D. Hartskeerl, H.G.A. Huizing, P. Deixler, W. van Noort, P. Magnée
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引用次数: 4
摘要
本文报道了射频高击穿电压(>16.5 V) SiGeC HBT功率器件的功率性能,该器件已成功集成到具有0.25 /spl μ m CMOS和全套高质量无源的BiCMOS平台上。这些器件在功率增益和击穿电压之间有很好的平衡。高速度与低寄生元件相结合,在相对较宽的功率密度范围内,可实现超过80%的功率附加效率(PAE)和相应的功率增益(G/sub p/)为18 dB或更高。在0.25 W连续波输出功率下,发射极长度为792 /spl μ m (396 /spl μ l μ m/sup 2/发射极面积),工作频率为1.8 GHz,电源电压为3.3 V,峰值性能为88% PAE,峰值性能为20 dB G/sub p/。获得了优异的功率与发射极面积的比例关系。测量的输出功率显示,当面积加倍时,理想的增加了3 dB。还有相应的匹配尺度。这是通过使用深沟隔离和精心设计的金属布线来最大限度地减少寄生元件来实现的。此外,基极和发射极掺杂谱线经过调整,使功率增益的温度依赖性最小化。结合高PAE,没有发现自热对功率结垢的影响。
High performance SiGeC HBT integrated into a 0.25 /spl mu/m BiCMOS technology featuring record 88% power-added efficiency
This paper reports on the power performance of RF high-breakdown voltage (>16.5 V) SiGeC HBT power devices, which have been successfully integrated into a BiCMOS platform featuring 0.25 /spl mu/m CMOS and a full set of high-quality passives. These devices have an excellent tradeoff between power gain and breakdown voltage. The high speed combined with low parasitic elements enables over 80% power-added efficiency (PAE) and corresponding power gains (G/sub p/) of 18 dB and higher over a relatively wide range of power densities. A peak performance of 88% PAE and 20 dB G/sub p/ is obtained at 0.25 W continuous-wave output power with a 792 /spl mu/m emitter length device (396 /spl mu/m/sup 2/ emitter area) operating at 1.8 GHz with 3.3 V supply voltage. Excellent power scaling versus emitter area is obtained. Measured output power shows an ideal increase of 3 dB when doubling the area. Also the corresponding matching scales. This is achieved by minimizing parasitic elements using deep trench isolation and careful design of the metal wiring. Furthermore, the base and emitter doping profiles are tuned to minimize the temperature dependence of the power gain. In combination with the high PAE, no effect of self-heating on power scaling is found.