A novel 0.79 /spl mu/m/sup 2/ SRAM cell by KrF lithography and high performance 90 nm CMOS technology for ultra high speed SRAM

Soon-Moon Jung, H. Kwon, Jaehun Jeong, W. Cho, Sungbong Kim, H. Lim, K. Koh, Youngseop Rah, Jaekyun Park, Heesoo Kang, G. Lyu, J. Park, C. Chang, Y. Jang, Donggun Park, Kinam Kim, Moon-Yong Lee
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引用次数: 1

Abstract

The smallest SRAM cell, 0.79 /spl mu/m/sup 2/, was realized by a revolutionary cell layout, fine tuned OPC technique to overcome the 248 nm KrF lithography limitation, instead of using 193 nm ArF lithography. Sub-100 nm CMOS technology was indispensable to achieve the cell size as well as the performance. The high performance transistors were made with 80 nm gate length including 15 /spl Aring/ nitrided gate oxide layer, indium channel and halo implantation processes. The novel cell exhibits excellent neutron SER immunity, compared with ones of the SRAM cell by previous generation technologies.
采用KrF光刻技术和高性能90纳米CMOS技术,实现了0.79 /spl mu/m/sup 2/超高速SRAM单元
最小的SRAM单元为0.79 /spl mu/m/sup 2/,通过革命性的单元布局,微调OPC技术克服了248 nm KrF光刻的限制,而不是使用193 nm ArF光刻。低于100纳米的CMOS技术是实现电池尺寸和性能必不可少的。采用15 /spl的氮化栅极氧化层、铟沟道和光晕注入工艺,制备了80 nm栅极长度的高性能晶体管。与上一代技术的SRAM细胞相比,新型细胞具有优异的中子SER免疫性能。
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