射频应用低成本硅BiCMOS技术的发展

S. Balanethiram, S. Pande, Ashutosh Kumar Singh, B. Umapathi, H. S. Jatana, N. Mohapatra, A. Chakravorty
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引用次数: 1

摘要

众所周知,在BiCMOS技术中结合双极和CMOS(互补金属氧化物半导体)器件的优点,可以在微电子电路中实现更好的速度和功率密度。在这项工作中,我们首次在印度介绍了用于模拟和射频应用的扩散双极结晶体管(BJT)的器件设计,工艺开发和优化。采用昌迪加尔半导体实验室(SCL)的180nm CMOS基线工艺开发BiCMOS工艺。所有的TCAD模拟都是用两种不同工艺拆分的180nm CMOS工艺的基线BJT测量数据进行校准的。我们提出的硅BJT的校准模拟显示电流增益> 90,电流驱动容量> 10 mA。该晶体管击穿电压大于25 V (BVCB0),截止频率(fT)和最大振荡频率(fmax)分别大于5 GHz和3 GHz。
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Development of Low-Cost Silicon BiCMOS Technology for RF Applications
It is well known that combining the benefits of bipolar and CMOS (Complementary Metal Oxide Semiconductor) devices in BiCMOS technology, one can achieve better speed and power-density in microelectronic circuitry. In this work, we present the device design, process development and optimization of diffusion bipolar junction transistor (BJT), for the first time in India, for analog and RF applications. The baseline 180nm CMOS process of Semi-Conductor Lab (SCL) at Chandigarh is used to develop the BiCMOS process. All the TCAD simulations are calibrated with the measured data of baseline BJT from 180nm CMOS process with two different process splits. Calibrated simulations of our proposed silicon BJT show current gain > 90 and current driving capacity > 10 mA. The breakdown voltage of the transistor is above 25 V (BVCB0) with cut-off frequency (fT) and maximum oscillation frequency (fmax) more than 5 GHz and 3 GHz, respectively.
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