Perspective on Low-dimensional Channel Materials for Extremely Scaled CMOS

S. Su, E. Chen, T. Hung, Mengyao Li, G. Pitner, Chao-Ching Cheng, Han Wang, J. Cai, H. P. Wong, I. Radu
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引用次数: 5

Abstract

Low-dimensional materials (LDMs) such as two-dimensional transition metal dichalcogenides (2D TMDs) and carbon nanotubes (CNTs) have the potential to be the channel material in extremely scaled CMOS transistors. Based on current hardware data, the design space for contacted-gate pitch (CGP) scaled transistors is explored for these materials. The ON current, sources of leakage which limit OFF current, and CGP scaling potential are analyzed by separately considering effects from shrinking the gate length, contact length, and extension length. Doping of LDM is the main challenge to reduce contact and extension resistance for scaled transistors. Experimental control of p-type doping of 2D is reported as an example of doping impact.
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极尺度CMOS低维通道材料研究进展
低维材料(ldm)如二维过渡金属二硫族化合物(2D TMDs)和碳纳米管(CNTs)具有成为极规模化CMOS晶体管沟道材料的潜力。基于现有的硬件数据,探索了这些材料的接触栅极间距(CGP)缩放晶体管的设计空间。分别考虑栅极长度、触点长度和延伸长度的收缩效应,分析了导通电流、限制关断电流的泄漏源和CGP标度电位。LDM掺杂是降低微缩晶体管接触电阻和延伸电阻的主要挑战。本文报道了二维p型掺杂的实验控制,作为掺杂影响的一个例子。
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