Gordon Moore and his law: numerical methods to the rescue (Q1946038)
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scientific article; zbMATH DE number 6155107
| Language | Label | Description | Also known as |
|---|---|---|---|
| English | Gordon Moore and his law: numerical methods to the rescue |
scientific article; zbMATH DE number 6155107 |
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Gordon Moore and his law: numerical methods to the rescue (English)
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17 April 2013
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Summary: In this chapter we review the protracted history of ``Moore's Law'', that is, the expected doubling of the number of transistors in semiconductor chips every 18 months. Such an exponential increase has been possible due to steady improvements in optical imaging methods. The wavelength of light used for photolithography has been reduced every decade, but it is reaching tough limits. Mathematical methods capable of simulating optical systems and their interference properties play now a significant role in semiconductor design and have kept Moore's Law alive for at least the last ten years. As we show, advances in semiconductor integration and numerical optimization methods act synergistically.
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Fourier optics
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photolithography
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Moore's law
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numerical simulation
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0.7328324913978577
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0.7053079605102539
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0.6764730215072632
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