Virtual reality rehabilitation in physiotherapy

Virtual reality rehabilitation: why it's gaining ground in clinics and centers

Therapeutic VR is no longer a gimmick. A 2024 umbrella review of 13,184 patients confirms significant effects on pain, balance, and engagement. Here's how to integrate it without compromising clinical rigor.

A patient who hesitates to put weight on their lower limb, who is apprehensive about a shoulder movement that is nevertheless permitted, or who drops out after a few sessions, is not experiencing a motivation problem in the simplistic sense of the term. It is often a matter of confidence, perception of effort, and adherence. This is precisely where virtual reality rehabilitation changes the dynamics of treatment. It does not replace the physiotherapist's clinical reasoning. It gives them an additional tool to get the patient moving again, with greater engagement, more useful repetitions, and often less avoidance.

For healthcare facilities, the benefit is not only technological. It is clinical, organizational, and strategic. When a tool improves the patient experience while remaining compatible with rigorous rehabilitation, it deserves a real place in the therapeutic arsenal.

Why virtual reality rehabilitation is gaining ground in private practices and centers

Therapeutic virtual reality (VR) addresses a well-known challenge in the field: getting patients to perform the correct movement, repeated sufficiently, in a motivating environment, without trivializing the functional objective. In physiotherapy, the quality of execution is as important as the quantity. However, the patient's attention is not always focused on the right target. Pain, fear, fatigue, or the feeling of always repeating the same exercises can hinder progress.

VR changes this context. By immersing the patient in a goal-oriented task, it partially diverts attention from apprehension and encourages action. Movement is no longer perceived as an isolated gesture requested by the therapist, but as a response to a concrete situation within an interactive environment. This may sound simple. In practice, it is often crucial.

The data are converging. An umbrella review published in 2024, aggregating 14 meta-analyses and 13,184 patients, concluded that VR has a significant effect on musculoskeletal rehabilitation, with an average reduction in knee pain (mean difference of -1.38 on the VAS) and an improvement in balance [1]. In post-stroke upper limb rehabilitation, a 2024 meta-analysis of 23 studies and 395 patients showed an average gain of +3.04 points on the Fugl-Meyer scale compared to conventional rehabilitation [2]. In cardiac rehabilitation, VR improves the 6-minute walk test distance by an average of +34.9 meters [3].

This approach is particularly relevant in cases where kinesiophobia, loss of confidence, or difficulty engaging in movement slow progress. This is true in orthopedics, traumatology, and spinal surgery, but also in certain neurological , vestibular , or postural balance treatments. The benefit does not stem from the novelty factor alone. It lies in VR's ability to create conditions conducive to movement.

How virtual reality changes the patient experience

The first change is engagement. An engaged patient completes more, often with better concentration. The session becomes more active, clearer, and more rewarding. For many patients, especially those with a fear of movement, immersion creates a kind of psychological buffer. They focus on the task, less on the fear of the movement. Recent reviews attribute this mechanism to the combination of gamification, real-time feedback, and the activation of the mirror neuron system [4].

The second change concerns the perception of effort. Repetitive exercise can be experienced as strenuous. The same exercise integrated into an immersive scenario is often better tolerated. This doesn't eliminate fatigue or the therapeutic requirement, but it improves acceptability. And as acceptability increases, repetition follows.

The third point is immediate feedback. Virtual reality rehabilitation environments allow for clear feedback on performance, range of motion, precision, and balance. For the patient, this makes the objective concrete. For the practitioner, it facilitates adjustments and monitoring. The goal is not to produce data for data's sake, but to illuminate functional progress and objectify physiotherapy assessments .

> 💡 Key takeaway: VR acts on three simultaneous clinical levers — adherence (the patient returns and completes their sessions), quality of execution (attention directed towards the task, less towards fear) and objectivity (real-time measurements usable in assessment).

A useful technology only if it remains clinical

Let's be clear: not every immersive solution automatically has therapeutic value. In rehabilitation, the tool is only meaningful if it's integrated into a coherent clinical strategy. The choice of exercises, dosage, progression, difficulty criteria, and precautions remain the responsibility of the professional.

This is the key difference between an appealing animation and a truly effective treatment tool. A good VR solution for physiotherapy must allow for the development of specific objectives: range of motion, motor control, coordination, proprioception, balance, gradual exposure to movement, vestibular stimulation, strengthening, or relaxation. It must also be adaptable to the needs of different patient profiles, from athletes returning to training to elderly individuals experiencing balance problems.

In other words, technology is not the focus. Function is the focus. Immersion is only useful if it improves the quality of care.

In which cases is virtual reality rehabilitation most relevant?

The honest answer is simple: it depends on the therapeutic goal and the patient's profile. VR is not a universal solution, but it becomes very relevant when movement needs to be restored with commitment and gradual progression.

| Domain | Main indications | Level of evidence | |---------|------------------------|------------------| | Orthopedics & traumatology | Post-ACL surgery, capsulitis, prostheses | Favorable RCT meta-analyses [5] | | Upper limb | Post-stroke, rotator cuff, shoulder | Significant effect on Fugl-Meyer [2] | | Lower limb | Knee, hip, ankle, weight-bearing | Significant VAS pain reduction [1] | | Spine | Chronic low back pain, neck pain | Graded exposure, kinesiophobia | | Neurology | Stroke, MS, Parkinson's, traumatic brain injury | Motor gains and balance [2] | | Postural balance | Elderly, fall prevention | BBS and TUG improvement | | Vestibular | Vertigo, BPPV, Meniere's | Controlled habituation | | Relaxation | Chronic pain, pre-session anxiety | Quality of life improvement [3] |

For spinal and persistent pain, the benefit often lies in gradual exposure. Some patients move better when the environment reduces hypervigilance. In neurology, task-based stimulation, goal-oriented repetition, and feedback are particularly valuable, provided they are integrated into a realistic treatment plan. In vestibular and balance disorders, immersion allows for working on situations that would be more difficult to reproduce in such a controlled manner in a traditional office setting.

It is also a valuable tool for relaxation and managing the mental workload associated with rehabilitation. Again, it's not about opposing physical care and the mind-body connection. In many cases, the two are closely linked.

What healthcare professionals gain from it on a daily basis

The benefits for practitioners extend beyond simply making sessions more engaging. A well-designed solution allows for more diverse protocols without compromising rigor, better individualization of difficulty levels, and sustained patient involvement. This translates into improved quality of care and increased effectiveness in facilitating therapy.

In a practice or institution, this matters. Teams seek tools that support their practice, not complicate it. If implementation is cumbersome, if usage is unclear, or if the exercises don't align with common clinical indications, adoption will remain limited. Conversely, when the tool integrates easily into a session, with concrete use cases and actionable functional assessments, it becomes a valuable asset.

There is also an issue of image and differentiation. Modernizing care is not just a marketing ploy. For many facilities, offering innovative, engaging, and medically supervised rehabilitation helps to increase patient satisfaction and establish a position of excellence.

Points to consider before integrating VR into rehabilitation

Enthusiasm should not make us forget the conditions for success.

> ⚠️ Key point: VR never compensates for a flawed initial assessment. If clinical objectives are poorly defined, even the most advanced tool will not improve patient care.

First, not all patients react to immersion in the same way. Some adapt immediately, while others need time to adjust. There may also be limitations depending on sensory tolerance, fatigue, cognitive impairment, or certain specific clinical situations (photosensitive epilepsy, acute unstable vestibular disorders, for example).

Then, the right question is not "do we need virtual reality?", but "at what point in the process, for what purpose, with what progression?" The tool follows the clinical approach, not the other way around.

Finally, the regulatory and scientific dimension is essential . In the healthcare field, professionals logically expect reliable, safe solutions designed for real-world therapeutic use. It is in this area that a specialized player builds its value: an approach grounded in evidence-based physiotherapy practice, daily clinical use, and devices designed to meet the demands of patient care.

How KineQuantum transforms this science into concrete results

KineQuantum was designed with and for physiotherapists. The logic is simple: start with real-world indications, translate scientific evidence into clinically usable exercises, and give the practitioner complete control over the session.

From research to your daily practice:

1. An exercise library aligned with EBP : more than 250 exercises covering orthopedics, neurology, vestibular, balance, spine, upper and lower limb, designed with a scientific committee of physiotherapists.

2. Integrated objective assessments : amplitudes, speed, symmetry, balance — all measurements are automatically recorded and exportable for the patient file or the report to the prescriber.

3. Progression controlled by the physiotherapist : each exercise is customizable in terms of difficulty, duration, and targeted range of motion. You retain control over the therapeutic dose; VR does not impose anything.

4. Seamless session integration : 10 to 20 minutes of VR exercise can be inserted into a standard session without any major reorganization. The patient then proceeds with the rest of their care.

5. Two solutions depending on your practice : KineQuantum Liberté (standalone, all-in-one headset, mobile) and KineQuantum Classique (with external sensors for finer measurements).

This tool does not replace your clinical examination or your reasoning. It gives you an additional tool for patients who need it most — those who struggle to engage, who are apprehensive about movement, or who have reached a plateau in conventional rehabilitation.

Towards a more engaging rehabilitation, without compromising on standards

Virtual reality does not change the fundamentals of physiotherapy. It does not replace clinical examination, the selection of the right exercise, or therapeutic progression. However, it improves a crucial link in many treatment pathways: the patient's ability to truly engage in movement.

This is what makes it much more than just an innovative piece of equipment. When used correctly and with the right framing, it helps reduce avoidance, increase relevant repetitions, and make the session more active, reassuring, and effective. For practices, clinics, and rehabilitation centers that want to modernize their approach without compromising clinical quality, virtual reality rehabilitation is not a trend to follow. It's an evolution to integrate methodically.

FAQ — Virtual Reality Rehabilitation

Does virtual reality replace the physiotherapist? No. VR is a therapeutic tool that supports the physiotherapist's clinical reasoning. It facilitates patient engagement and objective measurement, but the choice of indications, dosage, and progression remain entirely the responsibility of the practitioner.

For which patients is VR not recommended during rehabilitation? The main contraindications are uncontrolled photosensitive epilepsy, unstable acute vestibular disorders, and certain severe cognitive impairments. Significant fatigue, sensory intolerance, or marked apprehension may also warrant a gradual introduction. An initial assessment by a physiotherapist remains essential.

How long does a VR rehabilitation session last? Generally, between 10 and 20 minutes of immersive exercises, integrated into a standard 30- to 45-minute session. This duration avoids eye strain or motion sickness, and allows for a seamless transition to the rest of the treatment plan (manual therapy, strengthening exercises, advice).

Does VR cause motion sickness or nausea? A small percentage of patients experience mild discomfort during initial exposure, which is usually temporary. Modern therapeutic solutions use environments designed to minimize this risk (stable visual references, gradual movements). If discomfort persists, the session is stopped or modified.

What is the level of scientific evidence for VR in rehabilitation? Strong and growing. Several meta-analyses from 2024-2025 confirm significant effects on pain, balance, upper limb motor function post-stroke, and cardiopulmonary function in cardiac rehabilitation [1][2][3]. The levels of evidence are classified from suggestive to highly suggestive according to the indications.

---

💡 Interested in integrating virtual reality rehabilitation into your practice or center? 👉 Book a demonstration

---

References

[1] Wei, X. et al. (2024). The Efficacy of Virtual Reality on the Rehabilitation of Musculoskeletal Diseases: Umbrella Review. J Med Internet Res . https://www.ncbi.nlm.nih.gov/pmc/articles/PMC12064964/

[2] Ceradini, M. et al. (2025). Immersive Virtual Reality in Stroke Rehabilitation: A Systematic Review and Meta-Analysis of Its Efficacy in Upper Limb Recovery. J Clin Med , 14(6), 1783. https://www.mdpi.com/2077-0383/14/6/1783

[3] Cheng, Q. et al. (2025). The Impact of Virtual Reality on Cardiopulmonary Function and Adherence in Cardiac Rehabilitation Patients: A Systematic Review and Meta-Analysis. Healthcare , 13(22), 2969. https://www.ncbi.nlm.nih.gov/pmc/articles/PMC12652452/

[4] Drigas, A. & Sideraki, A. (2024). Mirror neurons and virtual reality in neurorehabilitation: emerging mechanisms. Virtual Reality Journal .

[5] Du, C. et al. (2025). Efficacy of virtual reality balance training on rehabilitation outcomes following anterior cruciate ligament reconstruction: A systematic review and meta-analysis. PLoS ONE . https://www.ncbi.nlm.nih.gov/pmc/articles/PMC11731729/