DocumentCode :
2525753
Title :
Bipedal walking simulation with controlled vibration using MR fluid, electromagnetic dampers and Spherical motors
Author :
Mahto, Manoj Kumar ; Chitturi, Amita B. ; Dehury, Saajan ; Sinha, Sujay Kumar ; Chaturvedi, Menorca
Author_Institution :
Dept. of Mech. Eng., SRM Univ., Chennai, India
fYear :
2010
fDate :
10-12 Sept. 2010
Firstpage :
687
Lastpage :
691
Abstract :
The aim of our study is to construct a Humanoid with enhanced bipedal walk, which can be utilized in the Medical Sector, as an effective substitute for Artificial Limbs. With reference to the human body, we have designed a humanoid such that the joints are exposed to zero friction, and the efficiency of the motor is increased. The natural phenomenon in the human to adjust the center of gravity and forces in the body can be implied in the humanoid as well. In-order for a better walk, proper force distribution can be compared with that of the human. Variable load carrying capacity and variable shock absorption is aimed at. In the detailed study carried out for this Project, all the dimensions of the major bones of the leg were measured and the range of movements at all the joints has been determined. We also discuss the various movements of the leg and certain values depicting the contact surface area of the Knee joint during movement have been deduced. An innovative leg design has been presented, which will enhance the walking, jumping and running of the robot.
Keywords :
artificial limbs; bone; electric motors; electromagnetic actuators; force control; friction; gait analysis; humanoid robots; magnetic fluids; magnetorheology; medical robotics; motion control; shock absorbers; vibration control; MR fluid; artificial limb; bipedal walking simulation; center of gravity; electromagnetic damper; human body; humanoid robot; load carrying capacity; magnetorheological fluid; shock absorption; spherical motor; vibration control; Fasteners; Fluids; Hip; Joints; Knee; Magnetic liquids; Magnetomechanical effects; Bipedal walk; bone dimensions; force distribution; humanoid; multiple degrees of freedom; spherical joints;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Mechanical and Electrical Technology (ICMET), 2010 2nd International Conference on
Conference_Location :
Singapore
Print_ISBN :
978-1-4244-8100-2
Electronic_ISBN :
978-1-4244-8102-6
Type :
conf
DOI :
10.1109/ICMET.2010.5598450
Filename :
5598450
Link To Document :
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