A 32 μm2 MOS-Based Remote Sensing Temperature Sensor with 1.29 °C Inaccuracy for Thermal Management

This paper introduces a compact NMOS-based temperature sensor designed for precise thermal management in high-performance integrated circuits. Fabricated using the TSMC 180 nm process with a 1.8 V supply, this sensor employs a single diode-connected NMOS transistor, achieving a significant size reduction and improved voltage headroom. The sensor’s area is 32 µm2 per unit, enabling dense integration around thermal hotspots. A novel voltage calibration method ensures accurate temperature extraction. The measurement results demonstrate three-sigma errors within ±0.1 °C in the critical range of 75 °C to 95 °C and +1.29/−1.08 °C outside this range, confirming the sensor’s high accuracy and suitability for advanced thermal management applications.

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Publication Details

Journal
Computers
Published
2025-01-16
DOI
https://doi.org/10.3390/computers14010026
Primary Topic
Analog and Mixed-Signal Circuit Design
Type
article
Field-Weighted Citation Impact
0.00

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article

A 32 μm2 MOS-Based Remote Sensing Temperature Sensor with 1.29 °C Inaccuracy for Thermal Management

Ruohan Yang, Kwabena Oppong Banahene, Bryce Gadogbe, Degang J. Chen et al.
Computers
Analog and Mixed-Signal Circuit Design
article

A 32 μm2 MOS-Based Remote Sensing Temperature Sensor with 1.29 °C Inaccuracy for Thermal Management

Ruohan Yang, Kwabena Oppong Banahene, Bryce Gadogbe, Degang J. Chen, R.L. Geiger
article en

Abstract

This paper introduces a compact NMOS-based temperature sensor designed for precise thermal management in high-performance integrated circuits. Fabricated using the TSMC 180 nm process with a 1.8 V supply, this sensor employs a single diode-connected NMOS transistor, achieving a significant size reduction and improved voltage headroom. The sensor’s area is 32 µm2 per unit, enabling dense integration around thermal hotspots. A novel voltage calibration method ensures accurate temperature extraction. The measurement results demonstrate three-sigma errors within ±0.1 °C in the critical range of 75 °C to 95 °C and +1.29/−1.08 °C outside this range, confirming the sensor’s high accuracy and suitability for advanced thermal management applications.

ComputersVol. 14(1)
Iowa State University (US)
Semiconductor Research Corporation
Openalex Percentile: Top 99%
Analog and Mixed-Signal Circuit Design
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