Effect of Humidity on the Breakdown of Carbon Nanotube Network Thin Film Transistors
Ahmed, Muneeb
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https://hdl.handle.net/2142/47597
Description
Title
Effect of Humidity on the Breakdown of Carbon Nanotube Network Thin Film Transistors
Author(s)
Ahmed, Muneeb
Contributor(s)
Pop, Eric
Issue Date
2013-05
Keyword(s)
carbon nanotube thin-film network transistors
CNN TFTs
breakdown voltage of CNN TFTs
Abstract
"Carbon nanotube network thin-film transistors (CNN TFTs) have great potential
in macroelectronic applications as they have excellent electromechanical
properties. Particularly, they have applications in
flexible electronics
such as displays due to their transparency and high mobility as compared to
organic TFTs. As their applications are developed further, it becomes important
to study their reliability at high electric fields, which is the purpose
of this study. The relation between breakdown voltage of CNN TFTs and
ambient humidity level is also studied, which could be important for sensors
as well as electronics operation.
Since there are many sources of oxygen for the CNN TFTs to come in
contact with, it is difficult to predict, a priori, whether humidity plays a
significant role in the breakdown. In this experiment, CNN TFTs of lengths
10 µm and 15 µm were broken down in the ""ON"" mode at humidity levels
of 10%, 40% and 70%. A significant decrease in breakdown voltages was
observed going from humidity level of 10% to 40% for both lengths. However,
the change was negligible between the humidity levels of 40% and 70%. The
breakdown mechanism and possible explanation for such behavior of the
breakdown voltage reaching saturation as a function of increasing humidity
level are explored."
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