Role of Thermal Energy Storage Technology in the Decarbonization of Energy Sector Process - Packed Rock Bed Parameters Analysis

被引:0
作者
Ochmann, Jakub [1 ]
Jurczyk, Michal [1 ]
Bartela, Lukasz [1 ]
机构
[1] Silesian Tech Univ, Dept Power Engn & Turbomachinery, Konarskiego 18, PL-44100 Gliwice, Poland
关键词
Packed bed; Thermal energy storage; ANSYS Fluent; CFD; Adiabatic CAES; HYDROGEN;
D O I
10.2478/acee-2022-0031
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
The paper presents the adiabatic installation of compressed gases energy storage. The authors present the results of analyzes for this type of installation due to the selection of thermal storage material. The simulations were carried out for basalt, granite and ceramics (alumina) as well as for porosity value from 0.375 to 0.39 of basalt-filled reservoirs in Thermal Energy Storage (TES) installation. Characteristics of outlet air temperature, air pressure drop amount of energy stored and external heat losses as a time functions during the charging phase are presented. The research indicated that due to the lowest density and average heat capacity of the materials studied, granite has the fastest and most intense physical exit loss from the storage tank which was approximately 1100 W. However, there was no significant effect on air pressure drop depending on the chosen accumulation materials. The effect of rock bed porosity on the pressure drop of flowing air was investigated. For a constant mass flow rate, pressure drop values ranging from 2200 Pa to 6200 Pa were obtained depending on the porosity value.
引用
收藏
页码:65 / 74
页数:10
相关论文
共 33 条
  • [1] Quantifying methane emissions from coal mining ventilation shafts using an unmanned aerial vehicle (UAV)-based active AirCore system
    Andersen, Truls
    Vinkovic, Katarina
    de Vries, Marcel
    Kers, Bert
    Necki, Jaroslaw
    Swolkien, Justyna
    Roiger, Anke
    Peters, Wouter
    Chen, Huilin
    [J]. ATMOSPHERIC ENVIRONMENT-X, 2021, 12 (12):
  • [2] Adiabatic Compressed Air Energy Storage with packed bed thermal energy storage
    Barbour, Edward
    Mignard, Dimitri
    Ding, Yulong
    Li, Yongliang
    [J]. APPLIED ENERGY, 2015, 155 : 804 - 815
  • [3] Bartela L., European Patent Application, Patent No. [20000302.8, 200003028]
  • [4] A hybrid energy storage system using compressed air and hydrogen as the energy carrier
    Bartela, Lukasz
    [J]. ENERGY, 2020, 196 (196)
  • [5] Thermal analysis and exergy evaluation of packed bed thermal storage systems
    Bindra, Hitesh
    Bueno, Pablo
    Morris, Jeffrey F.
    Shinnar, Reuel
    [J]. APPLIED THERMAL ENGINEERING, 2013, 52 (02) : 255 - 263
  • [6] Mediterranean basin basalts as potential materials for thermal energy storage in concentrated solar plants
    Bouvry, Benjamin
    Carrion, Alberto Jose Fernandez
    Andujar, Joan
    Veron, Emmanuel
    Ory, Sandra
    Brassamin, Severine
    Echegut, Patrick
    Escape, Christophe
    Nahhas, Tamar
    Py, Xavier
    Bessada, Catherine
    [J]. SOLAR ENERGY MATERIALS AND SOLAR CELLS, 2017, 171 : 50 - 59
  • [7] Stochastic dynamic simulation of a novel hybrid thermal-compressed carbon dioxide energy storage system (T-CCES) integrated with a wind farm
    Chaychizadeh, Farzin
    Dehghandorost, Hojat
    Aliabadi, Abbas
    Taklifi, Alireza
    [J]. ENERGY CONVERSION AND MANAGEMENT, 2018, 166 : 500 - 511
  • [8] CORRELATING EQUATIONS FOR LAMINAR AND TURBULENT FREE CONVECTION FROM A HORIZONTAL CYLINDER
    CHURCHILL, SW
    CHU, HHS
    [J]. INTERNATIONAL JOURNAL OF HEAT AND MASS TRANSFER, 1975, 18 (09) : 1049 - 1053
  • [9] Thermo-physical properties of selected hard rocks and their relation to microwave-assisted comminution
    Hartlieb, P.
    Toifl, M.
    Kuchar, F.
    Meisels, R.
    Antretter, T.
    [J]. MINERALS ENGINEERING, 2016, 91 : 34 - 41
  • [10] Jurczyk M., 2022, ENERGIES, V15