Prosthetics & HMI Research

Objective sensor data for prosthetic rehabilitation

Bio6 provides wearable EMG and motion sensing tools designed to support prosthetic rehabilitation programs and human-machine interface research.

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Person in blue shirt examining a carbon-fiber robotic prosthetic arm

Built for prosthetic rehabilitation and research

Bio6 provides clinicians and researchers with objective biometric data throughout the prosthetic rehabilitation process. Wearable sensors capture EMG signals, movement patterns, and biomechanical data to support evidence-based care.

Teams can monitor prosthetic control performance, track rehabilitation progress over time, and generate structured outcome reports — all within a single platform.

Bio6 also supports human-machine interface research by providing reproducible, structured datasets for prosthetic control studies.

Capture prosthetic control signals

Analyse EMG signals and muscle activation patterns used to operate prosthetic devices. Evaluate signal quality, timing, and control strategy performance across sessions.

Monitor movement and biomechanics

Measure arm movement, joint angles, and motion patterns during prosthetic use. Understand how control signals translate into real functional movement outcomes.

Track rehabilitation progress

Monitor how prosthetic users regain mobility and coordination during rehabilitation programs. Track functional improvements and therapy outcomes over time with objective data.

Support human–machine interface research

Provide structured datasets for research in prosthetic control and human-machine interfaces. Study how users interact with assistive technologies to inform system design.

Capabilities

How Bio6 supports prosthetic innovation and rehabilitation

PROSTHETIC CONTROL ANALYSIS

Prosthetic Control Analysis

Capture and analyse muscle signals and control inputs used to operate prosthetic devices. Bio6 helps researchers evaluate signal quality, activation timing, and control strategies.

  • EMG signal analysis
  • Muscle activation patterns
  • Control signal interpretation

BIOMECHANICS MONITORING

Movement & Biomechanics Monitoring

Measure arm movement, joint angles, and motion patterns when using prosthetic devices. Understand how prosthetic control translates into real functional movement.

  • Range of motion
  • Movement symmetry
  • Biomechanical motion analysis

REHABILITATION TRACKING

Rehabilitation Progress Tracking

Monitor how prosthetic users regain mobility and coordination during rehabilitation. Track functional improvements and therapy outcomes over time.

  • Functional task performance
  • Movement quality analysis
  • Rehabilitation progress metrics

RESEARCH SUPPORT

Human–Machine Interaction Research

Study how users interact with assistive technologies and prosthetic systems. Bio6 provides structured datasets for research in prosthetic control and human-machine interfaces.

  • Prosthetic control experiments
  • Signal classification research
  • Interaction modelling
Real-world evaluation

Evaluate prosthetic performance in real rehabilitation scenarios

Bio6 enables teams to analyse prosthetic control and user performance in real rehabilitation environments. By combining wearable sensing and motion analytics, clinicians and researchers can observe how users adapt to prosthetic devices during functional tasks and therapy sessions.

This approach helps improve prosthetic design, optimise control algorithms, and develop more effective rehabilitation strategies.

01

Baseline biometric assessment

Capture EMG signal profiles, muscle activation patterns, and baseline movement data before prosthetic training begins.

02

Prosthetic control evaluation

Analyse control signal quality, activation timing, and strategy performance during initial prosthetic use and therapy.

03

Monitor rehabilitation progress

Track functional task performance, movement quality, and rehabilitation outcomes across sessions.

04

Generate outcome reports

Produce structured reports documenting prosthetic control performance and rehabilitation progress for clinical and research use.

Measurement

Objective data across the prosthetic rehabilitation pathway

EMG signal analysis

Capture and analyse muscle activation signals used to control prosthetic devices. Evaluate signal quality, activation timing, and control strategy consistency across sessions.

Movement & biomechanics monitoring

Measure arm movement patterns, joint angles, and motion symmetry during prosthetic use to understand how control signals translate into functional movement.

Functional task performance

Evaluate how prosthetic users perform standardised functional tasks during rehabilitation. Track improvement in task completion quality and movement efficiency over time.

Structured research datasets

Generate reproducible, structured movement and signal datasets for prosthetic control research, signal classification, and human-machine interaction studies.

Clinical Example

Transradial prosthetic — EMG control study

A patient at Week 8 of their transradial prosthetic rehabilitation. Bio6 tracks EMG signal quality, control accuracy, and session adherence in one unified view.

Clinician examining a carbon-fiber prosthetic arm during a rehabilitation session
Bio6 Prosthetics Lab
Clinician view
ParticipantsEMG SessionsControl AnalysisReports

Active Subjects

J. MartinW8
A. PatelW5
L. DuboisW3

J. Martin — Week 8

Transradial prosthetic · EMG control · Adherence 94%

EMG Signal Amplitude

W1W4W8 ↑

Signal Quality

92%

+6% vs W4

Control Acc.

87%

+9% vs W4

Adherence

94%

Excellent

Sessions

8

Completed

Real-time EMG capture

BioBand streams muscle activation signals throughout the session — no post-processing lag.

Week-over-week trends

Clinicians instantly see whether signal quality and control accuracy are improving across sessions.

Exportable reports

One-click PDF reports for clinical notes, research publications, or multi-site data sharing.

Who it's for

Built for prosthetics research and rehabilitation teams

Bio6 supports organisations working at the intersection of prosthetic technology, rehabilitation science, and human-machine interaction.

Prosthetics research laboratories
Biomedical engineering teams
Rehabilitation institutes
Human-machine interface researchers
Universities and innovation centres

Frequently asked questions

Build rehabilitation programs that evolve with your patients

Move from subjective observation to measurable, data-driven care. Bio6 helps clinicians deliver better outcomes with less friction.