Design and Analysis of a Fast Infrared Tracking System with Winner-Take-All Implementation

This paper describes the CMOS circuit design of two different kinds of fast infrared tracking systems with 4 x 1 CMOS thermopile array for fast detecting changes of infrared radiation due, for instance, to the moving of thermal object. The circuit is based on a charge-based measurement (CBM) design...

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Hauptverfasser: Jia-Wen Zhong, Shu-Jung Chen, Chih-Hsiung Shen
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Shu-Jung Chen
Chih-Hsiung Shen
description This paper describes the CMOS circuit design of two different kinds of fast infrared tracking systems with 4 x 1 CMOS thermopile array for fast detecting changes of infrared radiation due, for instance, to the moving of thermal object. The circuit is based on a charge-based measurement (CBM) design originating at the University of California, Berkeley, for measuring crosstalk on integrated circuits. The basic front-end sensor circuit comprises seven MOSFETs and integrates the voltage signal of thermopile sensor into a current source. We propose a winner-take-all (WTA) circuit and a new preliminary level of thermopile array image processing on chip which the sensor array fully is integrated by using a 2P4M 0.35 mum standard CMOS technology. A differential amplifier receives the outputs from two sensor circuits. The second architecture uses two low offset operational amplifiers (OPA) which compares two pairs output signals of thermopiles and indentify the largest one to give digital signal with high or low. Both of two systems can identify the position of targets very quickly and efficiently without complicated processing circuits and complex analog signals to digital signals circuits. For the two systems, To simulate and implement the infrared thermal sensor array in this paper, both systems show accurate and successful results, although they have different responses and resolution. So far the results have shown that integrated thermopile array with winner-take-all (WTA) and low offset operational amplifiers can approach a high level of development, reliability and easy for high accuracy infrared tracking applications.
doi_str_mv 10.1109/IMTC.2008.4547229
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The circuit is based on a charge-based measurement (CBM) design originating at the University of California, Berkeley, for measuring crosstalk on integrated circuits. The basic front-end sensor circuit comprises seven MOSFETs and integrates the voltage signal of thermopile sensor into a current source. We propose a winner-take-all (WTA) circuit and a new preliminary level of thermopile array image processing on chip which the sensor array fully is integrated by using a 2P4M 0.35 mum standard CMOS technology. A differential amplifier receives the outputs from two sensor circuits. The second architecture uses two low offset operational amplifiers (OPA) which compares two pairs output signals of thermopiles and indentify the largest one to give digital signal with high or low. Both of two systems can identify the position of targets very quickly and efficiently without complicated processing circuits and complex analog signals to digital signals circuits. For the two systems, To simulate and implement the infrared thermal sensor array in this paper, both systems show accurate and successful results, although they have different responses and resolution. 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For the two systems, To simulate and implement the infrared thermal sensor array in this paper, both systems show accurate and successful results, although they have different responses and resolution. 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The circuit is based on a charge-based measurement (CBM) design originating at the University of California, Berkeley, for measuring crosstalk on integrated circuits. The basic front-end sensor circuit comprises seven MOSFETs and integrates the voltage signal of thermopile sensor into a current source. We propose a winner-take-all (WTA) circuit and a new preliminary level of thermopile array image processing on chip which the sensor array fully is integrated by using a 2P4M 0.35 mum standard CMOS technology. A differential amplifier receives the outputs from two sensor circuits. The second architecture uses two low offset operational amplifiers (OPA) which compares two pairs output signals of thermopiles and indentify the largest one to give digital signal with high or low. Both of two systems can identify the position of targets very quickly and efficiently without complicated processing circuits and complex analog signals to digital signals circuits. For the two systems, To simulate and implement the infrared thermal sensor array in this paper, both systems show accurate and successful results, although they have different responses and resolution. So far the results have shown that integrated thermopile array with winner-take-all (WTA) and low offset operational amplifiers can approach a high level of development, reliability and easy for high accuracy infrared tracking applications.</abstract><pub>IEEE</pub><doi>10.1109/IMTC.2008.4547229</doi><tpages>5</tpages></addata></record>
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subjects CMOS
CMOS image sensors
CMOS technology
Current measurement
Infrared detectors
Infrared sensors
infrared tracking
Integrated circuit measurements
Operation amplifier
Operational amplifiers
Sensor arrays
Signal processing
thermal image
thermal sensor array
Thermal sensors
thermopile
winner-take-all (WTA)
title Design and Analysis of a Fast Infrared Tracking System with Winner-Take-All Implementation
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