Flexible Beam Part Manipulation for Assembly Operation Simulation in a Virtual Reality Environment

[+] Author and Article Information
A. Mikchevitch, J.-C. Léon

Applied Mechanics Laboratory, Soils, Solids, Structures Laboratory, INPG Domaine Universitaire BP 53X, Grenoble 38041 Cedex 9 France

A. Gouskov

Applied Mechanics Laboratory, Bauman Moscow State Technical University, 2-d Baumanskaya, 5, Moscow 105005 Russiae-mail: gouskov@rk5.bmstu.ru

J. Comput. Inf. Sci. Eng 4(2), 114-123 (May 28, 2004) (10 pages) doi:10.1115/1.1736687 History: Received June 01, 2003; Revised March 01, 2004; Online May 28, 2004
Copyright © 2004 by ASME
Topics: Force , Simulation , Space , Shapes
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Léon, J.-C., Gandiaga, U., and Dupont, D., 2001, “Modeling Flexible Parts for Virtual Reality Assembly Simulations Which Interact With Their Environment,” Proc. IEEE Conf. on Shape Modeling, Genova, Italy, pp. 335–344.
Hergenröther, E., and Knöpfle, C., 2001, “Cable Installation in Virtual Environments,” Proc. IASTED Conf. Modeling and Simulation, Anaheim, USA, pp. 276–280.
Laperriere,  L., 1996, “GAPP: a Generative Assembly Process Planner,” J. Manuf. Syst., 15(4), pp. 282–293.
Rejneri, N., Léon, J-C., and Débarbouillé, G., 2000, “Disassembly Sequencing Using Technological Data,” Proc. Conf. IDMME 2000, Montreal, Canada, pp. 347–355.
Chedmail, P., and Le Roy, C., 1999, “A Distributed Approach for Accessibility and Maintainability Check With a Manikin,” Proc. ASME DETC Design Automation Conference, Las Vegas, USA, DETC99/DAC-8677.
Carrillo, A. R., Beloki, O., Casado, S., Gutierrez, T., and Barbero, J. I., 2003, “Virtual Assembly and Disassembly Simulation on a Distributed Environment,” Proc. Int. Conf. Virtual Concept 2003, Biarritz, France, pp. 50–55.
Lamiraux,  F., and Kavraki  L. E., 2001, “Planning Paths for Elastic Objects Under Manipulation Constraints,” Int. J. Robot. Res., 20(3), pp. 188–208.
Hirai, S., Wakamatsu, H., and Iwata, K., 1994, “Modeling of Deformable Thin Parts for Their Manipulation,” Proc. IEEE Conf. on Robotics and Automation, San Diego, USA, pp. 2955–2960.
Loock, A., and Schomer, E., 2001, “A Virtual Environment for Interactive Assembly Simulation: From Rigid Bodies to Deformable Cables,” Proc. Int. Conf. SCI 2001, Orlando, USA.
James, D. L., and Pai, D. K., 1999, “ArtDefo: Accurate Real Time Deformable Objects,” Proc. Conf. SIGGRAPH’99, Los Angeles, USA, pp. 65–72.
Chipperfield, K., and Vance, J. M., 2002, “Modeling of Hydraulic Hose Paths,” Proc. ASME DETC Design Automation Conference, Montreal, Canada, DETC2002/DAC-34152.
Vuskovic, V., Kauer, M., Szekely, G., and Reidy, M., 2000, “Realistic Force Feedback for Virtual Reality Based Diagnostic Surgery Simulators,” Proc. IEEE on Robotics and Automation, San Francisco, USA, pp. 1592–1598.
Mikchevitch, A., Léon, J.-C., and Gouskov, A., 2003, “Numerical Modeling of Flexible Components for Assembly Path Planning Using a Virtual Reality Environment,” Proc. ASME DETC Computers and Information in Engineering Conference, Chicago, USA, DETC2003/CIE-48293.
Mikchevitch, A., Léon, J.-C., Gouskov, A., 2002, “A Proposal of Simulation Environment for Assembly Operations Involving Flexible Parts,” Proc. Int. Conf. Virtual Concept 2002, Biarritz, France, pp. 104–109.
Mikchevitch, A., Léon, J.-C., and Gouskov, A., 2003, “Path Planning for Flexible Components Using a Virtual Reality Environment,” Proc. IEEE Conf. on Assembly and Task Planning ISATP’03, Besançon, France.
Massie, T. H., and Salisbury, J. K., 1994, “The PHANTOM Haptic Interface: A Device for Probing Virtual Objects,” Proc. ASME Winter Annual Meeting Dynamic Systems and Control Division, Chicago, USA, Vol. 55, pp. 295–301.
Baumann, R., 1997, “Haptic Interface for Virtual Reality Based Laparoscopic Surgery Training Environment,” Ph.D. thesis, EPFL, Lausanne, Suisse.
Yokoi, H., Yamashita, J., Fukui, Y., and Shimojo, M., 1994, “Development of the Virtual Shape Manipulating System,” Proc. 4th Int. Conf. on Artificial Reality and Tele-Existence, Tokyo, Japan, pp. 43–48.
Buttolo, P., Stewart, P., and Marsan, A., 2002, “A Haptic Hybrid Controller for Virtual Prototyping of Vehicle Mechanisms,” Proc. IEEE Symp. on Haptic Interfaces for Virtual Envir. and Teleoperator Systs. HAPTICS’02, Orlando, USA, pp. 249–254.
Thalmann, N. M., and Thalmann, D., 1999, “Virtual Reality Software and Technology,” http://www.miralab.unige.ch/papers/100.pdf
Burdea, G. C., 2000, “Keynote Address: The Challenge of Large-Volume Haptics,” Proc. Conf. VRIC’2000, Laval, France, pp. 101–111.
Chedmail, P., Dombre, E., and Wenger, P., 1998, La CAO en Robotique–Outils et Méthodologies, Editions Hermès, Paris.
Antman, S. S., 1995, Non-linear Problems of Elasticity, Editions Springer, Berlin.
Svetlitsky, V. A., 2000, Statics of Rods, Editions Springer, Berlin.
Kierzenka, J., 1998, “Studies in the Numerical Solution of Ordinary Differential Equations,” Ph.D. thesis, Southern Methodist University, Dallas, USA.


Grahic Jump Location
Simultaneous search of a “system answer” in the configuration and force spaces: (a): manipulation in the configuration space (x,y, θ); (b): answer in the force space (Q1,Q2,M).
Grahic Jump Location
Interaction between the RTM and the IMM during the virtual A/D of flexible parts: (a): general scheme of a VR environment for A/D of flexible parts; (b): interaction between the RTM and the IMM for realistic data update during the virtual A/D.
Grahic Jump Location
Principle of the free-form surface deformation method
Grahic Jump Location
Geometric BC used to generate bending deformation of a flexible beam-part
Grahic Jump Location
Element ds of the flexible beam-part
Grahic Jump Location
Path planning of a flexible beam-part subjected to follower force BCs for virtual A/D in 3D: (a): loading scheme and possible loading paths; (b): realistic A/D path produced by the IMM for loading {a→d}; (c): realistic A/D path produced by the IMM for loading {a→b→c→d}.
Grahic Jump Location
Path planning of a flexible beam subjected to geometric BCs for virtual A/D in 2D: (a): collision free path {a→b→c→d→e→f} and deformed shapes of the path; (b): realistic force law produced by the IMM and loading scheme for a given A/D path.
Grahic Jump Location
Behavior simulation of a flexible beam subjected to the geometric BCs for virtual A/D in 3D: (a): prescribed A/D path and deformed shapes produced by the IMM in the configuration space; (b): realistic force laws produced by the IMM for a given A/D path.
Grahic Jump Location
Example of adimensional force and configuration spaces of a flexible beam-part: (a): bounded force space (Q1,Q2,M3) built from the user’s requirements; (b): associated configuration space (x,y,θ3); (c): answer search in the configuration subspace (x,y).



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