulatory status at study onset.

Comparison 5 Post hoc sensitivity analysis: type of device, Outcome 1 Different devices for regaining walking ability.
Figuras y tablas -
Analysis 5.1

Comparison 5 Post hoc sensitivity analysis: type of device, Outcome 1 Different devices for regaining walking ability.

Comparison 5 Post hoc sensitivity analysis: type of device, Outcome 2 Different devices for regaining walking speed.
Figuras y tablas -
Analysis 5.2

Comparison 5 Post hoc sensitivity analysis: type of device, Outcome 2 Different devices for regaining walking speed.

Comparison 5 Post hoc sensitivity analysis: type of device, Outcome 3 Different devices for regaining walking capacity.
Figuras y tablas -
Analysis 5.3

Comparison 5 Post hoc sensitivity analysis: type of device, Outcome 3 Different devices for regaining walking capacity.

Summary of findings for the main comparison. Electromechanical‐ and robotic‐assisted gait training plus physiotherapy compared to physiotherapy (or usual care) for walking after stroke

Electromechanical‐ and robotic‐assisted gait training plus physiotherapy compared to physiotherapy (or usual care) for walking after stroke

Patient or population: walking after stroke
Setting: inpatient and outpatient setting
Intervention: electromechanical‐ and robotic‐assisted gait training plus physiotherapy
Comparison: physiotherapy (or usual care)

Outcomes

Anticipated absolute effects* (95% CI)

Relative effect
(95% CI)

№ of participants
(studies)

Quality of the evidence
(GRADE)

Comments

Risk with physiotherapy (or usual care)

Risk with electromechanical‐ and robotic‐assisted gait training plus physiotherapy

Independent walking at the end of intervention phase, all electromechanical devices used
Assessed with FAC

Study population

OR 1.94
(1.39 to 2.71)

1472
(36 RCTs)

⊕⊕⊕⊝
MODERATE 1

457 per 1000

615 per 1000
(530 to 693)

Recovery of independent walking at follow‐up after study end
Assessed with FAC

Study population

OR 1.93
(0.72 to 5.13)

496
(6 RCTs)

⊕⊕⊕⊝
MODERATE 1

551 per 1000

703 per 1000
(469 to 863)

Walking velocity (metres per second) at the end of intervention phase
Assessed with timed measures of gait
Scale: 0 to infinity

The mean walking velocity (metres per second) at the end of intervention phase was 0.

MD 0.04 higher
(0 to 0.09 higher)

985
(24 RCTs)

⊕⊕⊝⊝
LOW 1 2

Walking velocity (metres per second) at follow‐up
Assessed with timed measures of gait
Scale: 0 to infinity

The mean walking velocity (metres per second) at follow‐up was 0.

MD 0.07 higher
(0.05 lower to 0.19 higher)

578
(9 RCTs)

⊕⊕⊕⊝
MODERATE 1

Walking capacity (metres walked in 6 minutes) at the end of intervention phase
Assessed with timed measures of gait
Scale: 0 to infinity

The mean walking capacity (metres walked in 6 minutes) at the end of intervention phase was 0.

MD 5.84 higher
(16.73 lower to 28.40 higher)

594
(12 RCTs)

⊕⊝⊝⊝
VERY LOW 1 3 4

Walking capacity (metres walked in 6 minutes) at follow‐up

The mean walking capacity (metres walked in 6 minutes) at follow‐up was 0.

MD 0.82 lower
(32.17 lower to 30.53 higher)

463
(7 RCTs)

⊕⊝⊝⊝
VERY LOW 1 2 4

Acceptability of electromechanical‐assisted gait‐training devices during intervention phase
Assessed with number of dropouts

Study population

OR 0.67
(0.43 to 1.05)

1472
(36 RCTs)

⊕⊕⊝⊝
LOW 1 5

131 per 1000

92 per 1000
(61 to 136)

*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; FAC: Functional Ambulation Category; MD: mean difference; OR: odds ratio; RCT: randomised controlled trial; RR: risk ratio

GRADE Working Group grades of evidence
High quality: We are very confident that the true effect lies close to that of the estimate of the effect.
Moderate quality: 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 quality: Our confidence in the effect estimate is limited: The true effect may be substantially different from the estimate of the effect.
Very low quality: We have very little confidence in the effect estimate: The true effect is likely to be substantially different from the estimate of effect.

1Downgraded due to several ratings of 'unclear' and 'high' risk of bias.
2Downgraded due to statistical heterogeneity and no overlap of several confidence intervals.
3Downgraded because the 95% confidence interval includes no effect and the upper confidence limit crosses the minimal important difference.
4Downgraded due to funnel plot asymmetry.
5Downgraded because the total number of events (157) is less than 300 (a threshold rule‐of‐thumb value).

Figuras y tablas -
Summary of findings for the main comparison. Electromechanical‐ and robotic‐assisted gait training plus physiotherapy compared to physiotherapy (or usual care) for walking after stroke
Table 1. Participant characteristics in studies

Study ID

Experimental:

age, mean (SD)

Control:

age, mean (SD)

Experimental:

time poststroke

Control:

time poststroke

Experimental:

sex

Control:

sex

Experimental:

side paresis

Control:

side paresis

Aschbacher 2006

57 years

65 years

≤ 3 months

≤ 3 months

2 female

4 female

Not stated

Not stated

Bang 2016

54 years

54 years

12 months

13 months

5 male, 4 female

4 male, 5 female

4 right, 5 left

4 right, 5 left

Brincks 2011

61 (median) years

59 (median) years

56 (median) days

21 (median) days

5 male, 2 female

4 male, 2 female

5 right, 2 left

1 right, 5 left

Buesing 2015

60 years

62 years

7 years

5 years

17 male, 8 female

16 male, 9 female

13 right, 12 left

12 right, 13 left

Chang 2012

56 (12) years

60 (12) years

16 (5) days

18 (5) days

13 male, 7 female

10 male, 7 female

6 right, 14 left

6 right, 11 left

Cho 2015

55 (12) years

55 (15) years

15 months

13 months

Not stated

Not stated

6 right, 4 left (4 both)

3 right, 1 left (3 both)

Chua 2016

62 (10) years

61 (11) years

27 (11) days

30 (14) days

35 male, 18 female

40 male, 13 female

24 right, 29 left

21 right, 32 left

Dias 2006

70 (7) years

68 (11) years

47 (64) months

48 (30) months

16 male, 4 female

14 male, 6 female

Not stated

Not stated

Fisher 2008

Not stated

Not stated

Less than 12 months

Less than 12 months

Not stated

Not stated

Not stated

Not stated

Forrester 2014

63 years

60 years

12 days

11 days

Not stated

Not stated

9 right, 9 left

7 right, 9 left

Geroin 2011

63 (7) years

61 (6) years

26 (6) months

27 (6) months

14 male, 6 female

9 male, 1 female

Not stated

Not stated

Han 2016

68 (15) years

63 (11) years

22 (8) days

18 (10) days

Not stated

Not stated

20 right, 10 left

14 right, 12 left

Hidler 2009

60 (11) years

55 (9) years

111 (63) days

139 (61) days

21 male, 12 female

18 male, 12 female

22 right, 11 left

13 right, 17 left

Hornby 2008

57 (10) years

57 (11) years

50 (51) months

73 (87) months

15 male, 9 female

15 male, 9 female

16 right, 8 left

16 right, 8 left

Husemann 2007

60 (13) years

57 (11) years

79 (56) days

89 (61) days

11 male, 5 female

10 male, 4 female

12 right, 4 left

11 right, 3 left

Kim 2015

54 (13) years

50 (16) years

80 (60) days

120 (84) days

9 male, 4 female

10 male, 3 female

8 right, 5 left

10 right, 3 left

Kyung 2008

48 (8) years

55 (16) years

22 (23) months

29 (12) months

9 male, 8 female

4 male, 4 female

9 right, 8 left

4 right, 4 left

Mayr 2008

Not stated

Not stated

Between 10 days and 6 months

Between 10 days and 6 months

Not stated

Not stated

Not stated

Not stated

Morone 2011

62 (11) years

62 (14) years

19 (11) days

20 (14) days

15 male, 9 female

13 male, 11 female

13 right, 11 left

15 right, 9 left

Noser 2012

67 (9) years

64 (11) years

1354 days

525 days

7 male, 4 female

6 male, 4 female

Not stated

Not stated

Ochi 2015

62 (8) years

66 (12) years

23 (7) days

26 (8) days

11 male, 2 female

9 male, 4 female

6 right, 7 left

5 right, 8 left

Peurala 2005

52 (8) years

52 (7) years

2.5 (2.5) years

4.0 (5.8) years

26 male, 4 female

11 male, 4 female

13 right, 17 left

10 right, 5 left

Peurala 2009

67 (9) years

68 (10) years

8 (3) days

8 (3) days

11 male, 11 female

18 male, 16 female

11 right, 11 left

14 right, 20 left

Picelli 2016

62 (10) years

65 (3) years

6 (4) years

6 (4) years

7 male, 4 female

9 male, 2 female

Not stated

Not stated

Pohl 2007

62 (12) years

64 (11) years

4.2 (1.8) weeks

4.5 (1.9) weeks

50 male, 27 female

54 male, 24 female

36 right, 41 left

33 right, 45 left

Saltuari 2004

62 (13) years

60 (19) years

3.6 (4.6) months

1.9 (0.8) months

4 male, 4 female

2 male, 6 female

Not stated

Not stated

Schwartz 2006

62 (9) years

65 (8) years

22 (9) days

24 (10) days

21 male, 16 female

20 male, 10 female

17 right, 20 left

8 right, 22 left

Stein 2014

58 (11) years

57 (15) years

49 (39) months

89 (153) months

Not stated

Not stated

Not stated

Not stated

Tanaka 2012

63 (10) years

60 (9) years

55 (37) months

65 (67) months

10 male, 2 female

9 right, 3 left

Tong 2006

71 (14) years

64 (10) years

2.5 (1.2) weeks

2.7 (1.2) weeks

19 male, 11 female

12 male, 8 female

13 right, 17 left

7 right, 13 left

Ucar 2014

56 years

62 years

Not stated

Not stated

Not stated

Not stated

Not stated

Not stated

Van Nunen 2012

53 (10) years

2.1 (1.3) months

16 male, 14 female

Not stated

Not stated

Waldman 2013

51 (8) years

53 (7) years

41 (20) months

30 (22) months

Not stated

Not stated

Not stated

Not stated

Watanabe 2014

67 (17) years

76 (14) years

59 (47) days

51 (34) days

7 male, 4 female

4 male, 7 female

6 right, 5 left

5 right, 6 left

Werner 2002

60 (9) years

60 (9) years

7.4 (2.0) weeks

6.9 (2.1) weeks

8 male, 7 female

5 male, 10 female

8 right, 7 left

8 right, 7 left

Westlake 2009

59 (17) years

55 (14) years

44 (27) months

37 (20) months

6 male, 2 female

7 male, 1 female

4 right, 4 left

3 right, 5 left

SD: standard deviation

Figuras y tablas -
Table 1. Participant characteristics in studies
Table 2. Demographics of studies including dropouts and adverse events

Criteria

Stroke severity

Electromechanical device used

Duration of study intervention

Aetiology (ischaemic/haemorrhage)

Intensity of treatment per day

Description of the control intervention

Dropouts

Reasons for dropout

and adverse events in the experimental group

Reasons for dropout and adverse

events in the control group

Source of information

Aschbacher 2006

Not stated

Lokomat

3 weeks

Not stated

30 minutes, 5 times a week

Described as task‐oriented physiotherapy, 5 times a week for 3 weeks (2.5 hours a week)

4 of 23

Not stated

Not stated

Unpublished information in the form of a conference presentation

Bang 2016

Unclear

Lokomat

4 weeks

13/5

60 minutes, 5 times a week (20 sessions)

Described as treadmill training without body weight support

0 of 18

Published information

Brincks 2011

Mean FIM, 92 of 126 points

Lokomat

3 weeks

Not stated

Not stated

Physiotherapy

0 of 13

Unpublished and published information provided by the authors.

Buesing 2015

Unclear

Wearable exoskeleton Stride Management Assist system (SMA)

6 to 8 weeks

Unclear

3 times per week for a maximum of 18 sessions

Functional task‐specific training (intensive overground training and mobility training)

0 of 50

Published information

Chang 2012

Not stated

Lokomat

10 days

Not stated

30 minutes daily for 10 days

Conventional gait training by physical therapists (with equal therapy time and same amount of sessions as experimental group)

3 of 40

Not described by group

(3 participants dropped out:

1 due to aspiration pneumonia, and 2 were unable to co‐operate fully with the experimental procedure)

Unpublished and published information provided by the authors.

Cho 2015

Mean Modified Barthel Index, 36 points

Lokomat

8 weeks (2 phases, cross‐over after 4 weeks)

4/14 (2 both)

30 minutes, 3 times a week for 4 weeks

Bobath (neurophysiological exercises, inhibition of spasticity and synergy pattern)

0 of 20

Published information

Chua 2016

Mean Barthel Index, 49 points

Gait Trainer

8 weeks

Not stated

Not stated

Physiotherapy including 25 minutes of stance/gait, 10 minutes cycling, 10 minutes tilt table standing

20 of 106

2 death, 3 refusal, 1 medical problem, 1 transport problem

(1 pain as adverse event)

1 death, 6 refusal, 3 medical problem, 1 administrative problem

(no adverse events)

Published information

Dias 2006

Mean Barthel Index, 75 points

Gait Trainer

4 weeks

Not stated

40 minutes, 5 times a week

Bobath method, 5 times a week for 5 weeks

0 of 40

Unpublished and published information provided by the authors.

Fisher 2008

Not stated

AutoAmbulator

24 sessions

Not stated

Minimum of 3 sessions a week up to 5 sessions; number of minutes in each session unclear

"Standard" physical therapy, 3 to 5 times a week for 24 consecutive sessions

0 of 20

14 adverse events,

no details provided

11 adverse events,

no details provided

Unpublished and published information provided by the authors.

Forrester 2014

Mean FIM walk 1 point

Anklebot

8 to 10 sessions (with ca. 200 repetitions)

Not stated

60 minutes, 8 to 10 sessions

Stretching of the paretic ankle

5 of 34

Total of 5 dropouts in both groups (1 medical complication, 1 discharge prior study end, 2 time poststroke > 49 days, 1 non‐compliance)

Published information provided by the authors.

Geroin 2011

Mean European Stroke Scale, 80 points

Gait Trainer

2 weeks

Not stated

50 minutes, 5 times a week

Walking exercises according to the Bobath approach

0 of 30

Unpublished and published information provided by the authors.

Han 2016

Not stated

Lokomat

4 weeks

33/23

30 minutes, 5 times a week

Neurodevelopmental techniques for balance and mobility

4 0f 60

4 unclear reasons

Published information provided by the authors.

Hidler 2009

Not stated

Lokomat

8 to 10 weeks (24 sessions)

47/16

45 minutes, 3 days a week

Conventional gait training, 3 times a week for 8 to 10 weeks (24 sessions), each session lasted 1.5 hours

9 of 72

Not described by group

(9 withdrew or were removed because of poor attendance or a decline in health, including 1 death, which according to the authors was unrelated to study)

Unpublished and published information provided by the authors.

Hornby 2008

Not stated

Lokomat

12 sessions

22/26

30 minutes, 12 sessions

Therapist‐assisted gait training, 12 sessions, each session lasted 30 minutes

14 of 62

4 participants dropped out (2 discontinued secondary

to leg pain during training, 1 experienced pitting oedema, and

1 had travel limitations)

10 participants dropped out

(4 discontinued secondary to leg pain, 1 experienced an injury outside therapy, 1 reported fear of

falling during training, 1 presented with significant hypertension,

1 had travel limitations, and

2 experienced

subjective exercise intolerance)

Published information provided by the authors.

Husemann 2007

Median Barthel Index, 35 points

Lokomat

4 weeks

22/8

30 minutes, 5 times a week

Conventional physiotherapy, 30 minutes per day for 4 weeks

2 of 32

1 participant enteritis

1 participant pulmonary embolism

Information as provided by the authors

Kim 2015

Mean Barthel Index, 20 points

Walkbot

4 weeks

13/13

30 minutes, 5 times a week

Conventional physiotherapy (bed mobility, stretching, balance training, strengthening, symmetry training, treadmill training)

4 of 30

1 rib fracture, 3 decline in health condition

Information as provided by the authors

Kyung 2008

Not stated

Lokomat

4 weeks

18/7

45 minutes, 3 days a week

Conventional physiotherapy, received equal time and sessions of conventional gait training

10 of 35

1 participant dropped out for

private reasons (travelling);

adverse events not described

9 participants refused after randomisation (reasons not provided); adverse events not described

Unpublished and published information provided by the authors.

Mayr 2008

Not stated

Lokomat

8 weeks

Not stated

Not stated

Add‐on conventional physiotherapy, received equal time and sessions of conventional gait training

13 of 74

4 participants dropped out (reasons not provided); adverse events not described

9 participants dropped out (reasons not provided)

Unpublished and published information provided by the authors.

Morone 2011

Canadian Neurological Scale, 6 points

Gait Trainer

4 weeks

41/7

40 minutes, 5 times a week

Focused on trunk stabilisation, weight transfer to the paretic leg, and walking between parallel
bars or on the ground. The participant was helped by 1 or 2 therapists and walking aids if necessary.

21 of 48

12 (hypotension, referred weakness, knee pain, urinary infection, uncontrolled blood pressure, fever, absence of physiotherapist)

9 (hypotension, referred weakness, knee pain, ankle pain, uncontrolled blood pressure, fever, absence of physiotherapist)

Information as provided by the authors

Noser 2012

Not stated

Lokomat

Unclear

Not stated

Not stated

Not stated

1 of 21

No dropouts;

2 serious adverse events

(1 skin breakdown as a result of therapy,

1 second stroke during the post‐treatment phase)

1 dropout due to protocol violation;

2 serious adverse events

(1 sudden drop in blood pressure at participant's home leading to brief hospitalisation,

1 sudden chest pain before therapy leading to brief hospitalisation)

Information as provided by the authors

Ochi 2015

Not stated

Gait‐assistance robot (consisting of 4 robotic arms for the thighs and legs, thigh cuffs, leg apparatuses, and a treadmill)

4 weeks

10/16

20 minutes, 5 times a week for 4 weeks, in addition to rehabilitation treatment

Range‐of‐motion exercises, muscle strengthening, rolling over and sit‐to‐stand and activity and gait exercises

0 of 26

Published information

Peurala 2005

Scandinavian Stroke Scale, 42 points

Gait Trainer

3 weeks

25/20

20 minutes, 5 times a week for 3 weeks, in addition to rehabilitation treatment

Walking overground;

all participants practised gait for 15 sessions over 3 weeks (each session lasting 20 minutes)

0 of 45

Published information

Peurala 2009

Not stated

Gait Trainer

3 weeks

42/14

20 minutes, 5 times a week for 3 weeks, in addition to rehabilitation treatment

Overground walking training; in the other control group, 1 or 2 physiotherapy sessions daily but not at the same intensity as in the other groups

9 of 56

5 dropouts

(2 situation worsened after 1 to 2 treatment days;

1 had 2 unsuccessful attempts in device;

1 had scheduling problems;

1 felt protocol too demanding)

4 dropouts

(1 felt protocol too demanding;

2 situation worsened after 1 to 2 treatment days;

1 death)

Published information

Picelli 2016

Not stated

G‐EO System Evolution

Experimental group (G‐EO) 30 minutes a day for 5 consecutive days

Not stated

5 days in addition to botulinum toxin injection of calf muscles

None

0 of 22

Published information

Pohl 2007

Mean Barthel Index, 37 points

Gait Trainer

4 weeks

124/31

20 minutes, 5 times a week

Physiotherapy every weekday for 4 weeks

11 of 155

2 participants refused therapy,

1 increased cranial pressure,

1 relapsing pancreas tumour,

1 cardiovascular unstable

4 participants refused therapy, 1 participant died, 1 myocardial infarction

Published information

Saltuari 2004

Not stated

Lokomat

2 weeks

13/3

A‐B‐A study: in phase A, 30 minutes, 5 days a week

Physiotherapy every weekday for 3 weeks (phase B)

0 of 16

None

None

Unpublished and published information provided by the authors.

Schwartz 2006

Mean NIHSS, 11 points

Lokomat

6 weeks

49/67

30 minutes, 3 times a week

Physiotherapy with additional gait training 3 times a week for 6 weeks

6 of 46

2 participants with leg wounds,

1 participant with recurrent stroke,

1 refused therapy

1 participant with recurrent stroke,

1 with pulmonary embolism

Unpublished and published information provided by the authors.

Stein 2014

Not stated

Bionic leg device (AlterG)

6 weeks

Not stated

1 hour, 3 times a week for 6 weeks

Group exercises

0 of 24

Published information

Tanaka 2012

Mean FIM, 79 points

Gait Master4

4 weeks

Not stated

20 minutes, 2 or 3 times a week (12 sessions)

Non‐intervention (non‐training)

0 of 12

Published information

Tong 2006

Mean Barthel Index, 51 points

Gait Trainer

4 weeks

39/11

20 minutes, 5 times a week

Conventional physiotherapy alone, based on Bobath concept

4 of 50

None

2 participants discharged before study end,

1 participant readmitted to an acute ward,

1 participant deteriorating condition

Published information

Ucar 2014

Not stated

Lokomat

2 weeks

Not stated

30 minutes, 5 times a week

Conventional physiotherapy at home (focused on gait)

0 of 22

Published information

Van Nunen 2012

Not stated

Lokomat

8 weeks

Not stated

30 minutes, twice a week

Overground therapy

0 of 30

Unpublished and published information provided by the author.

Waldman 2013

Not stated

Portable rehab robot (ankle device)

6 weeks

Not stated

3 times a week, 18 sessions

Stretching the plantar flexors and active exercises for ankle mobility and strength

0 of 24

Published information

Watanabe 2014

Not stated

Single‐leg version of the Hybrid Assistive Limb (HAL)

4 weeks

11/11

20 minutes, 12 sessions

Aimed to improve walking speed, endurance, balance, postural stability, and symmetry

10 of 32

4 withdrew,

1 epilepsy,

1 technical reasons

2 pneumonia,

2 discharged

Published information

Werner 2002

Mean Barthel Index, 38 points

Gait Trainer

2 weeks

13/12

20 minutes, 5 times a week

Gait therapy including treadmill training with body weight support

0 of 30

None

None

Published information

Westlake 2009

Not stated

Lokomat

4 weeks (12 sessions)

8/8

30 minutes, 3 times a week

12 physiotherapy sessions including manually guided gait training (3 times a week over 4 weeks)

0 of 16

None

None

Published information

FIM: Functional Independence Measure
NIHSS: National Institutes of Health Stroke Scale

Figuras y tablas -
Table 2. Demographics of studies including dropouts and adverse events
Comparison 1. Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care)

Outcome or subgroup title

No. of studies

No. of participants

Statistical method

Effect size

1 Independent walking at the end of intervention phase, all electromechanical devices used Show forest plot

36

1472

Odds Ratio (M‐H, Random, 95% CI)

1.94 [1.39, 2.71]

2 Recovery of independent walking at follow‐up after study end Show forest plot

6

496

Odds Ratio (M‐H, Random, 95% CI)

1.93 [0.72, 5.13]

3 Walking velocity (metres per second) at the end of intervention phase Show forest plot

24

985

Mean Difference (IV, Random, 95% CI)

0.04 [‐0.00, 0.09]

4 Walking velocity (metres per second) at follow‐up Show forest plot

9

578

Mean Difference (IV, Random, 95% CI)

0.07 [‐0.05, 0.19]

5 Walking capacity (metres walked in 6 minutes) at the end of intervention phase Show forest plot

12

594

Mean Difference (IV, Random, 95% CI)

5.84 [‐16.73, 28.40]

6 Walking capacity (metres walked in 6 minutes) at follow‐up Show forest plot

7

463

Mean Difference (IV, Random, 95% CI)

‐0.82 [‐32.17, 30.53]

7 Acceptability of electromechanical‐assisted gait training devices during intervention phase: dropouts Show forest plot

36

1472

Odds Ratio (M‐H, Random, 95% CI)

0.67 [0.43, 1.05]

8 Death from all causes until the end of intervention phase Show forest plot

36

1472

Risk Difference (M‐H, Random, 95% CI)

0.00 [‐0.01, 0.02]

Figuras y tablas -
Comparison 1. Electromechanical‐ and robotic‐assisted gait training plus physiotherapy versus physiotherapy (or usual care)
Comparison 2. Planned sensitivity analysis by trial methodology

Outcome or subgroup title

No. of studies

No. of participants

Statistical method

Effect size

1 Regaining independent walking ability Show forest plot

36

Odds Ratio (M‐H, Random, 95% CI)

Subtotals only

1.1 All studies with adequate sequence generation process

20

949

Odds Ratio (M‐H, Random, 95% CI)

1.80 [1.06, 3.08]

1.2 All studies with adequate concealed allocation

17

831

Odds Ratio (M‐H, Random, 95% CI)

1.87 [1.12, 3.12]

1.3 All studies with blinded assessors for primary outcome

16

762

Odds Ratio (M‐H, Random, 95% CI)

1.81 [1.10, 2.98]

1.4 All studies without incomplete outcome data

14

590

Odds Ratio (M‐H, Random, 95% CI)

2.23 [1.16, 4.29]

1.5 All studies excluding the largest study Pohl 2007

35

1317

Odds Ratio (M‐H, Random, 95% CI)

1.65 [1.17, 2.34]

Figuras y tablas -
Comparison 2. Planned sensitivity analysis by trial methodology
Comparison 3. Subgroup analysis comparing participants in acute and chronic phases of stroke

Outcome or subgroup title

No. of studies

No. of participants

Statistical method

Effect size

1 Independent walking at the end of intervention phase, all electromechanical devices used Show forest plot

36

Odds Ratio (IV, Random, 95% CI)

Subtotals only

1.1 Acute phase: less than or equal to 3 months after stroke

20

1143

Odds Ratio (IV, Random, 95% CI)

1.90 [1.38, 2.63]

1.2 Chronic phase: more than 3 months after stroke

16

461

Odds Ratio (IV, Random, 95% CI)

1.20 [0.40, 3.65]

Figuras y tablas -
Comparison 3. Subgroup analysis comparing participants in acute and chronic phases of stroke
Comparison 4. Post hoc sensitivity analysis: ambulatory status at study onset

Outcome or subgroup title

No. of studies

No. of participants

Statistical method

Effect size

1 Recovery of independent walking: ambulatory status at study onset Show forest plot

36

Odds Ratio (M‐H, Random, 95% CI)

Subtotals only

1.1 Studies that included independent walkers

15

500

Odds Ratio (M‐H, Random, 95% CI)

1.38 [0.45, 4.20]

1.2 Studies that included dependent and independent walkers

9

340

Odds Ratio (M‐H, Random, 95% CI)

1.90 [1.11, 3.25]

1.3 Studies that included dependent walkers

12

632

Odds Ratio (M‐H, Random, 95% CI)

1.90 [1.04, 3.48]

2 Walking velocity: ambulatory status at study onset Show forest plot

24

Mean Difference (IV, Random, 95% CI)

Subtotals only

2.1 Studies that included independent walkers

10

317

Mean Difference (IV, Random, 95% CI)

‐0.02 [‐0.10, 0.06]

2.2 Studies that included dependent and independent walkers

5

146

Mean Difference (IV, Random, 95% CI)

0.03 [‐0.05, 0.11]

2.3 Studies that included dependent walkers

9

522

Mean Difference (IV, Random, 95% CI)

0.10 [0.03, 0.17]

Figuras y tablas -
Comparison 4. Post hoc sensitivity analysis: ambulatory status at study onset
Comparison 5. Post hoc sensitivity analysis: type of device

Outcome or subgroup title

No. of studies

No. of participants

Statistical method

Effect size

1 Different devices for regaining walking ability Show forest plot

32

Odds Ratio (M‐H, Random, 95% CI)

Subtotals only

1.1 All studies using end‐effector devices

11

598

Odds Ratio (M‐H, Random, 95% CI)

1.90 [0.99, 3.63]

1.2 All studies using exoskeleton devices

16

585

Odds Ratio (M‐H, Random, 95% CI)

2.05 [1.21, 3.50]

1.3 All studies using mobile devices

3

106

Odds Ratio (M‐H, Random, 95% CI)

0.0 [0.0, 0.0]

1.4 All studies using ankle devices

2

63

Odds Ratio (M‐H, Random, 95% CI)

0.0 [0.0, 0.0]

2 Different devices for regaining walking speed Show forest plot

24

Mean Difference (IV, Random, 95% CI)

Subtotals only

2.1 All studies using end‐effector devices

9

519

Mean Difference (IV, Random, 95% CI)

0.11 [0.04, 0.18]

2.2 All studies using exoskeleton devices

12

360

Mean Difference (IV, Random, 95% CI)

‐0.02 [‐0.08, 0.04]

2.3 All studies using mobile devices

3

106

Mean Difference (IV, Random, 95% CI)

0.02 [‐0.11, 0.15]

2.4 All studies using ankle devices

1

39

Mean Difference (IV, Random, 95% CI)

0.04 [0.01, 0.07]

3 Different devices for regaining walking capacity Show forest plot

12

594

Mean Difference (IV, Random, 95% CI)

5.84 [‐16.73, 28.40]

3.1 All studies using end‐effector devices

4

328

Mean Difference (IV, Random, 95% CI)

27.50 [3.64, 51.36]

3.2 All studies using exoskeleton devices

5

186

Mean Difference (IV, Random, 95% CI)

‐15.64 [‐46.34, 15.05]

3.3 All studies using mobile devices

2

56

Mean Difference (IV, Random, 95% CI)

20.06 [‐39.52, 79.63]

3.4 All studies using ankle devices

1

24

Mean Difference (IV, Random, 95% CI)

8.0 [‐83.03, 99.03]

Figuras y tablas -
Comparison 5. Post hoc sensitivity analysis: type of device