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Year: | 2005 | ||||
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| Type of Publication: | Article | ||||||
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| Journal: | Applied Physics Letters | Volume: | 87 | ||||
| Number: | 20 | Pages: | 203510 | ||||
| Month: | NOV 14 2005 | ||||||
| Note: | PT: J; TC: 13; UT: WOS:000233243600080 |
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| Abstract: | We demonstrate an alternative path for achieving high-transconductance organic transistors by assembling bilayers of pentacene onto random arrays of single-walled carbon nanotubes. We show here that, by varying the connectivity of the underlying nanotube network, the channel length of a thin-film transistor can be reduced by nearly two orders of magnitude-thus, enabling the increase of the device transconductance without reduction the on/off ratio. These field-induced percolating networks enable assembling high-transconductance transistors that, with relatively large source drain distances, can be manufactured with available commercial printing techniques. (C) 2005 American Institute of Physics. |
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