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Temperature dependant high output voltage generation via mechanical transducer by using surface modified (O2, CO2, NO2) ZnO nanowires

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General Information
Title
Temperature dependant high output voltage generation via mechanical transducer by using surface modified (O2, CO2, NO2) ZnO nanowires
Type
Article
Main Author
Mansoor Ahmad
Additional Authors
  • Mohamed, A.
Subject
Q Science (General)
ISSN
0167-9317
Language Code
eng
Bibliographic Details
Place of Production
Tanjung Malim
Publisher
Fakulti Sains dan Matematik
Year of publication
2021
Notes
Microelectronic Engineering
Degree Type
Others
Corporate Name
Universiti Pendidikan Sultan Idris

Abstract

Here, we report high output piezoelectric voltage generation using ZnO nanowires oxidized at high temperature. The study has been carried out to observe behavior of ZnO nanowires in the presence of strong oxidizing gases (O, CO2, and NO2) at elevated temperature. The focus of the research was to generate high piezoelectric voltage by using surface modified ZnO nanowires. VING (vertically integrated nanowire generator) has been exposed to oxidizing gases. ZnO nanowires oxidized with O2 have shown maximum high output voltage of 3.36 V at 200o C, showing net rise of 0.762 V as compared to voltage generated at room temperature. Similarly, ZnO nanowires modified with CO2 molecules have generated piezoelectric voltage of 2.589 V at 200o C, exhibiting a rise of 0.778 V as compared to the values recorded at room temperature and ZnO nanowires modified with NO2 have generated maximum output voltage of 3.307 V at 150o C, indicating net rise of 0.59 V to the voltage values achieved at room temperature. ? 2018

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