Resonant frequency of gold/polycarbonate hybrid nano resonators fabricated on plastics via nano-transfer printing

<p>Abstract</p> <p>We report the fabrication of gold/polycarbonate (Au/PC) hybrid nano resonators on plastic substrates through a nano-transfer printing (nTP) technique, and the parametric studies of the resonant frequency of the resulting hybrid nano resonators. nTP is a nanofabri...

Full description

Bibliographic Details
Main Authors: Siwak Nathan, Ghodssi Reza, Dechaumphai Edward, Zhang Zhao, Li Teng
Format: Article
Language:English
Published: SpringerOpen 2011-01-01
Series:Nanoscale Research Letters
Online Access:http://www.nanoscalereslett.com/content/6/1/90
id doaj-e9b5577458b34daca94470054e0c7722
record_format Article
spelling doaj-e9b5577458b34daca94470054e0c77222020-11-24T23:29:04ZengSpringerOpenNanoscale Research Letters1931-75731556-276X2011-01-016190Resonant frequency of gold/polycarbonate hybrid nano resonators fabricated on plastics via nano-transfer printingSiwak NathanGhodssi RezaDechaumphai EdwardZhang ZhaoLi Teng<p>Abstract</p> <p>We report the fabrication of gold/polycarbonate (Au/PC) hybrid nano resonators on plastic substrates through a nano-transfer printing (nTP) technique, and the parametric studies of the resonant frequency of the resulting hybrid nano resonators. nTP is a nanofabrication technique that involves an assembly process by which a printable layer can be transferred from a transfer substrate to a device substrate. In this article, we applied nTP to fabricate Au/PC hybrid nano resonators on a PC substrate. When an AC voltage is applied, the nano resonator can be mechanically excited when the AC frequency reaches the resonant frequency of the nano resonator. We then performed systematic parametric studies to identify the parameters that govern the resonant frequency of the nano resonators, using finite element method. The quantitative results for a wide range of materials and geometries offer vital guidance to design hybrid nano resonators with a tunable resonant frequency in a range of more than three orders of magnitude (e.g., 10 KHz-100 MHz). Such nano resonators could find their potential applications in nano electromechanical devices. Fabricating hybrid nano resonators via nTP further demonstrates nTP as a potential fabrication technique to enable a low-cost and scalable roll-to-roll printing process of nanodevices.</p> http://www.nanoscalereslett.com/content/6/1/90
collection DOAJ
language English
format Article
sources DOAJ
author Siwak Nathan
Ghodssi Reza
Dechaumphai Edward
Zhang Zhao
Li Teng
spellingShingle Siwak Nathan
Ghodssi Reza
Dechaumphai Edward
Zhang Zhao
Li Teng
Resonant frequency of gold/polycarbonate hybrid nano resonators fabricated on plastics via nano-transfer printing
Nanoscale Research Letters
author_facet Siwak Nathan
Ghodssi Reza
Dechaumphai Edward
Zhang Zhao
Li Teng
author_sort Siwak Nathan
title Resonant frequency of gold/polycarbonate hybrid nano resonators fabricated on plastics via nano-transfer printing
title_short Resonant frequency of gold/polycarbonate hybrid nano resonators fabricated on plastics via nano-transfer printing
title_full Resonant frequency of gold/polycarbonate hybrid nano resonators fabricated on plastics via nano-transfer printing
title_fullStr Resonant frequency of gold/polycarbonate hybrid nano resonators fabricated on plastics via nano-transfer printing
title_full_unstemmed Resonant frequency of gold/polycarbonate hybrid nano resonators fabricated on plastics via nano-transfer printing
title_sort resonant frequency of gold/polycarbonate hybrid nano resonators fabricated on plastics via nano-transfer printing
publisher SpringerOpen
series Nanoscale Research Letters
issn 1931-7573
1556-276X
publishDate 2011-01-01
description <p>Abstract</p> <p>We report the fabrication of gold/polycarbonate (Au/PC) hybrid nano resonators on plastic substrates through a nano-transfer printing (nTP) technique, and the parametric studies of the resonant frequency of the resulting hybrid nano resonators. nTP is a nanofabrication technique that involves an assembly process by which a printable layer can be transferred from a transfer substrate to a device substrate. In this article, we applied nTP to fabricate Au/PC hybrid nano resonators on a PC substrate. When an AC voltage is applied, the nano resonator can be mechanically excited when the AC frequency reaches the resonant frequency of the nano resonator. We then performed systematic parametric studies to identify the parameters that govern the resonant frequency of the nano resonators, using finite element method. The quantitative results for a wide range of materials and geometries offer vital guidance to design hybrid nano resonators with a tunable resonant frequency in a range of more than three orders of magnitude (e.g., 10 KHz-100 MHz). Such nano resonators could find their potential applications in nano electromechanical devices. Fabricating hybrid nano resonators via nTP further demonstrates nTP as a potential fabrication technique to enable a low-cost and scalable roll-to-roll printing process of nanodevices.</p>
url http://www.nanoscalereslett.com/content/6/1/90
work_keys_str_mv AT siwaknathan resonantfrequencyofgoldpolycarbonatehybridnanoresonatorsfabricatedonplasticsviananotransferprinting
AT ghodssireza resonantfrequencyofgoldpolycarbonatehybridnanoresonatorsfabricatedonplasticsviananotransferprinting
AT dechaumphaiedward resonantfrequencyofgoldpolycarbonatehybridnanoresonatorsfabricatedonplasticsviananotransferprinting
AT zhangzhao resonantfrequencyofgoldpolycarbonatehybridnanoresonatorsfabricatedonplasticsviananotransferprinting
AT liteng resonantfrequencyofgoldpolycarbonatehybridnanoresonatorsfabricatedonplasticsviananotransferprinting
_version_ 1725546746885439488