Validation of the thermophysiological model by Fiala for prediction of local skin temperatures
Fecha
Autores
Martínez Guillamón, Natividad
Psikuta, Agnes
Kuklane, Kalev
Priego Quesada, Jose Ignacio
Cibrián Ortiz De Anda, Rosa María
Pérez Soriano, Pedro
Salvador Palmer, Rosario
Corberán, José M.
Rossi, Rene Michel
Annaheim, Simon
Directores
Unidades organizativas
Handle
https://riunet.upv.es/handle/10251/140818
Cita bibliográfica
Martínez Guillamón, N.; Psikuta, A.; Kuklane, K.; Priego Quesada, JI.; Cibrián Ortiz De Anda, RM.; Pérez Soriano, P.; Salvador Palmer, R.... (2016). Validation of the thermophysiological model by Fiala for prediction of local skin temperatures. International Journal of Biometeorology. 60(12):1969-1982. https://doi.org/10.1007/s00484-016-1184-1
Titulación
Resumen
[EN] The most complete and realistic physiological data are derived from direct measurements during human experiments; however, they present some limitations such as ethical concerns, time and cost burden. Thermophysiological models are able to predict human thermal response in a wide range of environmental conditions, but their use is limited due to lack of validation. The aim of this work was to validate the thermophysiological model by Fiala for prediction of local skin temperatures against a dedicated database containing 43 different human experiments representing a wide range of conditions. The validation was conducted based on root-mean-square deviation (rmsd) and bias. The thermophysiological model by Fiala showed a good precision when predicting core and mean skin temperature (rmsd 0.26 and 0.92 A degrees C, respectively) and also local skin temperatures for most body sites (average rmsd for local skin temperatures 1.32 A degrees C). However, an increased deviation of the predictions was observed for the forehead skin temperature (rmsd of 1.63 A degrees C) and for the thigh during exercising exposures (rmsd of 1.41 A degrees C). Possible reasons for the observed deviations are lack of information on measurement circumstances (hair, head coverage interference) or an overestimation of the sweat evaporative cooling capacity for the head and thigh, respectively. This work has highlighted the importance of collecting details about the clothing worn and how and where the sensors were attached to the skin for achieving more precise results in the simulations.
Palabras clave
Thermophysiological model, Thermophysiology, Skin temperature, Temperature sensors
ISSN
0020-7128
ISBN
Fuente
International Journal of Biometeorology
DOI
10.1007/s00484-016-1184-1
Enlaces relacionados
Agradecimientos
This work has been supported by the State Secretariat for Education, Research and Innovation (SBFI C11.0137) under the grant COST Action TU1101 project (http://www.bicyclehelmets.eu/). The authors gratefully acknowledge Dr. Dusan Fiala from Ergonsim (Germany) for his interesting and open discussion, Dr. Matthew Morrissey from Empa (St. Gallen, Switzerland) for his valuable inputs about evaporative cooling within clothing and Karin Lundgren-Kownacki from Lund University (Lund, Sweden) for her expert interpretation of experimental data in the heat. The authors thank all laboratories kindly providing human experimental data, within bygone COST Action 730: Towards a Universal Thermal Climate Index UTCI for Assessing the Thermal Environment of the Human Being (http://www.utci.org/cost.php), especially to Hanu Rintamaki from Finnish Institute for Occupational Health (Oulu, Finland), Igor Mekjavic from Josef Stefan Institute (Ljubljana, Slovenia) and Emiel den Hartog from TNO (The Hague, Netherlands).