Optimization of Air Supply Conditions for Large Space Radiant Air Conditioning Based on Response Surface Analysis

Authors

  • Yijiang Chen
  • Jun Zhang

DOI:

https://doi.org/10.56028/aetr.9.1.384.2024

Keywords:

Radiant air conditioning; Response Surface Methodology; Computational Fluid Dynamics (CFD) Model.

Abstract

In large spaces, the comfort control of radiant air conditioning systems still has deficiencies. Mainly reliant on traditional parameter control methods, the interaction effects of diverse operating conditions are not taken into account, and the control results are still in need of optimization. To improve indoor air conditioning comfort control and address gaps in existing research, the response surface analysis method combined with numerical simulation is applied to determine the optimal air supply conditions for large-space radiant air conditioning. With the real model as a reference, simulations are carried out in Airpak, selecting four factors: supply air temperature, supply air humidity, air supply volume, and air supply angle for the response surface design. Discussions on interaction effects are carried out based on the simulated results of various scheme designs, determining eight groups of air supply schemes with the highest comfort. The research concludes that the response surface analysis method, considering the interactive effects of impacting factors, can lead to the strategy of high comfort and reasonable air supply conditions. Additionally, a set of recommendations are proposed for future practical application and promotion.

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Published

2024-01-18