Unknown

Dataset Information

0

Nanoelectromechanical resonant narrow-band amplifiers.


ABSTRACT: This study demonstrates amplification of electrical signals using a very simple nanomechanical device. It is shown that vibration amplitude amplification using a combination of mechanical resonance and thermal-piezoresistive energy pumping, which was previously demonstrated to drive self-sustained mechanical oscillation, can turn the relatively weak piezoresistivity of silicon into a viable electronic amplification mechanism with power gains of >20?dB. Various functionalities ranging from frequency selection and timing to sensing and actuation have been successfully demonstrated for microscale and nanoscale electromechanical systems. Although such capabilities complement solid-state electronics, enabling state-of-the-art compact and high-performance electronics, the amplification of electronic signals is an area where micro-/nanomechanics has not experienced much progress. In contrast to semiconductor devices, the performance of the proposed nanoelectromechanical amplifier improves significantly as the dimensions are reduced to the nanoscale presenting a potential pathway toward deep-nanoscale electronics. The nanoelectromechanical amplifier can also address the need for ultranarrow-band filtering along with the amplification of low-power signals in wireless communications and certain sensing applications, which is another need that is not efficiently addressable using semiconductor technology.

SUBMITTER: Ramezany A 

PROVIDER: S-EPMC6444725 | biostudies-literature | 2016

REPOSITORIES: biostudies-literature

altmetric image

Publications

Nanoelectromechanical resonant narrow-band amplifiers.

Ramezany Alireza A   Mahdavi Mohammad M   Pourkamali Siavash S  

Microsystems & nanoengineering 20160324


This study demonstrates amplification of electrical signals using a very simple nanomechanical device. It is shown that vibration amplitude amplification using a combination of mechanical resonance and thermal-piezoresistive energy pumping, which was previously demonstrated to drive self-sustained mechanical oscillation, can turn the relatively weak piezoresistivity of silicon into a viable electronic amplification mechanism with power gains of >20 dB. Various functionalities ranging from freque  ...[more]

Similar Datasets

| S-EPMC7696973 | biostudies-literature
2013-12-23 | GSE53431 | GEO
2013-12-23 | E-GEOD-53431 | biostudies-arrayexpress
| S-EPMC7065093 | biostudies-literature
2015-04-02 | GSE63315 | GEO
| S-EPMC10323625 | biostudies-literature
| S-EPMC10477336 | biostudies-literature
| S-EPMC4639743 | biostudies-literature
| S-EPMC9929402 | biostudies-literature
| S-EPMC4989182 | biostudies-literature