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Device and Technology Challenges for Nanoscale CMOS

机译:纳米级CMOS的设备和技术挑战

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With the introduction of 90 nm node technology, silicon CMOS is already at the nanoscale. There is no doubt that the semiconductor industry desires to stay on the historical rate of cost/performance/density improvement as exemplified by the International Technology Roadmap for Semiconductors (ITRS). The challenges for continued device scaling are daunting. At the highest level, the challenges are: (1) delivering cost/performance improvement while at the same time containing power consumption/dissipation, (2) control of device variations, and (3) device/circuit/system co-design and integration. New devices and new materials offer new opportunities for solving the challenges of continued improvement. In this talk, we give an overview of the device options being considered for CMOS logic technologies from 45 nm to 22 nm and beyond. Technology options include the use of device structures (multi-gate FET) and transport-enhanced channel materials (strained Si, Ge). Beyond the 22 nm node, research are underway to explore even more adventurous options such as III-V compound semiconductors as channel materials, metal Schottky source/drain. Beyond that time horizon, there is the question of whether new materials and fabrication methods such as carbon nanotubes, semiconductor nanowires and self-assembly techniques will make an impact in nanoscale CMOS technologies. We survey the state-of-the-art of these emerging devices and technologies and discuss the research opportunities going forward. We conclude with a discussion of the interaction between device design and the circuit/system architecture and how this interaction will change the landscape of technology development in the future.
机译:随着90 nm节点技术的引入,硅CMOS已经处于纳米级。毫无疑问,半导体行业希望保持成本/性能/密度提高的历史速度,这是国际半导体技术路线图(ITRS)所例证的。持续扩展设备的挑战令人生畏。从最高层面来看,挑战在于:(1)改善成本/性能,同时包含功耗/功耗;(2)控制设备变化;(3)设备/电路/系统协同设计和集成。新设备和新材料为解决持续改进的挑战提供了新的机会。在本次演讲中,我们概述了考虑用于CMOS逻辑技术的器件选项,从45 nm到22 nm甚至更高。技术选择包括使用器件结构(多栅极FET)和增强传输的沟道材料(应变Si,Ge)。除了22 nm节点以外,正在进行研究以探索更多的冒险选择,例如III-V化合物半导体作为沟道材料,金属肖特基源极/漏极。超出那个时间范围,还有一个问题是,新材料和制造方法(例如碳纳米管,半导体纳米线和自组装技术)是否会对纳米级CMOS技术产生影响。我们调查了这些新兴设备和技术的最新状态,并讨论了未来的研究机会。最后,我们讨论了器件设计与电路/系统架构之间的相互作用以及这种相互作用将如何改变未来的技术发展前景。

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