Přístupnostní navigace
E-application
Search Search Close
Publication detail
CHARVÁT, P. KLIMEŠ, L. OSTRÝ, M. ŠTĚTINA, J.
Original Title
A VALIDATED TRNSYS MODEL OF THERMALLY ACTIVATED LAYER WITH PHASE CHANGE MATERIAL
Type
conference paper
Language
English
Original Abstract
Simulations of building performance or HVAC systems performance usually cover a time period of several weeks, months or even a year. Therefore, the computational demand of simulation models of buildings or HVAC systems can be quite constraining for their practical application. A substantial simplification of the simulated problem is usually necessary to reduce the computational demand. The paper reports the development of a quasi 1D model of a thermally activated layer with phase change material. The model was developed in MATLAB and subsequently implemented as a TRNSYS type. The model was validated with data obtained from experiments with thermally activated panels. The experimental panels contained a 15 mm thick layer of gypsum plaster comprising 30 wt.% of microencapsulated phase change material. Plastic tubes for liquid heat carrier (water in the presented study) were embedded at the bottom of the plaster layer. Thermal imaging was used to acquire the average surface temperatures of the panels in the experimental investigations. The experimental and numerical results were in a good agreement.
Keywords
phase change material, thermally activated building structure, numerical simulation
Authors
CHARVÁT, P.; KLIMEŠ, L.; OSTRÝ, M.; ŠTĚTINA, J.
RIV year
2015
Released
13. 11. 2015
Publisher
ASME
Location
Houston, Texas, USA
ISBN
978-0-7918-5749-6
Book
ASME 2015 International Mechanical Engineering Congress and Exposition Volume 8A: Heat Transfer and Thermal Engineering
Pages from
1
Pages to
4
Pages count
BibTex
@inproceedings{BUT120026, author="Pavel {Charvát} and Lubomír {Klimeš} and Milan {Ostrý} and Josef {Štětina}", title="A VALIDATED TRNSYS MODEL OF THERMALLY ACTIVATED LAYER WITH PHASE CHANGE MATERIAL", booktitle="ASME 2015 International Mechanical Engineering Congress and Exposition Volume 8A: Heat Transfer and Thermal Engineering", year="2015", pages="1--4", publisher="ASME", address="Houston, Texas, USA", doi="10.1115/IMECE2015-51705", isbn="978-0-7918-5749-6" }