A sub-nanosecond pyrometer with broadband spectral channels for temperature measurement of dynamic compression experiments

•A broadband optical pyrometer with a rise time of ∼70 ps was developed.•An improved calibration procedure and data processing method was proposed.•Deviation in the dynamic temperatures determined by the pyrometer was less than 2%.•The pyrometer can be used to measure the temperature of laser shocke...

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Veröffentlicht in:Measurement : journal of the International Measurement Confederation 2022-05, Vol.195, p.111147, Article 111147
Hauptverfasser: Wu, Jian, Li, Jiabo, Li, Jun, Zhou, Xianming, Weng, Jidong, Liu, Shenggang, Tao, Tianjiong, Ma, Heli, Tang, Longhuang, Gao, Zhipeng, Wang, Xiang, Tao, Peidong, Li, Mu
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container_start_page 111147
container_title Measurement : journal of the International Measurement Confederation
container_volume 195
creator Wu, Jian
Li, Jiabo
Li, Jun
Zhou, Xianming
Weng, Jidong
Liu, Shenggang
Tao, Tianjiong
Ma, Heli
Tang, Longhuang
Gao, Zhipeng
Wang, Xiang
Tao, Peidong
Li, Mu
description •A broadband optical pyrometer with a rise time of ∼70 ps was developed.•An improved calibration procedure and data processing method was proposed.•Deviation in the dynamic temperatures determined by the pyrometer was less than 2%.•The pyrometer can be used to measure the temperature of laser shocked matter. Time-resolved temperature measurement of dynamic-compressed material is critical in the high-pressure research fields. For higher temporal resolution requirement of the dynamic experiments, a broadband optical pyrometer was developed, with a rise time of ∼70 ps and a measurable temperature range of 2500 K to higher than 10000 K. Expanding the detecting bandwidth to 100 nm∼300 nm for each channel, sensitivity of the detection system increases by nearly one order of magnitude compared to the conventional configuration. An improved temperature calibration procedure and data processing method was proposed, and temperature results of the shock compression experiments using a light gas gun were identical to the simultaneous measurements by a narrowband pyrometer. The dynamic radiation from the laser shocked matter also can be perfectly captured by the developed pyrometer, and the temporal profile of temperature agreed well with the shock velocity profile in both the shape and the duration time.
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Time-resolved temperature measurement of dynamic-compressed material is critical in the high-pressure research fields. For higher temporal resolution requirement of the dynamic experiments, a broadband optical pyrometer was developed, with a rise time of ∼70 ps and a measurable temperature range of 2500 K to higher than 10000 K. Expanding the detecting bandwidth to 100 nm∼300 nm for each channel, sensitivity of the detection system increases by nearly one order of magnitude compared to the conventional configuration. An improved temperature calibration procedure and data processing method was proposed, and temperature results of the shock compression experiments using a light gas gun were identical to the simultaneous measurements by a narrowband pyrometer. The dynamic radiation from the laser shocked matter also can be perfectly captured by the developed pyrometer, and the temporal profile of temperature agreed well with the shock velocity profile in both the shape and the duration time.</description><identifier>ISSN: 0263-2241</identifier><identifier>EISSN: 1873-412X</identifier><identifier>DOI: 10.1016/j.measurement.2022.111147</identifier><language>eng</language><publisher>London: Elsevier Ltd</publisher><subject>Broadband ; Broadband spectral channel ; Calibration ; Data processing ; Dynamic temperature ; Light gas guns ; Measurement ; Narrowband ; Optical pyrometer ; Sub-nanosecond ; Temperature ; Temperature measurement ; Temporal resolution ; Time measurement ; Velocity ; Velocity distribution</subject><ispartof>Measurement : journal of the International Measurement Confederation, 2022-05, Vol.195, p.111147, Article 111147</ispartof><rights>2022</rights><rights>Copyright Elsevier Science Ltd. 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Time-resolved temperature measurement of dynamic-compressed material is critical in the high-pressure research fields. For higher temporal resolution requirement of the dynamic experiments, a broadband optical pyrometer was developed, with a rise time of ∼70 ps and a measurable temperature range of 2500 K to higher than 10000 K. Expanding the detecting bandwidth to 100 nm∼300 nm for each channel, sensitivity of the detection system increases by nearly one order of magnitude compared to the conventional configuration. An improved temperature calibration procedure and data processing method was proposed, and temperature results of the shock compression experiments using a light gas gun were identical to the simultaneous measurements by a narrowband pyrometer. 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Time-resolved temperature measurement of dynamic-compressed material is critical in the high-pressure research fields. For higher temporal resolution requirement of the dynamic experiments, a broadband optical pyrometer was developed, with a rise time of ∼70 ps and a measurable temperature range of 2500 K to higher than 10000 K. Expanding the detecting bandwidth to 100 nm∼300 nm for each channel, sensitivity of the detection system increases by nearly one order of magnitude compared to the conventional configuration. An improved temperature calibration procedure and data processing method was proposed, and temperature results of the shock compression experiments using a light gas gun were identical to the simultaneous measurements by a narrowband pyrometer. 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subjects Broadband
Broadband spectral channel
Calibration
Data processing
Dynamic temperature
Light gas guns
Measurement
Narrowband
Optical pyrometer
Sub-nanosecond
Temperature
Temperature measurement
Temporal resolution
Time measurement
Velocity
Velocity distribution
title A sub-nanosecond pyrometer with broadband spectral channels for temperature measurement of dynamic compression experiments
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