Carbon based materials for MEMS applications
CNTs have been a subject of interest by many researchers since its discovery by Ijima in 1991. With its excellent electrical and mechanical properties, many researchers have exploited its advantageous electrical properties for use in integrated circuits interconnects and field emission devices. Howe...
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sg-ntu-dr.10356-155572023-03-11T17:51:49Z Carbon based materials for MEMS applications Tan, Chong Wei Miao Jianmin Tay Beng Kang School of Mechanical and Aerospace Engineering MicroMachines Centre DRNTU::Engineering::Mechanical engineering::Prototyping CNTs have been a subject of interest by many researchers since its discovery by Ijima in 1991. With its excellent electrical and mechanical properties, many researchers have exploited its advantageous electrical properties for use in integrated circuits interconnects and field emission devices. However, very few researchers have explored its extraordinary mechanical properties. With its high elastic modulus and high buck resistance, CNTs would make very good structural materials. Many researchers have been trying to control the density of the CNTs growth by using sophisticated and expensive techniques such as electron beam lithography and ion beam bombardment. Density control of CNTs has been demonstrated by a cheap novel combination of steps consisting of annealing, etching and ultraviolet overexposure. Sub-micron sized single CNT has been successfully demonstrated using the above-mentioned technique. Two different and completely new methods of utilizing CNTs are being introduced, namely as templates and damping. It has been demonstrated that materials can be deposited and encapsulate the CNTs pillars. The ‘nanoballs’ effect of top layer material on CNTs has also been explained. Successful coverage on single CNT has been demonstrated. The possibility of using DLC-CNTs hybrid material has been successfully shown. MASTER OF ENGINEERING (MAE) 2009-05-13T03:46:58Z 2009-05-13T03:46:58Z 2009 2009 Thesis Tan, C. W. (2009). Carbon based materials for MEMS applications. Master’s thesis, Nanyang Technological University, Singapore. https://hdl.handle.net/10356/15557 10.32657/10356/15557 en 164 p. 153 application/pdf |
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DRNTU::Engineering::Mechanical engineering::Prototyping Tan, Chong Wei Carbon based materials for MEMS applications |
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CNTs have been a subject of interest by many researchers since its discovery by Ijima in 1991. With its excellent electrical and mechanical properties, many researchers have exploited its advantageous electrical properties for use in integrated circuits interconnects and field emission devices. However, very few researchers have explored its extraordinary mechanical properties. With its high elastic modulus and high buck resistance, CNTs would make very good structural materials.
Many researchers have been trying to control the density of the CNTs growth by using sophisticated and expensive techniques such as electron beam lithography and ion beam bombardment. Density control of CNTs has been demonstrated by a cheap novel combination of steps consisting of annealing, etching and ultraviolet overexposure. Sub-micron sized single CNT has been successfully demonstrated using the above-mentioned technique.
Two different and completely new methods of utilizing CNTs are being introduced, namely as templates and damping. It has been demonstrated that materials can be deposited and encapsulate the CNTs pillars. The ‘nanoballs’ effect of top layer material on CNTs has also been explained. Successful coverage on single CNT has been demonstrated. The possibility of using DLC-CNTs hybrid material has been successfully shown. |
author2 |
Miao Jianmin |
author_facet |
Miao Jianmin Tan, Chong Wei |
format |
Theses and Dissertations |
author |
Tan, Chong Wei |
author_sort |
Tan, Chong Wei |
title |
Carbon based materials for MEMS applications |
title_short |
Carbon based materials for MEMS applications |
title_full |
Carbon based materials for MEMS applications |
title_fullStr |
Carbon based materials for MEMS applications |
title_full_unstemmed |
Carbon based materials for MEMS applications |
title_sort |
carbon based materials for mems applications |
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2009 |
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https://hdl.handle.net/10356/15557 |
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1761782027594498048 |