Evidence

Clinical Impact

Clinical impact and evidence: peer-reviewed research, pilot findings, and the entropy-based metrics that predict therapeutic response.

Parkinson’s disease affects more than 10 million people worldwide and over one million individuals in the United States. Although pharmacological treatments can alleviate symptoms, no therapy currently halts disease progression. Exercise-based rehabilitation has been shown to improve motor function — yet personalization remains limited in conventional programs.

Adaptix Neuro builds upon a substantial body of peer-reviewed research demonstrating the benefits of motor-assisted cycling therapy.

Early Clinical Findings

In pilot studies conducted by our team:

  • Participants demonstrated 13% improvement in UPDRS motor scores after three sessions
  • Improvements reached 22% after twelve sessions

These results are particularly significant given the non-invasive, exercise-based nature of the intervention.

Interaction Variability and Motor Improvement

Our research identified a key insight: variability in cadence and power output during assisted cycling strongly correlates with motor improvement.

Specifically:

  • Approximate Entropy (ApEn)
  • Sample Entropy (SampEn)

were shown to predict therapeutic response. This discovery laid the foundation for the adaptive algorithms now embedded within Adaptix Neuro.

Objective Measurement and Validation

Clinical validation includes:

  • Use of UPDRS motor scoring
  • Integration with wearable motion sensors such as Kinesia One
  • Monitoring of physiological signals to ensure safety

Our Phase I objectives focus on validating real-time adaptive control strategies in lab-based studies with Parkinson’s disease participants, comparing adaptive therapy to static pre-set exercise protocols.

Beyond Parkinson’s Disease

While Parkinson’s disease is our initial target population, the broader neurological rehabilitation market includes:

  • Stroke survivors
  • Individuals with multiple sclerosis
  • Patients with motor neuron disorders
  • Aging populations experiencing mobility decline

The adaptive framework developed by BioMotion allows expansion into these domains without fundamental redesign.

Toward Scalable, Intelligent Rehabilitation

Our long-term vision is to enable:

  • Clinic-based deployment under therapist supervision
  • Home-based rehabilitation with remote monitoring
  • Data-driven therapy optimization at scale

By combining clinical evidence, advanced control systems, and machine learning, BioMotion aims to redefine how neurorehabilitation therapy is delivered — making it more personalized, effective, and accessible.