Credential · Technology

Robotic Devices (Lokomat)

PT78 citations · 4 lenses

Safe; FDA-cleared. Cochrane: no superiority over intensive conventional gait training. Best evidence for high-dose repetitions in early stroke.

Scores · default weights
Clinical
37/100
Business
35/100
Academic Clinical
45/100
HealthTech & Industry
48/100

Each lens uses its own dimensions and default weights. Scores answer different questions across paths — they aren’t apples-to-apples. How scoring works →

Clinical breakdown
Clinical outcomes×35%
52/100

Enables high-repetition stepping; not superior to dose-matched conventional in Cochrane review. May benefit very early, low-function stroke.

Caseload applicability×15%
15/100

Limited by expensive equipment; applicable in neuro gait training at select academic or research centers only.

Billing & reimbursement×15%
42/100

Very limited insurance coverage; mostly research settings; some WC; primarily institutional or self-pay.

Certification investment×20%
28/100

Device-specific manufacturer training; requires institutional access to robotic gait system.

Employer demand×10%
22/100

Very limited employer demand; primarily research centers and specialized neuro rehabilitation hospitals.

Patient experience×5%
55/100

Novel technology appeals; some patients prefer robotic to manual assistance.

Business breakdown
Cash-pay viability×25%
35/100

Some neuro/SCI families will pay cash for robotic gait training, but the population is small and competing with research centers offering it free.

Pricing leverage×20%
30/100

Premium pricing is possible per session, but the device cost destroys margins unless you have high volume.

Market differentiation×15%
55/100

Owning a Lokomat or similar is genuinely differentiating in a regional market — few clinics have one.

Owner leverage×15%
45/100

Technicians and assistants can deliver robotic gait training under supervision, making this more scalable than personality-based methods.

Consumer demand×15%
30/100

Awareness is rising in SCI/stroke communities but still niche; demand is concentrated, not broad.

Credential investment×10%
10/100

Capital cost ($300K+) and training time make this one of the least efficient credentials to acquire.

Academic Clinical breakdown
Faculty recognition×25%
40/100

Not a formal credential but signals neuro-tech expertise; helpful but not decisive for hiring/promotion.

Scholarship signal×20%
60/100

Robotic gait training has a substantial and growing publication record — strong vehicle for faculty research.

Teaching value×15%
55/100

Directly relevant to neuro curriculum, lab demonstrations, and emerging tech content in DPT programs.

Evidence depth×20%
55/100

Multiple RCTs and systematic reviews exist; evidence is mixed but the literature base is solid.

Faculty demand×10%
25/100

Occasionally preferred at programs with neuro-tech labs, but not a common job-posting requirement.

Credential investment×10%
15/100

Requires institutional access to expensive equipment — very poor on a time/cost basis for individuals.

HealthTech & Industry breakdown
Industry placement×25%
50/100

Hocoma and similar robotics vendors employ clinical specialists for deployment and training.

Vendor / employer demand×20%
45/100

Narrow but consistent vendor demand for trained clinicians.

Salary premium×20%
45/100

Modest premium for robotics vendor clinical roles.

Technical skill depth×15%
58/100

Hands-on with complex robotic gait systems builds technical literacy.

Transition fit×10%
50/100

Targeted bridge into rehab-robotics industry.

Credential investment×10%
35/100

High capital/time cost limits efficiency.

Evidence base · 78 sources
73 other3 peer-reviewed2 government
  1. 01
    Efficacy of Neurorehabilitation Approaches in Traumatic Brain Injury Patients: A Comprehensive Review
    D. Andrei; A. L. Mederle; L. A. Ghenciu; C. Borza; A. C. Faur · Life (Basel)2025
    Otherdoi:10.3390/life15030503
  2. 02
    A Gait Imagery-Based Brain-Computer Interface With Visual Feedback for Spinal Cord Injury Rehabilitation on Lokomat
    C. F. Blanco-Diaz; E. Serafini; T. Bastos-Filho; A. Dantas; C. Santo; D. Delisle-Rodriguez · IEEE Trans Biomed Eng2025
    Otherdoi:10.1109/tbme.2024.3440036
  3. 03
    Effect of Lokomat(®) Robotic Rehabilitation on Balance, Postural Control, and Functional Independence in Subacute and Chronic Stroke Patients: A Quasi-Experimental Study
    M. E. Cabrera-Brito; M. D. C. Carcelén-Fraile; A. Aibar-Almazán; F. Hita-Contreras; P. Vico-Rodríguez; M. Cano-Orihuela; Y. Castellote-Caballero · Med Sci (Basel)2025
    Otherdoi:10.3390/medsci13030157
  4. 04
    Sex Differences in Elderly Multiple Sclerosis Patients Undergoing Neurorehabilitation: How Many Things are Taken for Granted? A Retrospective Study
    D. Cardile; M. G. Maggio; L. Bonanno; M. Bonanno; R. De Luca; F. Corallo; F. Famà; A. Rizzo; A. Quartarone; R. S. Calabrò · J Geriatr Psychiatry Neurol2025
    Otherdoi:10.1177/08919887251354899
  5. 05
    Actively Controlled Exoskeletons Show Improved Function and Neuroplasticity Compared to Passive Control: A Systematic Review
    K. I. A. Chiu; C. Taylor; P. Saha; J. Geddes; T. Bishop; J. Bernard; D. Lui · Global Spine J2025
    Systematic reviewdoi:10.1177/21925682251343529
  6. 06
    Neurorehabilitation in spinal cord injury: Increased cortical activity through tDCS and robotic gait training
    D. B. Coelho; A. C. Aquino Dos Santos; J. R. Sato; M. Simis; F. Fregni; L. R. Battistella · Clin Neurophysiol2025
    Otherdoi:10.1016/j.clinph.2025.03.027
  7. 07
    Transcutaneous spinal cord stimulation combined with robotic-assisted body weight-supported treadmill training enhances motor score and gait recovery in incomplete spinal cord injury: a double-blind randomized controlled clinical trial
    N. Comino-Suárez; J. C. Moreno; Á. Megía-García; A. J. Del-Ama; D. Serrano-Muñoz; J. Avendaño-Coy; Á. Gil-Agudo; M. Alcobendas-Maestro; E. López-López; J. Gómez-Soriano · J Neuroeng Rehabil2025
    RCTdoi:10.1186/s12984-025-01545-8
  8. 08
    Effects of Visual and Verbal Feedback on Active Patient Participation During Robot-Assisted Gait Training
    F. Di Tommaso; M. Ferrara; F. Patarini; S. Mohebban; A. Bigioni; G. Serratore; M. Lorusso; F. Cincotti; G. Scivoletto; D. Mattia; F. Tamburella; J. Toppi; F. Pichiorri; N. L. Tagliamonte · IEEE Int Conf Rehabil Robot2025
    Otherdoi:10.1109/icorr66766.2025.11063211
  9. 09
    Robotic-Assisted Gait Training Combined with Multimodal Rehabilitation for Functional Recovery in Acute Dermatomyositis: A Case Report
    W. Esparza; R. Benalcazar-Aguilar; G. Moreno-Andrade; I. Vinueza-Fernández · Brain Sci2025
    Case seriesdoi:10.3390/brainsci15060650
  10. 10
    Can technology-based gait training result in relevant changes of ambulatory function in people with chronic, neurological diagnoses? A longitudinal, cohort study
    E. S. Graf; D. De Bon; J. Stahl; J. Degenfellner; D. Knechtle; D. Zutter; F. Liberatore; M. Wirz · PLoS One2025
    Cohort studydoi:10.1371/journal.pone.0324062
  11. 11
    Lokomat-Assisted Robotic Rehabilitation in Spinal Cord Injury: A Biomechanical and Machine Learning Evaluation of Functional Symmetry and Predictive Factors
    A. B. Ilies; C. Cheregi; H. H. Thowayeb; J. R. Wendt; M. S. Horgos; L. Lazar · Bioengineering (Basel)2025
    Otherdoi:10.3390/bioengineering12070752
  12. 12
    The Effectiveness of Robotic Constraint Lokomat Training on Gait Rehabilitation in Saudi Females Patients with Stroke: A Randomized Controlled Trial
    H. Mahmoud; E. A. El-Kafy; M. S. Alayat; K. m. Shalabi; A. A. Ebid; A. A. R. El Fiky · NeuroRehabilitation2025
    RCTdoi:10.1177/10538135251333349
  13. 13
    Integrating robotic-assisted gait training into an inpatient physiotherapy program for children with subacute acquired brain injury: a feasibility study and characterization of session ingredients
    F. V. Wright; J. L. Ryan; R. Hung · Disabil Rehabil2025
    Pilot/feasibilitydoi:10.1080/09638288.2025.2543176
  14. 14
    Efficacy of Neuroendoscopy Surgery Combined With Postoperative Lokomat Rehabilitation Training in Patients With Hypertensive Intracerebral Hemorrhage
    L. Zhang; L. Xu; S. Jing; L. Liang · J Craniofac Surg2025
    Otherdoi:10.1097/scs.0000000000010358
  15. 15
    The Application of Robotics in Cardiac Rehabilitation: A Systematic Review
    A. Aburub; M. Z. Darabseh; R. Badran; A. M. Shurrab; A. Amro; H. Degens · Medicina (Kaunas)2024
    Systematic reviewdoi:10.3390/medicina60071161
  16. 16
    The Effects of Combined Virtual Reality Exercises and Robot Assisted Gait Training on Cognitive Functions, Daily Living Activities, and Quality of Life in High Functioning Individuals With Subacute Stroke
    M. Akinci; M. Burak; F. Z. Kasal; E. A. Özaslan; M. Huri; Z. A. Kurtaran · Perceptual & Motor Skills2024
    Otherdoi:10.1177/00315125241235420
  17. 17
    Assessing the Efficacy of Lokomat Training in Pediatric Physiotherapy for Cerebral Palsy: A Progress Evaluation
    M. Błażkiewicz; A. Hadamus · J Clin Med2024
    Otherdoi:10.3390/jcm13216417
  18. 18
    Artificial intelligence tools for engagement prediction in neuromotor disorder patients during rehabilitation
    S. Costantini; A. Falivene; M. Chiappini; G. Malerba; C. Dei; S. Bellazzecca; F. A. Storm; G. Andreoni; E. Ambrosini; E. Biffi · J Neuroeng Rehabil2024
    Otherdoi:10.1186/s12984-024-01519-2
  19. 19
    Robotic gait training and botulinum toxin injection improve gait in the chronic post-stroke phase: A randomized controlled trial
    M. Cotinat; M. Celerier; C. Arquillière; M. Flipo; N. Prieur-Blanc; J. M. Viton; L. Bensoussan · Ann Phys Rehabil Med2024
    RCTdoi:10.1016/j.rehab.2023.101785
  20. 20
    Effects of robotic-assisted gait training on physical capacity, and quality of life among chronic stroke patients: A randomized controlled study
    B. Elmas Bodur; Y. Erdoğanoğlu; S. Asena Sel · J Clin Neurosci2024
    RCTdoi:10.1016/j.jocn.2024.01.010
  21. 21
    A State-of-the-Art of Exoskeletons in Line with the WHO's Vision on Healthy Aging: From Rehabilitation of Intrinsic Capacities to Augmentation of Functional Abilities
    R. A. Gavrila Laic; M. Firouzi; R. Claeys; I. Bautmans; E. Swinnen; D. Beckwée · Sensors (Basel)2024
    Otherdoi:10.3390/s24072230
  22. 22
    Targeting Frequency of Gait Training in the Motor Complete Cervical Spinal Cord Injury Population: A case series...National Institute on Disability, Independent Living, and Rehabilitation Research (NIDILRR) Advanced Rehabilitation Research and Training (ARRT) Fellows Symposium, October 30, 2023, Atlanta, Georgia
    B. Grimm · Archives of Physical Medicine & Rehabilitation2024
    Case seriesdoi:10.1016/j.apmr.2024.02.345
  23. 23
    Effect on functional outcome of robotic assisted rehabilitation versus conventional rehabilitation in patients with complete spinal cord injury: a prospective comparative study
    C. K. Khande; V. Verma; A. Regmi; S. Ifthekar; P. V. Sudhakar; S. S. Sethy; P. Kandwal; B. Sarkar · Spinal Cord2024
    Cohort studydoi:10.1038/s41393-024-00970-1
  24. 24
    Evaluation of the effectiveness of Lokomat<sup>®</sup> robot-assisted gait training in children with cerebral palsy: A systematic review
    A. Martino Cinnera; I. Ciancarelli; T. Paolucci; A. Merla; M. Di Nicola; D. Perpetuini; M. D'Arienzo; G. Genovesi; A. Moretti; E. F. Russo; M. T. Gatta; F. Gimigliano; D. Cardone; G. Morone · NeuroRehabilitation2024
    Systematic reviewdoi:10.1177/10538135241296010
  25. 25
    The rehabilitation robot: factors influencing its use, advantages and limitations in clinical rehabilitation
    N. Ouendi; R. Hubaut; S. Pelayo; F. Anceaux; L. Wallard · Disability &amp; Rehabilitation: Assistive Technology2024
    Otherdoi:10.1080/17483107.2022.2107095
  26. 26
    On the role of visual feedback and physiotherapist-patient interaction in robot-assisted gait training: an eye-tracking and HD-EEG study
    F. Patarini; F. Tamburella; F. Pichiorri; S. Mohebban; A. Bigioni; A. Ranieri; F. Di Tommaso; N. L. Tagliamonte; G. Serratore; M. Lorusso; A. Ciaramidaro; F. Cincotti; G. Scivoletto; D. Mattia; J. Toppi · J Neuroeng Rehabil2024
    Otherdoi:10.1186/s12984-024-01504-9
  27. 27
    Improving Spasticity by Using Botulin Toxin: An Overview Focusing on Combined Approaches
    L. Raciti; G. Raciti; A. Ammendolia; A. de Sire; M. P. Onesta; R. S. Calabrò · Brain Sci2024
    Narrative reviewdoi:10.3390/brainsci14070631
  28. 28
    THE IMPACT OF UTILIZING TECHNOLOGICAL AND ROBOTIC SYSTEM LOKOMAT ON BALANCE REHABILITATION IN POST-STROKE PATIENTS...International Congress For Students, Young Doctors And Pharmacists Marisiensis, May 22-26, 2024, Targu Mures, Romania
    I. R. Trica; A. C. Bahar · Acta Marisiensis. Seria Medica2024
    OtherPMID 178497009
  29. 29
    The effects of Robot-assisted gait training and virtual reality on balance and gait in stroke survivors: A randomized controlled trial
    M. Akıncı; M. Burak; E. Yaşar; R. T. Kılıç · Gait Posture2023
    RCTdoi:10.1016/j.gaitpost.2023.05.013
  30. 30
    Cortico-muscular connectivity is modulated by passive and active Lokomat-assisted Gait
    F. Artoni; A. Cometa; S. Dalise; V. Azzollini; S. Micera; C. Chisari · Sci Rep2023
    Otherdoi:10.1038/s41598-023-48072-x
  31. 31
    Safety, Feasibility and Efficacy of Lokomat ® and Armeo ® Spring Training in Deconditioned Paediatric, Adolescent and Young Adult Cancer Patients
    M. Atkinson; A. Tully; C. A. Maher; C. Innes-Wong; R. N. Russo; M. P. Osborn · Cancers2023
    Pilot/feasibilitydoi:10.3390/cancers15041250
  32. 32
    The FreeD module's lateral translation timing in the gait robot Lokomat: a manual adaptation is necessary
    T. Aurich-Schuler; F. van Dellen; R. Labruyère · J Neuroeng Rehabil2023
    Otherdoi:10.1186/s12984-023-01227-3
  33. 33
    Robot-Aided Motion Analysis in Neurorehabilitation: Benefits and Challenges
    M. Bonanno; R. S. Calabrò · Diagnostics (Basel)2023
    Otherdoi:10.3390/diagnostics13233561
  34. 34
    Gait quality after robot therapy compared with physiotherapy in the patient with incomplete spinal cord injured: A systematic review
    I. Fabbri; F. Betti; R. Tedeschi · eNeurologicalSci2023
    Systematic reviewdoi:10.1016/j.ensci.2023.100467
  35. 35
    Cost-effectiveness analysis of robot-assisted gait training in patients with bilateral spastic cerebral palsy
    S. Klobucká; R. Klobucký; K. Valovičová; P. Šiarnik; B. Kollár · Cost Effectiveness &amp; Resource Allocation2023
    Otherdoi:10.1186/s12962-023-00475-3
  36. 36
    Feasibility of an Intelligent Algorithm Based on an Assist-as-Needed Controller for a Robot-Aided Gait Trainer (Lokomat) in Neurological Disorders: A Longitudinal Pilot Study
    C. Laszlo; D. Munari; S. Maggioni; D. Knechtle; P. Wolf; D. De Bon · Brain Sci2023
    Cohort studydoi:10.3390/brainsci13040612
  37. 37
    Assessing walking ability using a robotic gait trainer: opportunities and limitations of assist-as-needed control in spinal cord injury
    S. Maggioni; L. Lünenburger; R. Riener; A. Curt; M. Bolliger; A. Melendez-Calderon · J Neuroeng Rehabil2023
    Otherdoi:10.1186/s12984-023-01226-4
  38. 38
    Robotic-Assisted Gait Training (RAGT) in Stroke Rehabilitation: A Pilot Study
    M. V. M. Neves; L. Furlan; F. Fregni; L. R. Battistella; M. Simis · Arch Rehabil Res Clin Transl2023
    Pilot/feasibilitydoi:10.1016/j.arrct.2023.100255
  39. 39
    A multidisciplinary advanced approach in central pontine myelinolysis recovery: considerations about a case report
    L. Raciti; R. Pizzurro; F. Occhipinti; A. Manuli; F. Corallo; R. S. Calabrò · Disability &amp; Rehabilitation: Assistive Technology2023
    Case seriesdoi:10.1080/17483107.2020.1854875
  40. 40
    The effect of robot-assisted walking in different modalities on cardiorespiratory responses and energy consumption in patients with subacute stroke
    A. M. Sayın; N. Duruturk; B. Balaban; S. Korkusuz · Neurol Res2023
    Otherdoi:10.1080/01616412.2023.2188520
  41. 41
    Feasibility and outcomes of supplemental gait training by robotic and conventional means in acute stroke rehabilitation
    M. Talaty; A. Esquenazi · J Neuroeng Rehabil2023
    Pilot/feasibilitydoi:10.1186/s12984-023-01243-3
  42. 42
    Markerless motion tracking to quantify behavioral changes during robot-assisted gait training: A validation study
    F. van Dellen; N. Hesse; R. Labruyère · Front Robot AI2023
    Otherdoi:10.3389/frobt.2023.1155542
  43. 43
    Systematic review and network meta-analysis of robot-assisted gait training on lower limb function in patients with cerebral palsy
    Y. Wang; P. Zhang; C. Li · Neurol Sci2023
    Meta-analysisdoi:10.1007/s10072-023-06964-w
  44. 44
    The effect of the Lokomat(®) robotic-orthosis system on lower extremity rehabilitation in patients with stroke: a systematic review and meta-analysis
    L. Wu; G. Xu; Q. Wu · Front Neurol2023
    Meta-analysisdoi:10.3389/fneur.2023.1260652
  45. 45
    Efficacy of robotic exoskeleton for gait rehabilitation in patients with subacute stroke : a systematic review
    D. Calafiore; F. Negrini; N. Tottoli; F. Ferraro; O. Ozyemisci-Taskiran; A. de Sire · Eur J Phys Rehabil Med2022
    Systematic reviewdoi:10.23736/s1973-9087.21.06846-5
  46. 46
    Rehabilitation of Post-COVID-19 Musculoskeletal Sequelae in Geriatric Patients: A Case Series Study
    M. Cevei; R. R. Onofrei; A. Gherle; C. Gug; D. Stoicanescu · Int J Environ Res Public Health2022
    Case seriesdoi:10.3390/ijerph192215350
  47. 47
    The Experiences of Robot-Assisted Gait Training in Patients With Neurological Disorders: A Qualitative Study
    Y. Y. Chang; S. C. Chang; X. Xiao; C. P. C. Chen · Rehabil Nurs2022
    Qualitativedoi:10.1097/rnj.0000000000000371
  48. 48
    Improvement of Gait after Robotic-Assisted Training in Children with Cerebral Palsy: Are We Heading in the Right Direction?
    R. De Luca; M. Bonanno; C. Settimo; R. Muratore; R. S. Calabrò · Med Sci (Basel)2022
    Otherdoi:10.3390/medsci10040059
  49. 49
    Robot-assisted gait training: more randomized controlled trials are needed! Or maybe not?
    R. Labruyère · Journal of NeuroEngineering &amp; Rehabilitation (JNER)2022
    RCTdoi:10.1186/s12984-022-01037-z
  50. 50
    Robotic Systems for the Physiotherapy Treatment of Children with Cerebral Palsy: A Systematic Review
    R. Llamas-Ramos; J. L. Sánchez-González; I. Llamas-Ramos · Int J Environ Res Public Health2022
    Systematic reviewdoi:10.3390/ijerph19095116
  51. 51
    Effects of asymmetrical support on lower limb muscle activity during Lokomat guided gait in persons with a chronic stroke: an explorative study
    S. Minkes-Weiland; H. A. Reinders-Messelink; A. M. Boonstra; L. H. van der Woude; R. den Otter · Eur J Phys Rehabil Med2022
    Otherdoi:10.23736/s1973-9087.22.07539-6
  52. 52
    A Literature Review of High-Tech Physiotherapy Interventions in the Elderly with Neurological Disorders
    M. Spanakis; I. Xylouri; E. Patelarou; A. Patelarou · Int J Environ Res Public Health2022
    Narrative reviewdoi:10.3390/ijerph19159233
  53. 53
    Settings matter: a scoping review on parameters in robot-assisted gait therapy identifies the importance of reporting standards
    F. van Dellen; R. Labruyère · Journal of NeuroEngineering &amp; Rehabilitation (JNER)2022
    Systematic reviewdoi:10.1186/s12984-022-01017-3
  54. 54
    Robot-assisted gait training in individuals with spinal cord injury: A systematic review for the clinical effectiveness of Lokomat
    A. R. Alashram; G. Annino; E. Padua · J Clin Neurosci2021
    Systematic reviewdoi:10.1016/j.jocn.2021.07.019
  55. 55
    The Effect of Robotic Assisted Gait Training With Lokomat® on Balance Control After Stroke: Systematic Review and Meta-Analysis
    F. Baronchelli; C. Zucchella; M. Serrao; D. Intiso; M. Bartolo · Front Neurol2021
    Meta-analysisdoi:10.3389/fneur.2021.661815
  56. 56
    What does evidence tell us about the use of gait robotic devices in patients with multiple sclerosis? A comprehensive systematic review on functional outcomes and clinical recommendations
    R. S. Calabrò; A. Cassio; D. Mazzoli; E. Andrenelli; E. Bizzarini; I. Campanini; S. M. Carmignano; S. Cerulli; C. Chisari; V. Colombo; S. Dalise; C. Fundarò; V. Gazzotti; D. Mazzoleni; M. Mazzucchelli; C. Melegari; A. Merlo; G. Stampacchia; P. Boldrini; S. Mazzoleni; F. Posteraro; P. Benanti; E. Castelli; F. Draicchio; V. Falabella; S. Galeri; F. Gimigliano; M. Grigioni; S. Mazzon; F. Molteni; M. Petrarca; A. Picelli; M. Senatore; G. Turchetti; G. Morone; D. Bonaiuti · Eur J Phys Rehabil Med2021
    Systematic reviewdoi:10.23736/s1973-9087.21.06915-x
  57. 57
    Long-Term Social Human-Robot Interaction for Neurorehabilitation: Robots as a Tool to Support Gait Therapy in the Pandemic
    N. Céspedes; D. Raigoso; M. Múnera; C. A. Cifuentes · Front Neurorobot2021
    Otherdoi:10.3389/fnbot.2021.612034
  58. 58
    Effects of body weight support and guidance force settings on muscle synergy during Lokomat walking
    Y. Cherni; M. Hajizadeh; F. Dal Maso; N. A. Turpin · Eur J Appl Physiol2021
    Otherdoi:10.1007/s00421-021-04762-w
  59. 59
    Energy cost and psychological impact of robotic-assisted gait training in people with spinal cord injury: effect of two different types of devices
    S. Corbianco; G. Cavallini; M. Dini; F. Franzoni; C. D'Avino; A. Gerini; G. Stampacchia · Neurol Sci2021
    Otherdoi:10.1007/s10072-020-04954-w
  60. 60
    Comparisons between Locomat and Walkbot robotic gait training regarding balance and lower extremity function among non-ambulatory chronic acquired brain injury survivors
    L. Hoo Young; P. Jung Hyun; K. Tae-Woo; H. Y. Lee; J. H. Park; T.-W. Kim · Medicine2021
    Otherdoi:10.1097/MD.0000000000025125
  61. 61
    The effect of patient-specific factors on responsiveness to robot-assisted gait training in patients with bilateral spastic cerebral palsy
    S. Klobucká; R. Klobucký; B. Kollár · NeuroRehabilitation2021
    Otherdoi:10.3233/nre-210130
  62. 62
    Prediction of robotic neurorehabilitation functional ambulatory outcome in patients with neurological disorders
    C. Y. Kuo; C. W. Liu; C. H. Lai; J. H. Kang; S. H. Tseng; E. C. Su · J Neuroeng Rehabil2021
    Otherdoi:10.1186/s12984-021-00965-6
  63. 63
    Physiological responses and perceived exertion during robot-assisted treadmill walking in non-ambulatory stroke survivors
    N. Lefeber; E. De Keersmaecker; S. Henderix; M. Michielsen; F. Tamburella; N. L. Tagliamonte; M. Molinari; B. de Geus; E. Kerckhofs; E. Swinnen · Disability &amp; Rehabilitation2021
    Otherdoi:10.1080/09638288.2019.1671502
  64. 64
    Is intensive gait training feasible and effective at old age? A retrospective case-control study on the use of Lokomat Free-D in patients with chronic stroke
    A. Manuli; M. G. Maggio; M. C. Stagnitti; R. Aliberti; A. Cannavò; C. Casella; D. Milardi; A. Bruschetta; A. Naro; R. S. Calabrò · J Clin Neurosci2021
    Case-controldoi:10.1016/j.jocn.2021.08.013
  65. 65
    A Case Report on Robot-Aided Gait Training in Primary Lateral Sclerosis Rehabilitation: Rationale, Feasibility and Potential Effectiveness of a Novel Rehabilitation Approach
    S. Portaro; L. Ciatto; L. Raciti; E. Aliberti; R. Aliberti; A. Naro; R. S. CalabrÒ · Innovations in Clinical Neuroscience2021
    Case seriesPMID 151839215
  66. 66
    Towards a Clinical Decision-Making Algorithm Guiding Locomotor Therapy Modality in Subacute Stroke: An Exploratory Study
    N. Prideaux; C. Barr; C. Drummond; M. van den Berg · Journal of Stroke &amp; Cerebrovascular Diseases2021
    Otherdoi:10.1016/j.jstrokecerebrovasdis.2021.106112
  67. 67
    A Survey on Socially Assistive Robotics: Clinicians' and Patients' Perception of a Social Robot within Gait Rehabilitation Therapies
    D. Raigoso; N. Céspedes; C. A. Cifuentes; A. J. Del-Ama; M. Múnera · Brain Sci2021
    Cross-sectionaldoi:10.3390/brainsci11060738
  68. 68
    Reliability of the Revised Motor Learning Strategies Rating Instrument and Its Role in Describing the Motor Learning Strategy Content of Physiotherapy Sessions in Paediatric Acquired Brain Injury
    M. R. Spivak; J. R. Chan; M. S. Cooper; C. Petrucci; A. M. Sheridan; T. Y. Tang; F. V. Wright; J. L. Ryan · Physiotherapy Canada2021
    Otherdoi:10.3138/ptc-2020-0014
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    EXOSKELETON GAIT TRAINING TO IMPROVE LOWER URINARY TRACT FUNCTION IN PEOPLE WITH MOTOR-COMPLETE SPINAL CORD INJURY: A RANDOMIZED PILOT TRIAL
    A. M. M. Williams; E. Deegan; M. Walter; L. Stothers; T. Lam · Journal of Rehabilitation Medicine (Stiftelsen Rehabiliteringsinformation)2021
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    Lokomat guided gait in hemiparetic stroke patients: the effects of training parameters on muscle activity and temporal symmetry
    K. van Kammen; A. M. Boonstra; L. H. V. van der Woude; C. Visscher; H. A. Reinders-Messelink; R. den Otter · Disability &amp; Rehabilitation2020
    Otherdoi:10.1080/09638288.2019.1579259
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    Amplitude and stride-to-stride variability of muscle activity during Lokomat guided walking and treadmill walking in children with cerebral palsy
    K. van Kammen; H. A. Reinders-Messelink; A. L. Elsinghorst; C. F. Wesselink; B. Meeuwisse-de Vries; L. H. V. van der Woude; A. M. Boonstra; R. den Otter · Eur J Paediatr Neurol2020
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    Medical Equipment Repairers: Occupational Outlook Handbook
    U.S. Bureau of Labor Statistics · U.S. Department of Labor, BLS2024
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    510(k) Premarket Notification K133706: Lokomat Pro V6
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    Robotics for Lower Limb Rehabilitation
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    ZeroG: overground gait and balance training system
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    Otherdoi:10.1682/JRRD.2010.04.0073
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