量子功能器件的进展克服了ULSI缩放的障碍

H. Goronkin, S. Tehrani, J. Shen, G. Kramer, R. Tsui
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引用次数: 1

摘要

随着1gb DRAM的出现,传统硅技术的扩展障碍将开始出现,主要是栅极隧道漏电流和漏极诱导势垒降低。进一步的缩放将涉及性能下降,因为为了减少泄漏电流而放宽了关键尺寸。化合物半导体hfet也将遭受类似的缩放损失。薄膜SOI可以将硅扩展两代或三代。然而,到2000年,将需要一种新技术来继续这种性能趋势。这项技术可能会利用量子效应来增加单个电子设备的功能。讨论了扩展mosfet和hfet的障碍,以及全球范围内为未来室温下操作的ULSI应用开发基于量子技术的进展示例。
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Progress in quantum functional devices to overcome barriers to ULSI scaling
Barriers to traditional scaling in silicon technology, primarily gate tunneling leakage current and drain-induced barrier lowering, will begin to emerge with the 1 Gb DRAM. Further scaling will involve performance fall-offs as critical dimensions are relaxed in order to reduce leakage currents. Compound semiconductor HFETs will suffer similar scaling penalties. Thin film SOI can extend silicon scaling by two or three generations. However, by the year 2000, a new technology will be necessary to continue the performance trend. That technology will likely utilize quantum effects to increase the functionality of individual electronic devices. The barriers to scaling MOSFETs and HFETs as well as examples of worldwide progress in developing quantum-based technology for future ULSI applications operating at room temperature are discussed.
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