Processing And Characterization Of Zinc Oxide Thin Films

Zinc oxide is a very versatile material that can be used in many microsystems and MEMS applications. ZnO thin film has been utilized in a wide variety of MEMS devices because of its unique piezoelectric, optical, and electrical properties. In particular, piezoelectric property of ZnO can be used in...

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Bibliographic Details
Main Author: Depaz, Michael
Format: Others
Published: Scholar Commons 2007
Subjects:
Pld
AFM
XRD
Online Access:https://scholarcommons.usf.edu/etd/694
https://scholarcommons.usf.edu/cgi/viewcontent.cgi?article=1693&context=etd
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spelling ndltd-USF-oai-scholarcommons.usf.edu-etd-16932019-10-04T05:20:38Z Processing And Characterization Of Zinc Oxide Thin Films Depaz, Michael Zinc oxide is a very versatile material that can be used in many microsystems and MEMS applications. ZnO thin film has been utilized in a wide variety of MEMS devices because of its unique piezoelectric, optical, and electrical properties. In particular, piezoelectric property of ZnO can be used in numerous applications from resonators and filters to mass sensors and micro-actuators (e.g., micro-valve and micro-pump). Because of its versatility, this research was focused on analyzing some key properties of ZnO thin film achieved by two different deposition techniques, Pulsed Laser Deposition (PLD) and Sputtering. Multiple experiments were conducted in order to identify the best conditions for the growth of ZnO thin film. Under the optimum conditions, the ZnO thin films will provide the best piezoelectric performance in devices such as microcantilevers. In order to find the best deposition conditions in both PLD and Sputtering multiple depositions have been done and then analyzed using the XRD, AFM, FTIR, nanoindenter, and ellipsometer. For the PLD the best conditions were found to be at 200°C with a partial pressure of O2 of 100 millitorr. For the sputtering system the best film formed when the substrate temperature was kept at 400°C along with RF power of 250 Watts, and a flow rate of 25% O2 and 75% Ar. Both experiments were similar in the fact that both a certain amount of O2 in the chamber and an elevated temperature are needed to facilitate the formation of ZnO crystal structure. 2007-11-02T07:00:00Z text application/pdf https://scholarcommons.usf.edu/etd/694 https://scholarcommons.usf.edu/cgi/viewcontent.cgi?article=1693&context=etd default Graduate Theses and Dissertations Scholar Commons Pld Sputtering AFM XRD Resonator Nanoindentation American Studies Arts and Humanities
collection NDLTD
format Others
sources NDLTD
topic Pld
Sputtering
AFM
XRD
Resonator
Nanoindentation
American Studies
Arts and Humanities
spellingShingle Pld
Sputtering
AFM
XRD
Resonator
Nanoindentation
American Studies
Arts and Humanities
Depaz, Michael
Processing And Characterization Of Zinc Oxide Thin Films
description Zinc oxide is a very versatile material that can be used in many microsystems and MEMS applications. ZnO thin film has been utilized in a wide variety of MEMS devices because of its unique piezoelectric, optical, and electrical properties. In particular, piezoelectric property of ZnO can be used in numerous applications from resonators and filters to mass sensors and micro-actuators (e.g., micro-valve and micro-pump). Because of its versatility, this research was focused on analyzing some key properties of ZnO thin film achieved by two different deposition techniques, Pulsed Laser Deposition (PLD) and Sputtering. Multiple experiments were conducted in order to identify the best conditions for the growth of ZnO thin film. Under the optimum conditions, the ZnO thin films will provide the best piezoelectric performance in devices such as microcantilevers. In order to find the best deposition conditions in both PLD and Sputtering multiple depositions have been done and then analyzed using the XRD, AFM, FTIR, nanoindenter, and ellipsometer. For the PLD the best conditions were found to be at 200°C with a partial pressure of O2 of 100 millitorr. For the sputtering system the best film formed when the substrate temperature was kept at 400°C along with RF power of 250 Watts, and a flow rate of 25% O2 and 75% Ar. Both experiments were similar in the fact that both a certain amount of O2 in the chamber and an elevated temperature are needed to facilitate the formation of ZnO crystal structure.
author Depaz, Michael
author_facet Depaz, Michael
author_sort Depaz, Michael
title Processing And Characterization Of Zinc Oxide Thin Films
title_short Processing And Characterization Of Zinc Oxide Thin Films
title_full Processing And Characterization Of Zinc Oxide Thin Films
title_fullStr Processing And Characterization Of Zinc Oxide Thin Films
title_full_unstemmed Processing And Characterization Of Zinc Oxide Thin Films
title_sort processing and characterization of zinc oxide thin films
publisher Scholar Commons
publishDate 2007
url https://scholarcommons.usf.edu/etd/694
https://scholarcommons.usf.edu/cgi/viewcontent.cgi?article=1693&context=etd
work_keys_str_mv AT depazmichael processingandcharacterizationofzincoxidethinfilms
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