一种基于mos的高能效温度传感器

IF 2.2 Q3 COMPUTER SCIENCE, HARDWARE & ARCHITECTURE
Jooeun Kim;Jeongmyeong Kim;Minkyu Yang;Kyounghun Kang;Wanyeong Jung
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引用次数: 0

摘要

本文介绍了一种节能的mos温度传感器,通过传感器和读出电路集成设计增强,LSB-first SAR和节能比较器。传感器和读出电路集成设计通过将两个模块合二为一来降低噪声。与温度相关的偏置电压,比较器集成了LSB-first SAR,并优化了能源效率。LSB-first SAR减少了循环次数和能耗。此外,异步时钟控制电路,消除了对时序参考和温度调节速度的需要,以增加测量稳健性。该温度传感器采用65 nm CMOS工艺,测量范围为- 60 ~ $145~ $ {\circ}$ C。用二阶多项式进行两点标定后,在整个范围内误差为- 1.93/ ${+}1.44~ ${\circ}$ C,在- 43 ~ $137~ ${\circ}$ C范围内误差为- 0.96/ ${+}0.94~ ${\circ}$ C。在室温下,传感器的分辨率为71.8 mK,每次转换为41.9 pJ,在mos传感器中分辨率最佳的品质系数为216 fJ $\cdot $ K2。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A MOS-Based Temperature Sensor With Energy-Efficient Techniques
This letter presents an energy-efficient MOS-based temperature sensor, enhanced through transducer and readout circuit integrated design, LSB-first SAR, and energy-efficient comparator. The transducer and readout circuit integrated design reduces noise by combining two blocks into one. With temperature-dependent offset voltage, the comparator integrates with the LSB-first SAR and is optimized for energy efficiency. The LSB-first SAR reduces the number of cycles and energy consumption. In addition, an asynchronous clock controls the circuit, eliminating the need for a timing reference and adjusting speed to temperature to increase measurement robustness. The temperature sensor was fabricated with a 65 nm CMOS process, and the sensor has −60 to $145~^{\circ }$ C measurement range. After two-point calibration with a second-order polynomial, errors are −1.93/ ${+} 1.44~^{\circ }$ C over the entire range and −0.96/ ${+} 0.94~^{\circ }$ C from −43 to $137~^{\circ }$ C. At room temperature, the sensor achieves 71.8 mK resolution and 41.9 pJ per conversion, resulting in the best resolution figure-of-merit of 216 fJ $\cdot $ K2 among MOS-based sensors.
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来源期刊
IEEE Solid-State Circuits Letters
IEEE Solid-State Circuits Letters Engineering-Electrical and Electronic Engineering
CiteScore
4.30
自引率
3.70%
发文量
52
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