Loss of arm function significantly limits a person's ability to perform daily activities, work, and participate in social life. After stroke, brachial plexus injuries, fractures, or neurosurgical procedures, restoring upper limb mobility becomes a primary rehabilitation goal. Modern upper limb rehabilitation uses robotic systems with biofeedback that enable high-intensity, high-precision therapy.
Robotic systems provide passive, active-passive, and active therapy with gamified tasks that motivate patients to train. Unlike traditional physical therapy, robotic systems objectively measure range of motion, strength, and accuracy.
For rehabilitation centers, neurology clinics, and early rehabilitation departments, robotic upper limb systems are the modern standard for recovery.
Healthcare facilities can choose from various systems depending on their objectives. Common categories include:
For neurological patients, systems combining high-intensity training with gamified tasks and objective progress monitoring often deliver the best results.
Key factors to evaluate include:
| Factor | Why It Matters |
|---|---|
| Patient type (stroke, trauma, neurosurgery) | Determines required functionality |
| Level of impairment (shoulder, elbow, hand) | Influences system choice |
| Active/passive mode capability | Important for early rehabilitation stages |
| Biofeedback availability | Improves motivation and effectiveness |
| Patient volume | Impacts throughput requirements |
| Service support | Minimizes downtime risks |
Typical applications include:
Key benefits include:
UMC supplies advanced Fourier ArmMotus, WristMotus, OTParvos, and DualMotus robotic systems for upper limb rehabilitation.