• Title/Summary/Keyword: 가속도 전향보상

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Improvement of Speed Control Performance using Acceleration Feedforward and Incrtia Identification for the Induction Motor (관성능률 추정과 가속도 전향보상을 이용한 유도전동기의 속도제어 성능향상)

  • 이재옥;김상훈
    • The Transactions of the Korean Institute of Power Electronics
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    • v.6 no.1
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    • pp.90-97
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    • 2001
  • In this paper, a novel speed control strategy using an acceleration feedforward compensation by the estimation of the system inertia is proposed. With the proposed method, the enhanced speed control performance can be achieved and the speed response against the disturbance torque can be improved for the vector-controled induction motor drive systems in which the bandwidth of the speed controller cannot be made large enough. The simulation and experimental results for induction motor drive systems confirm the validity of the proposed strategy.

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Speed Control of an Induction Motor using Acceleration Feedforward Compensation (가속도 전향보상을 이용한 유도전동기의 속도제어)

  • Kim, Sang-Hoon;Lee, Jae-Wang
    • Journal of Industrial Technology
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    • v.20 no.B
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    • pp.175-182
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    • 2000
  • In this paper, a novel speed control strategy using an acceleration feedforward compensation by the estimation of the system inertia is proposed. With the proposed method, the enhanced speed control performance can be achieved and the speed response against the disturbance torque can be improved for the vector-controller induction motor drive systems in which the bandwidth of the speed controller cannot be made large enough. The experimental results confirm the validity of the proposed strategy.

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Precision Control of Belt Drives using Feed Forward Compensator under Acceleration and Velocity Constraints (속도와 가속도 제한에서 전향 보상기를 이용한 벨트 구동의 정밀제어)

  • Kwon, Sei-Hyun
    • Journal of Advanced Marine Engineering and Technology
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    • v.33 no.5
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    • pp.713-720
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    • 2009
  • Numerous applications of position controlling devices using servoing technique and transmission of energy through belt drives are practiced in the industry. Belt drive is a simple, lightweight, low cost power transmission system. Belt drives provide freedom to position the motor relative to the load and this phenomenon enables reduction of the robot arm inertia. It also facilitates quick response when employed in robotics. In this paper, precision positioning of a belt driven mechanism using a feed-forward compensator under maximum acceleration and velocity constraints is proposed. The proposed method plans the desired trajectory and modifies it to compensate delay dynamics and vibration. Being an offline method, the proposed method could be easily and effectively adopted to the existing systems without any modification of the hardware setup. The effectiveness of the proposed method is demonstrated through computer simulation and experimental results.