HAL Hybrid Assistive Limb
A wearable cyborg exoskeleton using bio-electrical signals to support voluntary movement for gait rehabilitation in neurological patients.
Key Highlights
- Wearable Cyborg Exoskeleton
- Bio-Electrical Signal Detection
- Voluntary Intention Support
- Lower Limb Assistance
- Hybrid Assistive Limb Technology
Product Overview
The HAL (Hybrid Assistive Limb) is a wearable cyborg exoskeleton developed by Cyberdyne that uses bio-electrical signals (BES) from the wearer's muscles to detect movement intention and provide powered voluntary movement support. Unlike traditional exoskeletons that impose external motion, HAL works in harmony with the wearer's nervous system, supporting the patient's intended movement based on real-time bio-electrical feedback. Featuring Cybernic Voluntary Control and Cybernic Autonomous Control modes, HAL enables patients to actively participate in their rehabilitation while receiving robotic assistance at the hips, knees, and ankles.
With bio-electrical sensors detecting even muscle intention signals, HAL can support patients with severe paralysis who retain partial neural signal pathways to the muscles. The system is approved in Japan, EU, and other international markets for use in stroke, spinal cord injury, and neurodegenerative disease rehabilitation. For patients with limited mobility, HAL provides a patient-driven rehabilitation approach that promotes neuroplasticity and functional recovery through repeated voluntary movement practice. It represents a unique fusion of human intention and robotic assistance in modern rehabilitation medicine.
Key Features & Capabilities
Enterprise-grade technology designed for mission-critical operations
Bio-Electrical Signal Detection
Sensors detect muscle intention signals to drive powered assistance
Voluntary Movement Support
Assists the wearer's intended movement rather than imposing external motion
Hybrid Assistive Limb
Combines bio-electrical control with robotic actuators for natural movement
Lower Limb Assistance
Supports hip, knee, and ankle joints during walking and standing
Cybernic Voluntary Control
Enables the patient to actively participate in their own rehabilitation
Technical Specifications
Key technical details and performance specifications
| Specification | Details |
|---|---|
| Device Type | Wearable Cyborg Exoskeleton (Hybrid Assistive Limb) |
| Application | Gait rehabilitation, mobility support |
| Control Technology | Bio-electrical signal (BES) detection |
| Joints Actuated | Hip, knee, ankle (bilateral) |
| Battery Type | Rechargeable lithium-ion |
| Battery Life | ~2�3 hours per charge |
| Sensors | Bio-electrical sensors, joint encoders, force sensors |
| Modes | Cybernic Voluntary Control, Cybernic Autonomous Control |
| Patient Weight Capacity | Up to 80 kg (varies by model) |
| Wearable Components | Leg units, control unit, electrodes |
| Communication | Wireless data transmission |
| Operating Environment | Hospitals, rehabilitation centers |
| Regulatory | Approved in Japan, EU, and other markets |
| Medical Specialty | Rehabilitation medicine, neurology |
| Patient Population | Stroke, SCI, neuromuscular diseases |
| Therapy Approach | Patient-driven voluntary movement |
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