DOI : https://doi.org/10.18517/ijaseit.12.3.14629

Effects of Methods, Genders, and Interaction to Human Body Temperature Measurement Results Using Tailor-Made Infrared Thermometer and Application Program

Sensus Wijonarko (1), - Purwowibowo (2), Tatik Maftukhah (3), - Mahmudi (4), Dadang Rustandi (5), Jalu A. Prakosa (6), Bernadus H. Sirenden (7), Dwi Larasati (8)
(1) Research Center for Physics, LIPI, Kompleks Puspiptek Gedung 442, Tangerang Selatan (Tangsel), 15314, Indonesia
(2) Research Center for Physics, LIPI, Kompleks Puspiptek Gedung 442, Tangerang Selatan (Tangsel), 15314, Indonesia
(3) Research Center for Physics, LIPI, Kompleks Puspiptek Gedung 442, Tangerang Selatan (Tangsel), 15314, Indonesia
(4) Research Center for Testing Technology, LIPI, Kompleks Puspiptek Gedung 417, Tangsel 15314, Indonesia
(5) Instrumentation Development Unit, LIPI, Kompleks LIPI Sangkuriang Gedung 30, Bandung, 40135, Indonesia
(6) Research Center for Physics, LIPI, Kompleks Puspiptek Gedung 442, Tangerang Selatan (Tangsel), 15314, Indonesia
(7) Research Center for Physics, LIPI, Kompleks Puspiptek Gedung 442, Tangerang Selatan (Tangsel), 15314, Indonesia
(8) Temperature Metrology, National Standardization Agency of Indonesia, Kompleks Puspiptek Gedung 420, Tangsel, 15314, Indonesia
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[1]
S. Wijonarko, “Effects of Methods, Genders, and Interaction to Human Body Temperature Measurement Results Using Tailor-Made Infrared Thermometer and Application Program”, Int. J. Adv. Sci. Eng. Inf. Technol., vol. 12, no. 3, pp. 1085–1091, May 2022.
Citation Format :
The 16-temperature measurement site method is holistic but inefficient. This study compared 8 to 16 temperature measurement site methods on seven married couples. The data gathering was obtained using our infrared thermometer, while the data processing was carried out utilizing Two Way ANOVA with Repetition inserted in our developed application program. Unlike the thermometer in general, our thermometer can equally measure the ear canal and forehead temperature equally. Our made application software was used and validated. The result shows no significant difference between 16 and 8 temperature measurement site methods (F method 0.05 < 4.26). There was no significant difference between male and female temperatures (F gender 1.46 < 4.26), and there was no significant interaction between the method and gender (F interaction 1.51 < 4.26). Male and female temperatures, in general, were almost similar, around 0.57 %, but there was a tendency that they were different in detail. The front head (face), lower part arm, hand, thigh, calf, and feet temperatures for men were slightly higher than for women, while the trunk, upper part arm, and back neck temperatures were slightly higher than men's. Based on these findings, eight temperature measurement site methods can replace the 16-temperature measurement site method. A further study should be carried out to obtain the simplest temperature measurement site but with a significant level of accuracy as the 16-temperature measurement site method. Detail differences between male and female temperatures should also be further investigated.

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