Design of quantum well thermoelectric energy harvester by CMOS process

S. M. Yang, G. Sheu
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Abstract

This work aims at improving the energy harvester performance by using low-dimensional thermoelectric materials. A micro-thermoelectric generator with quantum well thermocouples is developed by state-of-the-art CMOS (Complementary metal-oxide semiconductor) process. A relaxation-time model is applied to analyze the characteristic length of silicon germanium quantum well, and a thermal model is also applied to calculate the thermocouple size for optimal performance by matching the thermal/electrical resistance. Analysis based on TSMC 0.35μm 3P3M (3-poly and 3-metal layers) BiCMOS process shows that the quantum well thermocouples (0.05 μm Si0.9Ge0.1 quantum well on 0.300 μm P-thermoleg and 0.280 μm N-thermoleg) has the best performance. that the power factor and voltage factor is 0.241 μW/cm2K2 and 10.442 V/cm2K.
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基于CMOS工艺的量子阱热电能量采集器设计
这项工作旨在通过使用低维热电材料来提高能量采集器的性能。采用最先进的CMOS(互补金属氧化物半导体)工艺,研制了具有量子阱热电偶的微型热电发生器。采用弛豫时间模型分析了硅锗量子阱的特征长度,并采用热模型计算了热电偶尺寸,通过匹配热电阻/电阻来获得最佳性能。基于TSMC 0.35μm 3P3M (3-poly和3-metal layers) BiCMOS工艺的分析表明,量子阱热电偶(0.300 μm P-thermoleg和0.280 μm N-thermoleg上的0.05 μm Si0.9Ge0.1量子阱)性能最佳。功率因数和电压因数分别为0.241 μW/cm2K2和10.442 V/cm2K。
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