采用0.25 μ m CMOS和47 GHz双极双聚的高性能BiCMOS技术

G. Shahidi, J. Warnock, B. Davari, B. Wu, Y. Taur, C. Wong, C. Chen, M. Rodriguez, D. Tang, K. Jenkins, P. McFarland, R. Schulz, D. Zicherman, P. Coane, D. Klaus, J. Sun, M. Polcari, T. Ning
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引用次数: 13

摘要

在该技术中,首先定义了CMOS,并进行了热循环的主要部分。然后,由CMOS的其余部分制造双极。图像化的亚集电极定义和外延硅生长之后是深沟槽和浅沟槽隔离过程。接下来是npn集电极通达和退火,CMOS阱和阈值植入,栅氧化和聚沉积。CMOS栅极定义,再氧化和nMOS n/sup +/植入。电子束光刻技术用于栅极电平的图案,以实现最小栅极多宽度为0.3 μ m。接下来,在制造双极的同时保护CMOS区域。在此过程中基极和发射极的退火周期符合CMOS要求。在2.5 v电源下,CMOS环形振荡器每级延迟50 ps, ECL环形振荡器在1.2 mA时延迟48 ps,以及快速加载的BiNMOS栅极延迟已经实现。
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A high performance BiCMOS technology using 0.25 mu m CMOS and double poly 47 GHz bipolar
In this technology, first the CMOS is defined and a major part of the heat cycle is carried out. Then, the bipolar is fabricated by the rest of the CMOS. Patterned subcollector definition and epitaxial silicon growth are followed by the deep and shallow trench isolation processes. Next are the npn collector reach-through and anneal, CMOS well and threshold implants, gate oxidation and poly deposition. CMOS gate definition, reoxidation, and nMOS n/sup +/ implant. Electron-beam lithography is used to pattern the gate level in order to achieve a minimum gate poly width of 0.3 mu m. Next, the CMOS region is protected, while fabricating the bipolar. The annealing cycles for base and emitter during the process are compatible with the CMOS requirements. The minimum final emitter size is 0.5 mu m. CMOS ring oscillators with 50-ps delay per stage at 2.5-V supply, ECL ring oscillator delays of 48 ps at 1.2 mA, and fast loaded BiNMOS gate delays have been achieved.<>
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