Key areas
Impact of Movement Disorders
Movement disorders can significantly affect physical function, coordination, and daily activities. The impact varies depending on the condition and severity, often influencing independence and quality of life. Early and consistent therapy plays a key role in improving outcomes.
Motor Control
Difficulty initiating or controlling voluntary movements.
Coordination & Balance
Impaired stability, increasing the risk of falls.
Involuntary Movements
Tremors, spasms, or uncontrolled motions affecting daily tasks.
Muscle Tone
Stiffness (rigidity) or abnormal muscle contractions.
Functional Mobility
Challenges in walking, posture, and overall movement.
Daily Living Skills
Reduced ability to perform routine activities independently.
Technologies Used for Movement Disorders
Cyberdyne HAL
Interprets weak bio-electrical signals to assist voluntary gait and lower-limb movement, reinforcing correct motor patterns and neuroplastic adaptation.
TYMO Balance System
A balance assessment and training platform providing real-time visual feedback to improve stability, posture, and cognitive-motor integration.
Hand of Hope
A task-oriented upper-limb system supporting reaching, grasping, and functional hand movements through repetitive assisted training.
PABLO Rehabilitation System
An integrated assessment and therapy device targeting upper-limb function, trunk control, cognition, and gait with real-time performance tracking.
Gait LAB
A comprehensive gait analysis and training environment enabling data-driven adjustments to walking and balance therapy.
LUNA EMG Biofeedback System
Provides real-time muscle activation feedback using EMG signals to support strengthening, proprioception, and motor relearning.
Vibramoov
A proprioceptive stimulation tool that supports early motor learning, balance training, and muscle tone regulation.
VitalStim Therapy
Electrical stimulation used in speech and swallowing rehabilitation to activate muscles involved in deglutition and coordination.
Syrebo Hand Therapy
A robotic hand rehabilitation system designed to improve dexterity and fine motor control through repetitive movement training.
rTMS
Non-invasive brain stimulation that modulates cortical excitability, supporting neuroplasticity and motor and cognitive recovery.
Chattanooga Electrical Stimulation
Neuromuscular electrical stimulation (NMES) for muscle strengthening, functional improvement, and pain modulation.
Cyber Trunk Rehabilitation System
A trunk-focused training system that improves core stability, sitting balance, and postural control.
xStep Non-Invasive Spinal Stimulation
A non-invasive spinal stimulation technology designed to enhance brain–spinal cord communication and motor coordination.
Where technology Meets Neuroscience Recovery in Movement Disorders Rehabilitation
Step 1
Detection of Neural Signals
- Sensors capture bioelectric signals from the brain
- Identifies the patient’s intention to move
- Enables early engagement even with limited physical ability
Step 2
Assisted Movement Execution
- Robotic systems support natural movement patterns
- Encourages correct posture and gait
- Reduces strain while maximizing repetition
Step 3
Neuroplasticity Activation
- Repetitive, guided movement stimulates brain rewiring
- Strengthens connections between neurons
- Promotes long-term functional recovery
Step 4
Real-Time Feedback & Progress Tracking
- Immediate feedback enhances motor learning
- Tracks improvements in strength, balance, and coordination
- Allows therapists to personalize treatment plans
Why WalkAgain
Conventional Neurorehab
- Restore lost physical function
- Manual repetition
- Therapist-driven
- Indirect
- Gradual, often plateauing
Walk Again Neurorehab
- Reactivate and retrain damaged neural circuits
- Brain–Computer Interface, robotics, FES
- Data-driven with real-time adjustments
- Direct and targeted stimulation
- Faster gains with sustained improvement
Patient Journey
Stage 1
Improved gait and limb control
Stage 2
Reduced spasticity and muscle stiffness
Stage 3
Better balance and coordination
