IEEE/ASME Transactions on Mechatronics · 2009 · 107 citations · 81 references
EngineeringManufacturing EngineeringMicrofabricationNanotechnologySurface ScienceContact MechanicsMicrofabrication ProcessesMicromachiningNanomechanicsAdhesion ForcesAdhesion MechanicsMicro-contact MechanicsMicromanipulationMicromanipulation ScalingVan Der Waals AttractionVan Der Waals ForcesVan Der Waals Interactions
Micromanipulation handles sub‑hundred‑micrometer objects with sub‑micrometer precision, and at this scale adhesion forces such as van der Waals, electrostatic, and capillary forces dominate, limiting automation and blurring the boundary with nanomanipulation. This survey examines contact micromanipulation strategies designed to address microscale phenomena in microassembly and to improve operation success rates. The surveyed strategies are grouped by how they account for adhesion forces, with contact micromanipulation defined by the tool physically touching the object during handling. Adhesion forces induced by scaling effects make micromanipulation far more challenging than conventional macromanipulation.
This paper surveys contact micromanipulation strategies that are developed to tackle the microscale-related phenomena in microassembly. Strategies are divided according to how they take account of adhesion forces. Micromanipulation refers to handling of objects that have dimensions below hundreds of micrometers with handling accuracy down to submicrometers. The line between micro- and nanomanipulation is not definite but typically the object size in nanomanipulation is considered to reach from atomic and molecular scale to hundreds of nanometers. In contact micromanipulation, the tool physically touches the manipulated objects during handling. Scaling-effect-induced adhesion forces severely complicate micromanipulation when compared to conventional macromanipulation. At microscale, the most important adhesive forces are van der Waals force, electrostatic force, and capillary force. Adhesion forces are also the reason behind the fairly low level of automation in microassembly systems. Improved success rate of micromanipulation operations requires that the special features of microscale phenomena be taken into consideration.
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Natural Sciences, Materials Engineering, Materials Science +17