Crimson Publishers Publish With Us Reprints e-Books Video articles

Full Text

Associative Journal of Health Sciences

Telerehabilitation Trends with Orthopedic Injuries Before COVID-19 and Post-Pandemic Recommendations

Thierry Y Lienou, OTD, OTR/L, CAPS, ATP*

Department of Occupational Therapy, Howard University, USA

*Corresponding author: Thierry Y Lienou, OTD, OTR/L, CAPS, ATP Department of Occupational Therapy, Howard University, USA

Submission: November 10, 2022;Published: November 14, 2022

DOI: 10.31031/AJHS.2022.02.000529

ISSN:2690-9707
Volume2 Issue1

Opinion

Abstract

The COVID-19 pandemic triggered a transformative change in healthcare delivery. Clinicians looked for alternatives means of providing services while limiting physical contact, and traditional face-to-face rehabilitation was progressively replaced or complemented with digital solutions such as telehealth. Numerous studies conducted before the COVID-19 Pandemic have reported promising results regarding the benefits of using telerehabilitation instead of traditional rehabilitation for orthopedic conditions, which has been shown to improve or at least maintain the continuity of rehabilitation care and services. However, the research also highlighted many limitations involving the level of research, sample size, or research process. Considering the promising results and the limitations of the studies that involved telerehabilitation of orthopedic injuries before COVID-19 and the current post-pandemic stage where face-to-face therapy is not restricted, recommendations include the following: to consider telerehabilitation when traditional face-to-face rehabilitation is not possible; to prioritize video or phone conferencing or interface, virtual reality interface, and mobile applications platforms; to prioritize pain, quality of life (QoL), range of motion, and function outcomes; to support telerehabilitation with traditional face-to-face rehabilitation when possible.

What is telerehabilitation?

Telerehabilitation involves dispensing rehabilitation services from a distance, with patients and practitioners using technology to communicate [1]. Services are delivered from a remote location via telecommunication, information technology, or digital systems that are specifically designed for conditions or locations [2]. Telerehabilitation is known to be a valid medium for physical and occupational therapists to remotely carry out several components of a physical examination, including observation and analysis, muscle strength tests, and assessment of the joint range of motion [3]. Examples of telerehabilitation platforms include video conferences, digital systems, virtual exercise rehabilitation assistants, video/photo interfaces, over-the-phone supervision, virtual reality, and mobile applications.

Trends and limitations in the research before the COVID-19 pandemic

Numerous studies conducted before the COVID-19 Pandemic have reported promising results regarding the benefits of using telerehabilitation instead of traditional rehabilitation for orthopedic conditions [4-6]. Telerehabilitation has been shown to improve or at least maintain the continuity of rehabilitation care and services by making them more efficient and cost-effective [1,5,7-10]. Telerehabilitation based on video conferencing showed statistically superior results over traditional outpatient therapy in improving the participants’ pain, quality of life (QoL), range of motion and function [7] and over-the-phone telerehabilitation showed statistically superior results than traditional home exercise programs for improving the range of motion [10]. Video and over-the-phone telerehabilitation showed statistically equivalent outcomes to traditional face-to-face therapy and outpatient therapy for improving shoulder function and ROM [8,11] and for improving pain, function, and QoL [10]. Telerehabilitation assessments based on video/phone interface, virtual reality interface, and mobile applications also yielded statistically significant equivalence to traditional goniometric measurements of the shoulder ROM [12,13].

Despite the promising results of telerehabilitation of orthopedic conditions, the research conducted before the COVID-19 Pandemic showed many limitations. For example, Macías-Hernández et al. [1] conducted a quasi-experimental study that tested the effectiveness of a telerehabilitation platform on an intervention group without considering a control group to rule out the placebo effect. Although Worboys et al. [14] and Lade et al. [3] found a level of agreement between telerehabilitation and traditional rehabilitation for ROM assessments, circumferential measurement, pain, and edema, these studies had small sample sizes and were pilot studies. The participants in Lade et al. [3] study tended to disclose more information during the face-to-face appointments as compared with the telerehabilitation examinations, which may have influenced the accuracy of diagnoses, and Worboys et al. [14] study required an allied health assistant (AHA) to be present at the patients’ houses during telerehabilitation, which limited the accessibility of the platform for some patients depending on the availability of the AHAs.

Post-pandemic recommendations

The COVID-19 pandemic triggered a transformative change in healthcare delivery. Clinicians looked for alternatives means of providing services while limiting physical contact. Traditional faceto- face rehabilitation was progressively replaced or complemented with digital solutions such as telehealth [15]. Even though the research prior to the pandemic showed the effectiveness of telerehabilitation compared to traditional rehabilitation in assessing or treating patients with orthopedic injuries, the limitations highlighted in the studies warrant further research based on higher levels of evidence and focusing on specific telerehabilitation interventions to validate telerehabilitation as a reliable intervention [16-18]. The following recommendations are pending new updates in the research focused on telerehabilitation of orthopedic injuries.
a) Consider telerehabilitation when traditional face-to-face rehabilitation is not possible.
b) Prioritize the following platforms during telerehabilitation for orthopedic injuries: video or phone conferencing or interface, virtual realith interface, and mobile applications.
c) Prioritize the following outcomes during telerehabilitation for orthopedic injuries: pain, quality of life (QoL), range of motion, and function.
d) Support telerehabilitation with traditional face-to-face rehabilitation when possible.

References

  1. Macías Hernández SI, Vásquez Sotelo DS, Ferruzca Navarro MV, Badillo Sánchez SH, Gutiérrez Martínez J, et al. (2016) Proposal and evaluation of a telerehabilitation platform designed for patients with partial rotator cuff tears: A preliminary study. Annals of Rehabilitation Medicine 40(4): 710-717.
  2. Dias Correia F, Nogueira A, Magalhães I, Guimarães J, Moreira M, et al. (2019) Digital versus conventional rehabilitation after total hip arthroplasty: A single-center, parallel-group pilot study. JMIR Rehabilitation and Assistive Technologies 6(1): e14523.
  3. Lade H, McKenzie S, Steele L, Russell TG (2012) Validity and reliability of the assessment and diagnosis of musculoskeletal elbow disorders using telerehabilitation. Journal of Telemedicine and Telecare 18(7): 413-418.
  4. Marik TL, Roll SC (2017) Effectiveness of occupational therapy interventions for musculoskeletal shoulder conditions: A systematic review. American Journal of Occupational Therapy71(1): 7101180020p1-7101180020p11.
  5. Pastora Bernal JM, Martín Valero R, Barón López FJ, Estebanez Pérez MJ (2017) Evidence of benefit of telerehabilitation after orthopedic surgery: A systematic review. Journal of Medical Internet Research 19(4): e142.
  6. Jiang S, Xiang J, Gao X, Guo K, Liu B (2018) The comparison of telerehabilitation and face-to-face rehabilitation after total knee arthroplasty: A systematic review and meta- analysis. Journal of Telemedicine and Telecare 24(4): 257-262.
  7. Eriksson L, Lindström B, Gard G, Lysholm J (2009) Physiotherapy at a distance: A controlled study of rehabilitation at home after a shoulder joint operation. Journal of Telemedicine and Telecare 15(5): 215-220.
  8. Ismail MM, El Shorbagy KM (2014) Motions and functional performance after supervised physical therapy program versus home-based program after arthroscopic anterior shoulder stabilization: A randomized clinical trial. Annals of Physical and Rehabilitation Medicine 57(6-7): 353-372.
  9. Tousignant M, Giguère AM, Morin M, Pelletier J, Sheehy A, et al. (2014) In-home telerehabilitation for proximal humerus fractures: A pilot study. International Journal of Telerehabilitation 6(2): 31-37.
  10. Martinez Rico S, Lizaur Utrilla A, Sebastia Forcada E, Vizcaya Moreno MF, De Juan Herrero J (2018) The impact of a phone assistance nursing program on adherence to home exercises and final outcomes in patients who underwent shoulder instability surgery: A randomized controlled study. Orthop Nurs 37(6): 372-378.
  11. Pastora Bernal JM, Martín Valero R, Barón López FJ, Moyano NG, Estebanez Pérez MJ (2018) Telerehabilitation after arthroscopic subacromial decompression is effective and not inferior to standard practice: preliminary results. Journal of Telemedicine and Telecare 24(6): 428-433.
  12. Ramkumar PN, Haeberle HS, Navarro SM, Sultan AA, Mont MA, et al. (2018) Mobile technology and telemedicine for shoulder range of motion: Validation of a motion-based machine-learning software development kit. Journal of Shoulder and Elbow Surgery 27(7): 1198-1204.
  13. Cui J, Yeh SC, Lee SH (2019) Wearable sensors integrated with virtual reality: A self- guided healthcare system measuring shoulder joint mobility for frozen shoulder. Journal of Healthcare Engineering 2019: 7681237.
  14. Worboys T, Brassington M, Ward EC, Cornwell PL (2018) Delivering occupational therapy hand assessment and treatment sessions via telehealth. Journal of Telemedicine and Telecare 24(3): 185-192.
  15. Basu A, Kuziemsky C, de Araújo Novaes M, Kleber A, Sales F, et al. (2021) Telehealth and the COVID-19 pandemic: international perspectives and a health systems framework for telehealth implementation to support critical response. Yearbook of Medical Informatics 30(1): 126-133.
  16. Law M, MacDermid J (2014) Evidence-based rehabilitation: A guide to practice. (3rd edn), Slack Inc, New Jersey, USA.
  17. Moher D, Shamseer L, Clarke M, Ghersi D, Liberati A, et al. (2015) Preferred reporting items for systematic review and meta-analysis protocols (PRISMA-P) 2015 statement. Systematic Reviews 4(1): 1.
  18. Moore A (1995) Evidence-based everything. Bandolier 1(12): 1.

© 2022 Thierry Y Lienou, OTD, OTR/L, CAPS, ATP. This is an open access article distributed under the terms of the Creative Commons Attribution License , which permits unrestricted use, distribution, and build upon your work non-commercially.