Study on Bidirectional Coupling of Human Thermal Comfort Parameters and Cabin Thermal Environment

doi:10.16182/j.issn1004731x.joss.21-0558

Abstract

Abstract: At present, for the existing cockpit heat system, are studied more the airflow tissue parameters of the thermal environment and the human heat regulation is taken into account less, which leads to the low accuracy of simulation result evaluating the human thermal comfort. Through CFD (computational fluid dynamics) method, energy equation, RANS (reynolds-average navier-stokes) equation, and N-S(navier-stokes) equation, by combining the human temperature distribution with the cabin thermal environment parameters, the cabin heat system model based on the human heat regulation is established. The model considers the interacting influence of the human thermal regulation and the thermal environmental airflow tissue parameters, and finally realizes the bidirectional coupling between human thermal comfort parameters and the cockpit thermal environment.

Key words: thermal comfort, bidirectional coupling, thermal environment, human body heat regulation, thermal system

CLC Number:

TP399

Qu Jue, Wang Dayan, Wang Wei, Dang Sina. Study on Bidirectional Coupling of Human Thermal Comfort Parameters and Cabin Thermal Environment[J]. Journal of System Simulation, 2022, 34(1): 20-35.

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