Title :
Kinesthetic Guided with Graphotherapeutic Purposes
Author :
Jarillo-Silva, Alejandro ; Dominguez-Ramirez, Omar A. ; Cruz-Tolentino, Jose A. ; Ramos-Velasco, Luis E. ; Parra Vega, Vicente
Author_Institution :
Inst. de Inf., Univ. de la Sierra Sur, Oaxaca, Mexico
Abstract :
This paper presents the design, construction and implementation of a calligraphic platform with biomedical applications. This technological tool could be employed in physiotherapy to recover the loss of calligraphic abilities caused by common psychomotor disorders such as dyslexia and brain stroke. The experimental platform allow to define the motion performance (physical interaction variables), in particular on upper limbs. the patient is guided through the end effector of a haptic device; to this end is used a nonlinear control in closed loop with the human operator, with language symbols as a trajectory tracking. This allows that the user can be a passive human, so the control law designed is based on passivity theory and sliding mode to achieve stability and security in human machine interaction. The haptic system described, is designed to improve the physiotherapeutic tasks by supplying the motion measurement (position/velocity) and its errors. Preliminary tests using this novel system demonstrated a significative influence on regain functions in patients with psychomotor disorders.
Keywords :
closed loop systems; end effectors; human-robot interaction; medical robotics; nonlinear control systems; stability; trajectory control; variable structure systems; biomedical applications; brain stroke; calligraphic abilities; calligraphic platform; closed loop; dyslexia; end effector; graphotherapeutic purposes; haptic device; human machine interaction; human operator; kinesthetic; language symbols; motion performance; nonlinear control; passivity theory; physiotherapeutic tasks; psychomotor disorders; sliding mode; stability; trajectory tracking; upper limbs; Haptic interfaces; Medical treatment; Performance evaluation; Phantoms; Robots; Stability analysis; Trajectory; Haptic guidance.; Haptic interfaces; Nonlinear control systems; Patient rehabilitation;
Conference_Titel :
Artificial Intelligence (MICAI), 2013 12th Mexican International Conference on
Conference_Location :
Mexico City
Print_ISBN :
978-1-4799-2604-6
DOI :
10.1109/MICAI.2013.45