Infrared-based temperature measurement in three dimensions

Sarun Sumriddetchkajorn; Sirajit Rayanasukha; Armote Somboonkaew; Uayphorn Wannason

doi:10.1364/AO.510892

Applied Optics
Vol. 63,
Issue 12,
pp. 3148-3155
(2024)
•https://doi.org/10.1364/AO.510892

Infrared-based temperature measurement in three dimensions

Sarun Sumriddetchkajorn, Sirajit Rayanasukha, Armote Somboonkaew, and Uayphorn Wannason

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Sarun Sumriddetchkajorn, Sirajit Rayanasukha, Armote Somboonkaew, and Uayphorn Wannason, "Infrared-based temperature measurement in three dimensions," Appl. Opt. 63, 3148-3155 (2024)

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- Instrumentation and Measurements
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About this Article
History
- Original Manuscript: October 31, 2023
- Revised Manuscript: February 19, 2024
- Manuscript Accepted: March 24, 2024
- Published: April 15, 2024

Abstract

A highly accurate and low-cost mobile platform for multiple object temperature measurement in 3D coordinate positions is introduced. The key idea relies on not only a combination of a 3D optical depth sensor and the 2D infrared thermal imager but also a determined distant-dependent compensation model. As a result, a cost-effective yet wider (${\gt}{100.0}^\circ {\rm C}$) temperature measurement range under the fluctuation of working distant shift is realized with a low standard deviation of 0.16°C at the working distance of 1.0 m. Accurate temperature measurement at different positions of objects along the suitable working distance is also demonstrated.

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Data underlying the results presented in this paper are not publicly available at this time but may be obtained from the authors upon reasonable request.

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Model	Thermal Image Resolution	Thermal Sensitivity	Frame Rate	Visible Image	3D	Measuring Range	Accuracy	Detection Distance
This work	$160 \times 120 p i x e l s$	$< 50 m K$	8.7 Hz	Yes	Yes	25–140°C	$\pm {0.18}^{\circ} C$	0.5–2.0 m
Previous paper [14]	$160 \times 120 p i x e l s$	$< 50 m K$	8.7 Hz	Yes	Yes	30–40°C	$\pm {0.18}^{\circ} C$	0.5–2.0 m
SF-Handheld-160T05 [29]	$160 \times 120 p i x e l s$	$\leq 50 m K$	N/A	No	N/A	30–45°C	$\pm {0.5}^{\circ} C$	1.0–1.5 m
HIKVISION DS-2TD1217B-6/PA [30]	$160 \times 120 p i x e l s$	$\leq 40 m K$	N/A	Yes	N/A	30–45°C	$\pm {0.5}^{\circ} C$	0.6 m
T-cam 160 XT P Series IR Camera [31]	$160 \times 120$ pixels	$< 50$ mK	50 Hz	Yes	No	0–50°C	$\pm {0.5}^{\circ}$ C	0.5 m
DALI TE-W300 Thermal Imaging Camera [32]	$160 \times 120 p i x e l s$	0.06°C at 30°C	50 Hz	Yes	No	20–50°C	$\pm {0.6}^{\circ} C$	2.0 m
Seek Scan [33]	$206 \times 156 p i x e l s$	$< 50 m K$	$< 9 H z$	Yes	No	36–40°C	$\pm {0.3}^{\circ} C$	1.5 m
Seek Scan Kiosk [34]	$206 \times 156 p i x e l s$	$< 50 m K$	$< 9 H z$	Yes	No	36–40°C	$\pm {0.3}^{\circ} C$	1.5 m
IR-Pad 320 P Series Medical [35]	$336 \times 256 p i x e l s$	$< 20 m K$	60 Hz	Yes	No	25–45°C	$\pm {0.2}^{\circ} C$	N/A
8320 P Series IR Camera Medical [36]	$336 \times 256 p i x e l s$	$< 30 m K$	60 Hz	No	No	25–45°C	$\pm {0.2}^{\circ} C$	N/A
Fotric 226B [37]	$384 \times 288 p i x e l s$	$< {0.05}^{\circ} C$ at 30°C	30 Hz	Yes	No	20–60°C	$\pm {0.2}^{\circ} C$	0.8–3.2 m
Fever Detection Alarm Temperature Infrared Body Thermal Camera [38]	$384 \times 288 p i x e l s$	N/A	50 Hz	Yes	N/A	0–50°C	$\pm {0.3}^{\circ} C$	3.0–8.0 m
FM 320 Plus P Series IR Camera [39]	$384 \times 288 p i x e l s$	$< 50 m K$	50 Hz	Yes	No	20–50°C	$\pm {0.3}^{\circ} C$	Lens dependent
DM60-WS1 Series [40]	$384 \times 288 p i x e l s$	$\leq 60 m K$	N/A	Yes	N/A	20–50°C	$\pm {0.3}^{\circ} C$	1.0–3.0 m
Kit-Bodytemp-Blackbody [41]	$384 \times 288 p i x e l s$	$< 40 m K$	N/A	No	No	20–50°C	$\pm {0.3}^{\circ} C$	2.0–6.0 m
SF-IPTB305THA-15Y [42]	$384 \times 288 p i x e l s$	$< 35 m K$	N/A	Yes	No	30–45°C	$\pm {0.5}^{\circ} C$	1.7–2.5 m
ATS600 Human Body Temperature Detection Camera [43]	$640 \times 512 p i x e l s$	$\leq 40 m K$	N/A	Yes	No	0–60°C	$\pm {0.3}^{\circ} C$	5.0–10.0 m

Sarun Sumriddetchkajorn	https://orcid.org/0000-0003-3173-0017
Sirajit Rayanasukha	https://orcid.org/0000-0002-8225-8050

Abstract

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Applied Optics