Shut Off! – Hybrid BICMOS Logic for Power-Efficient High Speed Circuits

Christoph W. Wagner, Niklas Bräunlich, Kevin E. Drenkhahn, Georg Gläser
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Abstract

Power efficiency is crucial, especially in high-speed systems, where conventional approaches like clock gating cannot be employed readily. Special logic families, such as Positive Emitter-Coupled Logic (PECL), push the technological frontier, promising even more speed at the expense of an even more strained power budget. We propose a novel hybrid of PECL and Complementary Metal-Oxide-Semiconductor (CMOS) logic to introduce Function Shut-off (FSO), realizing a shut-off at the level of functional blocks and logic primitives inside complex logic cells. Using this approach, we realize a high-speed Linear Feedback Shift Register (LFSR) in a SiGe technology, extending the State of the Art (SOTA) by adding reconfigurability, which is required for its use as sequence generator in Compressed Sensing (CS) applications. We present measurements showing successful fabrication and performance of the packaged die at 20.4 GHz. In this LFSR, employing FSO reduces the supply current by a factor of up to four (depending on the chosen configuration) and reduces active area by 17%.
关闭!-用于高能效高速电路的混合BICMOS逻辑
功率效率至关重要,特别是在高速系统中,时钟门控等传统方法无法轻易采用。特殊的逻辑系列,如正发射耦合逻辑(PECL),推动了技术前沿,以更紧张的功率预算为代价,承诺更快的速度。我们提出了一种新的PECL和互补金属氧化物半导体(CMOS)逻辑的混合来引入功能关闭(FSO),实现了复杂逻辑单元内功能模块和逻辑原语级别的关闭。使用这种方法,我们在SiGe技术中实现了高速线性反馈移位寄存器(LFSR),通过增加可重构性扩展了现有技术(SOTA),这是压缩感知(CS)应用中用作序列发生器所必需的。我们目前的测量显示成功的制造和性能的封装芯片在20.4 GHz。在这种LFSR中,采用FSO可将电源电流减少多达四倍(取决于所选的配置),并将有源面积减少17%。
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