A. Shafique, E. C. Durmaz, B. Çetindoğan, M. Yazici, M. Kaynak, C. Kaynak, Y. Gurbuz
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引用次数: 4
摘要
本文介绍了非制冷红外成像系统中基于硅/硅锗(Si/SiGe)多量子阱的测热计探测器的设计、建模和仿真结果。微测辐射热计设计用于探测8 ~ 14 μm长波红外(LWIR)范围内的光,像素尺寸为25 x 25 μm。设计优化策略可实现电阻温度系数(TCR)为4.5%/K,锗(Ge)最大浓度为50%。微辐射热计的设计完全依赖于标准的CMOS和MEMS工艺,使其适合商用红外成像系统。
Design of monocrystalline Si/SiGe multi-quantum well microbolometer detector for infrared imaging systems
This paper presents the design, modelling and simulation results of silicon/silicon-germanium (Si/SiGe) multi-quantum well based bolometer detector for uncooled infrared imaging system. The microbolometer is designed to detect light in the long wave length infrared (LWIR) range from 8 to 14 μm with pixel size of 25 x 25 μm. The design optimization strategy leads to achieve the temperature coefficient of resistance (TCR) 4.5%/K with maximum germanium (Ge) concentration of 50%. The design of microbolometer entirely relies on standard CMOS and MEMS processes which makes it suitable candidate for commercial infrared imaging systems.