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Pavel Charvát
Pavel Charvát
在 vutbr.cz 的电子邮件经过验证
标题
引用次数
引用次数
年份
Review on using microencapsulated phase change materials (PCM) in building applications
Y Konuklu, M Ostry, HO Paksoy, P Charvat
Energy and Buildings 106, 134-155, 2015
4072015
Numerical and experimental investigation of a PCM-based thermal storage unit for solar air systems
P Charvát, L Klimeš, M Ostrý
Energy and Buildings 68, 488-497, 2014
1542014
Energy demand of liquefaction and regasification of natural gas and the potential of LNG for operative thermal energy storage
J Pospíšil, P Charvát, O Arsenyeva, L Klimeš, M Špiláček, JJ Klemeš
Renewable and Sustainable Energy Reviews 99, 1-15, 2019
1372019
Computer modelling and experimental investigation of phase change hysteresis of PCMs: The state-of-the-art review
L Klimeš, P Charvát, MM Joybari, M Zálešák, F Haghighat, ...
Applied Energy 263, 114572, 2020
912020
PCM thermal energy storage in solar heating of ventilation air—Experimental and numerical investigations
U Stritih, P Charvat, L Klimes, E Osterman, M Ostry, V Butala
Sustainable cities and society 37, 104-115, 2018
672018
An overview of mercury emissions in the energy industry-A step to mercury footprint assessment
P Charvát, L Klimeš, J Pospíšil, JJ Klemeš, PS Varbanov
Journal of Cleaner Production 267, 122087, 2020
592020
Solar air collector with the solar absorber plate containing a PCM–Environmental chamber experiments and computer simulations
P Charvát, L Klimeš, O Pech, J Hejčík
Renewable Energy 143, 731-740, 2019
592019
Materials for advanced heat storage in buildings
M Ostry, P Charvat
Procedia Engineering 57, 837-843, 2013
372013
CHALLENGES IN THE COMPUTER MODELING OF PHASE CHANGE MATERIALS
L Klimes, P Charvat, M Ostry
Materiali in tehnologije 46 (4), 335-338, 2012
25*2012
Identification of the effective heat capacity–temperature relationship and the phase change hysteresis in PCMs by means of an inverse heat transfer problem solved with …
M Zálešák, P Charvát, L Klimeš
Applied Thermal Engineering 197, 117392, 2021
242021
Solar chimneys for ventilation and passive cooling
P Charvat, M Jicah, J Stetina
World Renewable Energy Congress, Denver, USA, 2004
242004
Solution approaches to inverse heat transfer problems with and without phase changes: A state-of-the-art review
M Zálešák, L Klimeš, P Charvát, M Cabalka, J Kůdela, T Mauder
Energy 278, 127974, 2023
142023
Front tracking in modelling of latent heat thermal energy storage: Assessment of accuracy and efficiency, benchmarking and GPU-based acceleration
L Klimeš, T Mauder, P Charvát, J Štětina
Energy 155, 297-311, 2018
142018
SIMULATION OF LATENT-HEAT THERMAL STORAGE INTEGRATED WITH ROOM STRUCTURES
P Charvat, T Mauder, M Ostry
Materiali in tehnologije 46 (3), 239-242, 2012
14*2012
A solar air collector with integrated latent heat thermal storage
P Charvat, M Ostry, T Mauder, L Klimes
EPJ Web of Conferences 25, 01028, 2012
142012
Dry cooling as a way toward minimisation of water consumption in the steel industry: A case study for continuous steel casting
L Klimeš, M Březina, T Mauder, P Charvát, JJ Klemeš, J Štětina
Journal of cleaner production 275, 123109, 2020
122020
Simulation of the performance of a hybrid ventilation system in different climates
P Charvat, M Jicha, A Niachou, M Santamouris
122005
Thermally activated wall panels with microencapsulated PCM: comparison of 1D and 3D models
L Klimeš, P Charvát, M Ostrý
Journal of Building Performance Simulation 12 (4), 404-419, 2019
112019
Assessment of basic approaches to numerical modeling of phase change problems—Accuracy, efficiency, and parallel decomposition
T Mauder, P Charvat, J Stetina, L Klimes
Journal of Heat Transfer 139 (8), 084502, 2017
112017
Melting front propagation in a paraffin-based phase change material: Lab-scale experiment and simulations
J Stetina, T Mauder, L Klimes, P Charvat
Thermal Science 22 (6 Part B), 2723-2732, 2018
102018
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