| English | Farsi
subglobal1 link | subglobal1 link | subglobal1 link | subglobal1 link | subglobal1 link | subglobal1 link | subglobal1 link
subglobal2 link | subglobal2 link | subglobal2 link | subglobal2 link | subglobal2 link | subglobal2 link | subglobal2 link
subglobal3 link | subglobal3 link | subglobal3 link | subglobal3 link | subglobal3 link | subglobal3 link | subglobal3 link
subglobal4 link | subglobal4 link | subglobal4 link | subglobal4 link | subglobal4 link | subglobal4 link | subglobal4 link
subglobal5 link | subglobal5 link | subglobal5 link | subglobal5 link | subglobal5 link | subglobal5 link | subglobal5 link
subglobal6 link | subglobal6 link | subglobal6 link | subglobal6 link | subglobal6 link | subglobal6 link | subglobal6 link
subglobal7 link | subglobal7 link | subglobal7 link | subglobal7 link | subglobal7 link | subglobal7 link | subglobal7 link
subglobal8 link | subglobal8 link | subglobal8 link | subglobal8 link | subglobal8 link | subglobal8 link | subglobal8 link

S. Ali A. Moosavian

 

Design and Manufacturing of a Weight Assisting Rehabilitation Robot  (RoboWalk)

Exoskeletons are used in different applications including the area of physical therapy in order to facilitate the patient’s exercises and as an assisting technology to assist the elderly carry out their ordinary activities as RoboWalk is supposed to do. Before constructing the system, the dynamics of the human and RoboWalk has been obtained using the Newton-Euler (NE) and the Recursive Newton Euler Algorithm (RNEA). The human model is a simplified version of a human model with 37 degrees of freedom and muscle actuated lower limb. The obtained models are then augmented to estimate the RoboWalk joint forces and torques, and to design the controller. The system is to be completed for experimental studies.

 

Back to Main | Contact Web Master | ©2019 S. Ali A. Moosavian