Volume 5: 27th Biennial Mechanisms and Robotics Conference 2002
DOI: 10.1115/detc2002/mech-34345
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A DBB-Based Kinematic Calibration Method for In-Parallel Actuated Mechanisms Using a Fourier Series

Abstract: For kinematic calibration of robots, we proposed using a low order Fourier series obtained by transforming the data for circular measurements paths. The paths were measured using a Double-Ball-Bar (DBB) system. Two nondimensional indices were proposed for evaluating the orthogonalities of the measurement paths and calibration parameters. An index was also proposed to evaluate the accuracy of the calibration with regard to measurement error. An algorithm for determining adequate measurement paths and an optimal… Show more

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Cited by 29 publications
(22 citation statements)
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“…As shown in the figure, the trajectory of the end effector has an ellipsoidal shape, and the radial positioning deviations reach about ±0.4 mm. The patterns and the ranges of the radial deviations obtained here are almost same as the results published by the other papers (Takeda et al 2004).…”
Section: Measurement and Simulation Of A Parallel Linc Robotsupporting
confidence: 80%
“…As shown in the figure, the trajectory of the end effector has an ellipsoidal shape, and the radial positioning deviations reach about ±0.4 mm. The patterns and the ranges of the radial deviations obtained here are almost same as the results published by the other papers (Takeda et al 2004).…”
Section: Measurement and Simulation Of A Parallel Linc Robotsupporting
confidence: 80%
“…θ r θ r θ r θ r , y x x u 1 x u e = x u 1 x u e = x u 1 x u e = x u 1 x u e = Centroid Substituting (18) in (21) and clearing for ܽ and ߠ finally: Fig. 8 Angle ߠ .…”
Section: A Ellipse Ball Projection In ܼ Correctionmentioning
confidence: 99%
“…External calibration can be done by measuring completely or partially the pose parameters of the platform. Measurements of the pose of a platform can be done with a laser and a coordinate measuring machine (CMM) [5], commercial visual systems (optical system and infrared light) [6][7][8], visual systems and microscopes [9], laser sensor [10], by adding passive legs [11] or by constraining elements [12], with a interferometer [13], with a LVDT and inclinometers in [12,14], theodolite [15], with gauges [16], with double ball bar (DBB) [17,18], by inspecting a machined part that is dedicated to the calibration process [19], accelerometers [20], or with visual systems and patterns widely studied (chess-board and similar patterns) [21][22][23]. Above examples are different strategies that obtain kinematic information of the robot, but in general, calibration methods impose virtual or real constraints on the poses of the end effector (or mobile elements).…”
Section: Introductionmentioning
confidence: 99%
“…Error parameters for the three planes method were obtained in order to implement error measurement and error compensation. Takeda et al (2004) proposed the use of a low order Fourier series obtained by transforming the data for circular measurement paths by using a 6 dof in-parallel actuated worktable. The errors of the realized paths were measured using a DBB system.…”
Section: Approach With Adapted Devices For Measurementmentioning
confidence: 99%