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Enabling low power BEOL compatible monolithic 3D+ nanoelectronics for IoTs using local and selective far-infrared ray laser anneal technology
Conference paper

Enabling low power BEOL compatible monolithic 3D+ nanoelectronics for IoTs using local and selective far-infrared ray laser anneal technology

Chih-Chao Yang, Jia-Min Shieh, Tung-Ying Hsieh, Wen-Hsien Huang, Hsing-Hsiang Wang, Chang-Hong Shen, Tsung-Ta Wu, Yun-Fang Hou, Yi-Ju Chen, Yao-Jen Lee, …
Technical Digest - International Electron Devices Meeting, IEDM, Vol.2016-February, pp.8.7.1-8.7.4
02/2015
Appears in  keyword about Physics

Abstract

Electronic Optical and Magnetic Materials Condensed Matter Physics Electrical and Electronic Engineering Materials Chemistry
Local and selective far-infrared ray laser annealing (FIR-LA) process with very short heating duration (≤100μs) and low substrate temperature (≤400oC) enables sequentially stacked gate-first nanowire FETs (NWFETs), including 3D <sup>+</sup> Si NWFET and poly-Ge junctionless (JL) NWFET, and BEOL compatible monolithic 3D <sup>+</sup> nanoelectronics. The 3D <sup>+</sup> Si NWFETs, demonstrated by green nano-second laser crystallization (GNS-LC) and FIR-LA processes exhibit steep subthreshold swing (<90mV/dec.) and high driving current (n-type: 310μA/μm and p-type: 220μA/μm). The 7nm poly-Ge JLNWFET shows high I <sub>on</sub> /I <sub>off</sub> ratio (>5×10 <sup>4</sup> ) and small DIBL. Furthermore, the thus fabricated low driving voltage 6T SRAM shows a static noise margin (SNM) of 130 mV at V <sub>d</sub> =0.4V enabling the low power and low cost 3D <sup>+</sup> IC for internet of things (IoTs).

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