Document Type
Conference Proceeding
Publication Date
8-1-2020
Publication Title
Proceedings of International Structural Engineering and Construction
Volume
7
Issue
1
First page number:
1
Last page number:
6
Abstract
Molten salt (MS) storage systems in the 565°C range can store green solar energy from thermal solar power station, such as the Crescent Dunes solar plant in Nevada. Large containers can be used to store energy and generate electricity for eight hours or more to be used at night or during peak demand hours, depending on the container size. Energy storage can reduce the fluctuation due to weather conditions experienced at thermal solar power stations because stable diurnal energy supply is made available by MS energy storage. Supported by the Office of Naval Research (ONR), the research presented discusses the considerations for designing molten salt storage tanks. An alternate molten salt storage cylindrical tank design layout is presented, including an improved roof design concept. A preliminary heat transfer analysis is presented and discussed for the alternate cylindrical tank design. This preliminary analysis was used to determine the thickness of insulating material in and around the cylindrical tank to reduce heat flux. These insulating materials include the use of firebrick and ceramic insulation to complement the structural carbon steel and the stainless steel that is used for corrosion resistance. This paper also introduces the alternate designs of a semi-buried spherical tank and drop shell tank that can be used storing molten salts.
Keywords
Commercial Electric Station; Energy Production; Solar Salts; Thermal Solar Power
Disciplines
Civil and Environmental Engineering | Engineering | Environmental Engineering
File Format
File Size
606 KB
Language
English
Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.
Repository Citation
Ladkany, S. G.,
Loyd, N.
(2020).
Alternative Designs of Molten Salt Storage Shells for Use in Solar Energy Storage.
Proceedings of International Structural Engineering and Construction, 7(1),
1-6.
http://dx.doi.org/10.14455/ISEC.res.2020.7(1).STR-44