1992
DOI: 10.1109/41.170967
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Visual control of robotic manipulator based on neural networks

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Cited by 59 publications
(29 citation statements)
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“…The feedforward signal a a a oi for the image feature acceleration caused by the object's unknown motion is estimated iteratively by (9)- (12). The output of the feedforward controller is actually the sum of the output of the PI controller and the feedforward signal a a a p fi (k) + KF a a aoi (k), where we choose KF = 0:3 and m = 6 empirically in control.…”
Section: A Low-speed Visual Trackingmentioning
confidence: 99%
See 2 more Smart Citations
“…The feedforward signal a a a oi for the image feature acceleration caused by the object's unknown motion is estimated iteratively by (9)- (12). The output of the feedforward controller is actually the sum of the output of the PI controller and the feedforward signal a a a p fi (k) + KF a a aoi (k), where we choose KF = 0:3 and m = 6 empirically in control.…”
Section: A Low-speed Visual Trackingmentioning
confidence: 99%
“…A lot of applications have been accumulated such as robot control [6], chemical process modeling [7], nonlinear system estimation and control [8], image coding [18] and pattern recognition [9], [12], etc. Incremental learning ability from local receptive-field is proved to be extremely useful for approximating unknown functional relationships between input and output data streams [11].…”
Section: Incremental Learning With Balanced Update On Receptive Fieldmentioning
confidence: 99%
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“…Artificial Neural Network (ANN) are nonlinear, global approximation methods. Neural networks have been heavily employed in robotics technology such as robot arm visual control as introduced by Hashimoto, Kubota, Sato, and Harashima [4] , Hashimoto, Kubota, Kuduo, and Harashima [5] , inverse kinematics problem of six degree of freedom robot arm as done by Guez and Ahmed [6] , the research introduced by Patrick and Krose [7] in which they employ a real-time learning neural robot controller for solving the inverse kinematics problem, and the research introduced by Schram, Linden, Krose, and Groen [8] , in which they employ an artificial neural network for tracking and grasping a moving object observed by a six degree of freedom robotics arm system.…”
Section: Multi-fingered Robot Hand and The Dynamics Of Manipulationmentioning
confidence: 99%
“…The high computation speed and general modelling capability of neural networks are very attractive properties for nonlinear compensation problems, as indeed robot control problems are. Hashimoto et al utilized two BP networks -one global and one local -to approximate the Jacobian mapping [6,7]; Kuhn et al used an adaptive linear (ADALINE) network to approximate the inverse image Jacobian and a self-organizing map (SOM) network to select the ADALINE matrix [8]. However, the significance of visual servoing is its flexibility, but the nature of offline learning critically weakens this advantage.…”
Section: Introductionmentioning
confidence: 99%