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Exoskeleton System for Rehabilitation Training Based on Virtual Reality
This device offers distinct advantages over previous rehabilitation systems based on exoskeletons and similar VR environments. In data acquisition, for example, the built exoskeleton enables for a quick installation compared to other existing systems. It is inexpensive and free of cords that obstruct natural arm mobility.
The mechanisms and activities of this system are patterned according to the training specifications that are most suitable for proper rehabilitation in terms of exercise design. Furthermore, thanks to Unity3D and Oculus' powerful engine, the exercises and games are extensible and easily expandable.
Compared to previous rehabilitation systems based on exoskeletons and similar VR environments, this device has a number of distinct advantages. When it comes to data collecting, for example, the built-in exoskeleton allows for a faster installation than conventional solutions. It's cheap and doesn't have any cables that hinder natural arm movement.
It's a connected device that's compatible with IoT's new technologies and paradigms, allowing data to be managed remotely and accessed from anywhere in the world. Furthermore, the platform will enable not only patient rehabilitation but also continuous monitoring and follow-up of their medical parameters, making it a very useful tool for use in domestic settings.

Rehabilitation Exoskeleton Devices
Rehabilitation exoskeleton devices provide power assistance to weakened limbs. The power assistance can be scaled back as the body part(s) gets stronger during the course of the rehabilitation program. Exoskeletons and other wearable robotic devices can guaranty that each movement is completed correctly and in exactly the same way. The number of repetitions with an exoskeleton (be it steps, or hand movements, etc…) is usually greater than classical rehabilitation. Furthermore, the wearable device can also be used to evaluate a patient’s mobility and the data for each user can be uploaded to a computer. Because these types of exoskeletons are stationary, the bulk of the electronics such as power supply, controllers, and cooling mechanisms can be positioned away from the user and the device doesn’t have to be compact.

Medical exoskeletons are electrical equipment which is used to provide mobility to physically disabled, injured or weak persons, who are unable to walk due to a variety of medical reasons such as SCI, neurological disorders, major trauma like stroke, cerebral palsy and so on.
The primary applications for exoskeleton robots in today's market focus on rehabilitation services in the medical field training muscle movements and assisting in injury recovery in a more accurate and efficient way than was previously possible.

Exoskeletons are used to support body weight, assist with lifting, and help maintain loads, or stabilize the user's body. Many exoskeleton systems assist the arms, upper, and lower body.
Industrial exoskeletons are those that are used for industrial applications. Industrial manufacturing tasks involve workers who move heavy items around manually in very uncomfortable ways. This can introduce long-term health risks as well as reduced output, low productivity and poor performance.
They are currently seeing widespread adoption across multiple verticals and with big companies in automotive, aerospace, logistics, and construction.

Robotic exoskeletons are wearable electromechanical devices that have been developed as augmentative devices to enhance the physical performance of the wearer or as orthotic devices for gait rehabilitation or locomotion assistance.
The active Exoskeleton is a human interface for motion capturing and force interaction. The System is fixed at four points to the human body and can interact with the user at the upper shoulder, upper arm and forearm. The Exoskeleton is back drivable and can also use in a free running mode.
It is in two type and for two usage. Types divided to passive and Active mode and use for Upper extremity exoskeletons and Lower extremity exoskeletons.

Exoskeleton (Robotics)
Robotic exoskeletons involve sensors, actuators, mechanical structures, algorithms, and control strategies capable of acquiring information to execute a motor function.
An exoskeleton, as the name suggests, is an external frame that can be worn to support the body, either to help a person overcome an injury or to enhance their biological capacities. Powered by a system of electric motors, the frame gives limbs extra movement, strength and endurance.

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International conference on Virtual Reality in Medecine rehabilitation