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Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs
Robotic Exoskeletons in Post-Stroke Physiotherapy Programs

Robotic Exoskeletons in Post-Stroke Physiotherapy Programs

Price 750000.0 INR/ Piece

MOQ : 1 Piece

Robotic Exoskeletons in Post-Stroke Physiotherapy Programs Specification

  • Power Consumption
  • Intelligent smart exoskeleton for neuro recovery Watt (W)
  • Portable
  • Wearable smart exoskeleton for rehab clinics
  • Material
  • Smart exoskeleton for stroke recovery therapy
  • Power
  • Advanced smart exoskeleton system for rehabilitation Volt (v)
  • Adhesive Type
  • Neuro rehabilitation smart exoskeleton solution
  • Set Contains
  • Wearable smart exoskeleton for rehab centers
  • Technology
  • Hospital grade smart exoskeleton equipment
  • Lighting Type
  • Robotic smart exoskeleton for mobility training
  • Application
  • Hospital grade smart rehabilitation exoskeleton system
  • Shape
  • Smart exoskeleton for paralysis recovery therapy
  • Storage Instructions
  • Clinical smart gait training exoskeleton device
  • Condition
  • Smart exoskeleton for spinal rehabilitation care
  • Size
  • Smart exoskeleton for stroke rehabilitation therapy
  • Color
  • Smart exoskeleton for walking and gait training
  • Function
  • Physiotherapy smart exoskeleton support system
  • Operation Mode
  • Lower limb smart exoskeleton for physiotherapy care
  • Wall Mounted
  • Lower limb smart exoskeleton for physiotherapy
  • Warranty
  • Smart exoskeleton for spinal and joint recovery
  • Suitable For Use
  • Advanced smart rehab robotics equipment
  • Use
  • Smart exoskeleton for functional recovery therapy
  • Magnification Power
  • Robotic smart exoskeleton for walking training mm
  • Attributes
  • Clinical smart gait training exoskeleton
  • Equipment Type
  • Orthopedic rehab smart exoskeleton system
  • Feature
  • Intelligent smart exoskeleton for therapy programs
  • Voltage
  • Smart robotic exoskeleton for orthopedic rehab Statampere (sA)
  • Real-Time Operation
  • Advanced smart rehabilitation robotics solution Week
  • Accuracy
  • Smart exoskeleton for movement re-education mg
  • Operating Type
  • Physiotherapy smart exoskeleton mobility support
  • Capacity
  • Orthopedic rehab smart exoskeleton equipment Kg
  • Dimension (L*W*H)
  • Clinical smart exoskeleton for physiotherapy use Inch (in)
  • Noise Level
  • Smart exoskeleton for paralysis rehabilitation db
  • Recyclable
  • No
  • Recommended For
  • Shoulder, Joints, Cervical, Back, Muscles, Nerves
  • Treatment
  • Smart exoskeleton for gait and mobility training
  • Measuring Range
  • Smart exoskeleton system for rehabilitation therapy Rankine
  • Pressure Range
  • Neuro rehab smart exoskeleton equipment
  • Frequency Range
  • Intelligent exoskeleton for neuro rehabilitation Hertz (HZ)
  • Usage
  • Smart exoskeleton for orthopedic recovery
  • Age Group
  • Children, Adults, Women, Elders, Infants
  • Display
  • Touch Screen
  • Power Source
  • Electric
  • Weight
  • Clinical smart exoskeleton for physiotherapy centers Kilograms (kg)
 

Robotic Exoskeletons in Post-Stroke Physiotherapy Programs Trade Information

  • Minimum Order Quantity
  • 1 Piece
  • FOB Port
  • New Delhi
  • Payment Terms
  • Paypal, Cash Against Delivery (CAD), Cash on Delivery (COD), Cash Advance (CA), Cash in Advance (CID), Cheque, Days after Acceptance (DA), Delivery Point (DP), Letter of Credit at Sight (Sight L/C), Telegraphic Transfer (T/T), Western Union, Letter of Credit (L/C)
  • Supply Ability
  • 1 Piece Per Day
  • Delivery Time
  • 1 Week
  • Sample Available
  • Yes
  • Sample Policy
  • Free samples available with shipping and taxes paid by the buyer
  • Packaging Details
  • as per communication
  • Main Export Market(s)
  • Asia, Australia, Central America, North America, South America, Eastern Europe, Western Europe, Middle East, Africa
  • Main Domestic Market
  • All India
  • Certifications
  • as per communication customer
 

About Robotic Exoskeletons in Post-Stroke Physiotherapy Programs

Biotronix Robotic Exoskeletons in Post-Stroke Physiotherapy Programs

Robotic exoskeletons are playing a critical role in post-stroke physiotherapy programs by enabling structured, intensive, and task-specific rehabilitation for patients with impaired mobility. After a stroke, many individuals experience weakness, poor coordination, and difficulty walking due to disrupted neural pathways. Robotic exoskeletons support and guide lower limb movement, allowing patients to practice correct gait patterns safely and repeatedly. By integrating robotic assistance into physiotherapy programs, clinicians can enhance neuroplasticity, accelerate functional recovery, and improve long-term mobility outcomes.

Key Features

  • Wearable robotic exoskeleton designed specifically for post-stroke rehabilitation

  • Adaptive gait assistance based on patient motor recovery level

  • Multi-joint support for hips, knees, and ankles to restore natural walking mechanics

  • Real-time sensor-based control for smooth, coordinated movement

  • Adjustable assistance and body-weight support for gradual progression

  • Therapist-controlled interface for customized post-stroke therapy protocols

  • Advanced safety systems, including emergency stop and torque limitation

  • Continuous data capture for monitoring gait quality and patient progress

Applications

  • Post-stroke gait retraining and walking rehabilitation

  • Balance and postural control therapy after stroke

  • Lower limb strength and coordination training

  • Early mobilization programs in acute and sub-acute stroke care

  • Chronic stroke rehabilitation in physiotherapy clinics and hospitals

  • Advanced gait analysis and functional mobility training

Benefits

  • Enhances neuroplasticity through repetitive, task-specific gait training

  • Enables safe upright mobility for patients with limited post-stroke function

  • Improves walking symmetry, coordination, and endurance

  • Provides objective, data-driven evaluation of stroke recovery

  • Reduces physical strain on physiotherapists during intensive sessions

  • Increases patient confidence, motivation, and therapy participation

  • Supports faster and more consistent functional recovery

Technical Specifications

  • System type: Wearable lower-limb rehabilitation exoskeleton

  • User weight range: Approximately 40a120 kg

  • User height range: Approximately 150a195 cm

  • Assisted joints: Hip (2 degrees of freedom), Knee (1 degree of freedom), Ankle (1 degree of freedom per side)

  • Actuation system: High-torque brushless DC motors with integrated torque sensors

  • Power supply: Rechargeable lithium-ion battery pack

  • Battery backup: Approximately 3a5 hours of continuous operation

  • Charging time: Approximately 2a3 hours

  • Training modes: Passive, active-assist, resistive, adaptive

  • Sensor system: IMU sensors, joint encoders, force and torque sensors

  • Safety features: Emergency stop button, torque limiters, mechanical braking system

  • Connectivity: Bluetooth, Wi-Fi, USB data export

  • Compliance: Medical device certifications (model dependent)

  • Operating temperature: 10AC to 40AC

  • Storage temperature: a20AC to 60AC


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Next-Generation Rehabilitation Therapy

Harness cutting-edge robotics with our smart exoskeleton system, engineered for hospital-grade physiotherapy. Designed for patients recovering from stroke, paralysis, or orthopedic conditions, it accelerates movement re-education and mobility. Its wearable, user-friendly design enables customized, monitored sessions, making therapy accessible and effective in clinical settings.


Personalized and Intelligent Recovery

Our digital exoskeleton adapts to individual patients' rehabilitation needs, offering smart gait training and neuro-rehabilitation. The device supports real-time performance monitoring, with adjustable settings tailored for spinal, joint, and lower limb therapy. Reliable and efficient, it helps therapists deliver precise, evidence-based recovery programs.

FAQ's of Robotic Exoskeletons in Post-Stroke Physiotherapy Programs:


Q: How does the smart exoskeleton aid in post-stroke physiotherapy?

A: The robotic smart exoskeleton assists patients in relearning movement patterns, supporting weakened limbs, and facilitating gait and mobility training. Its customizable, digital interface allows for progressive therapy aimed at improving strength, coordination, and overall functional recovery after stroke.

Q: What clinical environments are suitable for this exoskeleton system?

A: This hospital-grade exoskeleton is ideal for use in physiotherapy centers, rehabilitation clinics, and hospital settings. Its durable build and portability make it adaptable for various patient populations, including children, adults, elders, and infants.

Q: When should a patient start using the exoskeleton during rehabilitation?

A: Patients typically begin exoskeleton-assisted therapy as soon as they are medically stable and cleared by their care team. Early intervention can maximize neuroplasticity, but the exact timing will depend on individual recovery trajectories and physician recommendations.

Q: Where on the body is the smart exoskeleton applied?

A: The device is primarily designed for lower limb and spinal rehabilitation but can also be configured for shoulder, joints, cervical, back, and nerve recovery, providing comprehensive support across multiple muscle groups.

Q: What is the process for operating the intelligent exoskeleton?

A: Therapists set up and fit the exoskeleton on the patient, select the appropriate therapy mode via the touch screen display, and monitor exercises in real time. The device's adaptive controls facilitate safe and effective movement throughout each session.

Q: What are the main benefits of incorporating the smart exoskeleton into therapy programs?

A: Patients and clinicians benefit from enhanced accuracy in movement training, improved mobility, less manual support required from therapists, and individualized, data-driven recovery plans. The smart system supports quicker, more efficient rehabilitation outcomes.

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