DocumentCode :
2152632
Title :
Vision-based robotic motion control for non-autonomous environment
Author :
Shiuh-Jer Huang ; Shian-Shin Wu
Author_Institution :
Dept. of Vehicle Eng., Nat. Taipei Univ. of Technol., Taipei, Taiwan
fYear :
2007
fDate :
2-5 July 2007
Firstpage :
1455
Lastpage :
1462
Abstract :
A visual servo control system with SOPC structure is implemented on a retrofitted Mitsubishi RV-M2 robotic system. The hardware circuit has the functions of quadrature encoder decoding, limit switch detecting, pulse width modulation (PWM) generating and CMOS image signal capturing. The software embedded in Nios II micro processor has the functions of using UART to communicate with PC, robotic inverse kinematics calculation, robotic motion control schemes, digital image processing algorithm and gobang game AI algorithm. A CMOS color image sensor is used to catch the environment time-varying change for robotic vision-based servo control. A gobang game is planned to investigate the implementation problem of the visual servo robotic motion control in non-autonomous environment. A model-free intelligent self-organizing fuzzy control (SOFC) strategy is employed to design the robotic joint controller. A vision based trajectory planning algorithm is designed to calculate the desired angular positions or trajectory of each robotic joint. The experimental results show that this visual servo control robot has reliable control actions.
Keywords :
CMOS image sensors; control engineering computing; fuzzy control; image colour analysis; manipulator kinematics; microprocessor chips; motion control; robot vision; trajectory control; visual servoing; CMOS color image sensor; CMOS image signal capturing; Nios II microprocessor; PC; PWM; SOFC; SOPC structure; UART; digital image processing algorithm; environment time-varying change; gobang game; gobang game AI algorithm; hardware circuit; limit switch detecting; model-free intelligent self-organizing fuzzy control strategy; nonautonomous environment; pulse width modulation generating; quadrature encoder decoding; retrofitted Mitsubishi RV-M2 robotic system; robotic inverse kinematics calculation; robotic joint controller; robotic motion control schemes; robotic vision-based servo control; vision based trajectory planning algorithm; vision-based robotic motion control; visual servo control robot; visual servo control system; Games; Image color analysis; Joints; Robot kinematics; Robot sensing systems; Trajectory;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Control Conference (ECC), 2007 European
Conference_Location :
Kos
Print_ISBN :
978-3-9524173-8-6
Type :
conf
Filename :
7068224
Link To Document :
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