Nanotechnology: high-speed integrated nanowire circuits
Macroelectronic circuits made on substrates of glass or plastic could one day make computing devices ubiquitous owing to their light weight, flexibility and low cost. But these substrates deform at high temperatures so, until now, only semiconductors such as organics and amorphous silicon could be u...
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Veröffentlicht in: | Nature (London) 2005-04, Vol.434 (7037), p.1085-1085 |
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creator | Friedman, Robin S McAlpine, Michael C Ricketts, David S Ham, Donhee Lieber, Charles M |
description | Macroelectronic circuits made on substrates of glass or plastic could one day make computing devices ubiquitous owing to their light weight, flexibility and low cost. But these substrates deform at high temperatures so, until now, only semiconductors such as organics and amorphous silicon could be used, leading to poor performance. Here we present the use of low-temperature processes to integrate high-performance multi-nanowire transistors into logical inverters and fast ring oscillators on glass substrates. As well as potentially enabling powerful electronics to permeate all aspects of modern life, this advance could find application in devices such as low-cost radio-frequency tags and fully integrated high-refresh-rate displays. |
doi_str_mv | 10.1038/4341085a |
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title | Nanotechnology: high-speed integrated nanowire circuits |
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