Micro assembly involves the assembly of micron-sized devices. Given the complexity of this domain, the role of virtual environments becomes important as they provide a basis to propose and compare assembly alternatives virtually prior to physical assembly. This paper proposes an integrated approach which includes the use of virtual reality-based assembly environments that interface with physical micro assembly environments. Such an approach can be an intrinsic part of a collaborative manufacturing framework that seeks to support the rapid assembly of micro devices. In this paper, the design of VREM (Virtual Reality based Environment for Micro Assembly) is discussed which is based on this integrated approach involving use of virtual and physical resources.
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Lozano-Perez T, Wesley M (1979) An algorithm for planning collision-free paths among polyhedral obstacles. Commun ACM 22:560–570
Cecil J, Vasquez D (2005) A review of gripping and manipulation techniques for micro assembly applications. Int J Prod Res 43(4):819–828
Vasquez D, Cecil J (2005) Investigation of van der Waals Forces in the assembly of micro devices, Proceedings of the 2005 Industrial Engineering Research Conference, Atlanta, GA, May 14–18
Böhringer KF, Ronald S, Fearing RS, Ken Y, Goldberg KY (1999) Microassembly. In: Shimon Nof (ed) The Handbook of industrial robotics, vol 2E. John Wiley & Sons pp. 1045–1066
Greminger M, Yang G, Nelson B (2002) Sensing nanonewton level forces by visually tracking structural deformations. Proceedings of the 2002 IEEE International Conference on Robotics and Automation (ICRA) 2:1943–1948.
Rizzi AA, Gowdy J, Hollis RL (2001) Distributed coordination in modular precision assembly systems. Int J Robot Res 20(10):819–838
Cecil J, Information Centric Engineering (ICE) Frameworks for advanced manufacturing enterprises, proceedings of industry applications and standard initiatives for cooperative information systems for interoperable infrastructure, OnTheMove (OTM) Conferences, Sept 10, 2013, Graz, Austria, pp. 47–56.
Thompson JA, RS Fearing RS (2001) Automating microassembly with ortho-tweezers and force sensing, IROS 2001, Maui, HI, Oct. 29-Nov. 3. pp 1327–1334
Palaria A, Enikov ET (2006) Experimental analysis of the stability of electrostatic bits for assisted nano-assembly. J Electrost 64:1–9
Piybongkarn D, Sun Y, Rajamani R, Sezen AS, Nelson BJ (2005) Travel range extension for a MEMS electrostatic microactuator. IEEE Trans Control Syst Technol 13(1):138–145
Gorman JJ, Dagalakis N G(2003) Force control of linear motor stages for micro assembly, Proceedings of IMECE’03, Washington DC, pp. 615–623
Popa D, Kang B, Sin J, Zou J (2002) Reconfigurable micro-assembly system for photonics applications. Proceedings of the IEEE International conference on Robotics and Automation, Washington, DC, pp 1495–1502
Cassier C, Ferreira A, and Hirai S (2002) Combination of vision servoing techniques and VR based simulation for semi-autonomous micro assembly workstation, Proceedings of the 2002 I.E. International Conference on Robotics and Automation. Washington, DC: pp. 1501–1506
Monferrer A., Bonyuet D, Cooperative robot teleoperation through virtual reality interfaces, first international symposium on collaborative information visualization environments, July 2002, London, UK, pp. 243–248
Alex J, Vikramaditya B, & Nelson, B (1998) A virtual reality teleoperator interface for assembly of hybrid MEMS prototypes, Proceedings of DETC’98 ASME Design Engineering Technical Conference, September 13–16, Atlanta, GA
Ferreira A, Hamdi M (2004) Microassembly planning using physically based models in virtual environment. Proceedings of the 2004 International Conference on Intelligent Robots and Systems. IEEE 4:3369–3374
Chang RJ, Lin CY, Lin PS (2011) Visual-based automation of peg-in-hole microassembly process. ASME J Manuf Sci Eng 133:1–12
Luo Q, & Xiao J (2006) Haptic simulation for micro/nano-scale optical fiber assembly, Proceedings of the 2006 I.E. International Conference on Intelligent Robots and Systems, pp. 1353–1358
Probst M, Hürzeler C, Borer R, Nelson BJ (2009) A microassembly system for the flexible assembly of hybrid robotic MEMS devices. International Journal of Optomechatronics 3(2):69–90
Sun L, Tan F, Rong W, Zhu J (2005) A collision detection approach in virtual environment of micromanipulation robot. High Technol Lett 11:371–376
Tan FS, Sun LN, Rong BW, Zhu J, Xu L (2004) Modeling of micromanipulation robot in virtual environment. Acta metallurgica sinica (English Letters) 17:194–198
Sulzmann A, Breguet JM, Jacot J (1995) Microvision system (MVS): a 3D computer graphic-based microrobot telemanipulation and position feedback by vision, 1995. Proc SPIE Microrobotics Mechanical Syst 2593:38–49
Cecil J, Powell D, Gobinath N (2007) Micro devices assembly using virtual environments. J Intell Manuf 18:361–369
Cecil J, Gobinath N (2005) Development of a virtual and physical cell to assemble micro devices, Special Issue of the Journal of Robotics and CIM, pp. 431–441
Hollis R, Gowdy J., Miniature factories for precision assembly, Proceedings of International Workshop on Micro-Factories, Tsukuba, Japan. December 1998. 99, pp. 1–6
Popa D, Stephanou H (2004) Micro and meso scale robotic assembly. SMEJ Manuf Process 6(1):52–71
Zhang, L., Cecil, J., Vasquez, D., Jones, J., Garner, B., Modeling of van der Waals forces during the assembly of micro devices, the 2006 I.E. Conference on Automation Science and Engineering (CASE) Conference, October 8–10, Shanghai, China
Cecil J, Huber J (2010) Virtual prototyping in engineering, chapter 1, virtual engineering. Momentum Press, New Jersey, pp 1–15
Muthaiyan, A., Cecil, J., A virtual environment for satellite assembly, computer aided design and application, Vol.5, Nos.1-4, 2008
Cecil J, Trivedi A, Jones J (2006) An information based manufacturing framework for nanomanipulation, World Scientific and Engineering Academy and Society. Transs Info Sci Appl 3(2):462–470
Global environments for network innovation, GENI, www.geni.net
US Ignite, What is US Ignite, http://us-ignite.org/
Cecil J, Ramanathan P, et al (2013) Collaborative virtual environments for orthopedic surgery, Proceedings of the 9th annual IEEE International Conference on Automation Science and Engineering (IEEE CASE 2013), August 17 to 21, Madison, WI
Cecil J, Gunda R, Calyam P, Seetharam S (2013) A Next generation collaborative framework for advanced manufacturing, Proceedings of the 9th annual IEEE International Conference on Automation Science and Engineering (IEEE CASE 2013), August 17 to 21, Madison, WI
Cecil J, Ramanathan P, Mwarumba M (2013) Virtual learning environments in engineering and STEM education, IEEE Frontiers in Education Conference, Oklahoma City, Oct 23–26
Cecil, J., Cloud computing for collaborative advanced manufacturing https://mozillaignite.org/apps/415/ Accessed Jan 2013
Narayanasamy G, Cecil J, Son TC (2006) A collaborative framework to realize virtual enterprises using 3APL. Declarative Agent Languages and Technologies IV, Lecture Notes in Artificial Intelligence. Springer Berlin Heidelberg pp. 191-206.
Cecil J et al (2004). VIRAM: A Virtual Reality Environment for the assembly of micro devices. Proceedings of the ASME 2004 Computers and Information in Engineering Conference, Sept. 28–Oct. 2, 2004 Salt Lake City, Utah, USA, 4:671–682
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Cecil, J., Jones, J. VREM: An advanced virtual environment for micro assembly. Int J Adv Manuf Technol 72, 47–56 (2014). https://doi.org/10.1007/s00170-014-5618-9
- Micro assembly
- Virtual reality environments
- Cyber frameworks