Study on ultra-precision compliant mechanisms for nanotechnology applications
Including: 2 parts. Compliant mechanisms provide motion through elastic deformation under the action of external loads. These mechanisms are key functional members in many today's precision machines and devices, such as precision micro-positioning stages, micro actuators, microelectromechanical...
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sg-ntu-dr.10356-69422020-06-01T10:44:40Z Study on ultra-precision compliant mechanisms for nanotechnology applications Du, Hejun Lim, Mong King Ling, Shih Fu Lau, Michael Wai Shing Tai, Kang School of Mechanical and Production Engineering DRNTU::Engineering::Nanotechnology Including: 2 parts. Compliant mechanisms provide motion through elastic deformation under the action of external loads. These mechanisms are key functional members in many today's precision machines and devices, such as precision micro-positioning stages, micro actuators, microelectromechanical systems (MEMS) and robots, where micron or even nanometric resolution and accuracy are required for the motion. On the contrary to rigid-body mechanisms, compliant mechanisms consist of monolithic construction without rigid joints or sliders. Thus, they effectively eliminate the wear, backlash, lubrication, and friction problems, which are often encountered by rigid-body mechanisms. Furthermore, their monolithic construction makes the costly assembly process unnecessary and the integration of smart sensors and actuators possible. 2008-09-17T14:37:37Z 2008-09-17T14:37:37Z 2003 2003 Research Report http://hdl.handle.net/10356/6942 Nanyang Technological University application/pdf |
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DRNTU::Engineering::Nanotechnology Du, Hejun Lim, Mong King Ling, Shih Fu Lau, Michael Wai Shing Tai, Kang Study on ultra-precision compliant mechanisms for nanotechnology applications |
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Including: 2 parts. Compliant mechanisms provide motion through elastic deformation under the action of external loads. These mechanisms are key functional members in many today's precision machines and devices, such as precision micro-positioning stages, micro actuators, microelectromechanical systems (MEMS) and robots, where micron or even nanometric resolution and accuracy are required for the motion. On the contrary to rigid-body mechanisms, compliant mechanisms consist of monolithic construction without rigid joints or sliders. Thus, they effectively eliminate the wear, backlash, lubrication, and friction problems, which are often encountered by rigid-body mechanisms. Furthermore, their monolithic construction makes the costly assembly process unnecessary and the integration of smart sensors and actuators possible. |
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School of Mechanical and Production Engineering |
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School of Mechanical and Production Engineering Du, Hejun Lim, Mong King Ling, Shih Fu Lau, Michael Wai Shing Tai, Kang |
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Research Report |
author |
Du, Hejun Lim, Mong King Ling, Shih Fu Lau, Michael Wai Shing Tai, Kang |
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Du, Hejun |
title |
Study on ultra-precision compliant mechanisms for nanotechnology applications |
title_short |
Study on ultra-precision compliant mechanisms for nanotechnology applications |
title_full |
Study on ultra-precision compliant mechanisms for nanotechnology applications |
title_fullStr |
Study on ultra-precision compliant mechanisms for nanotechnology applications |
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Study on ultra-precision compliant mechanisms for nanotechnology applications |
title_sort |
study on ultra-precision compliant mechanisms for nanotechnology applications |
publishDate |
2008 |
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http://hdl.handle.net/10356/6942 |
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1681056316298100736 |