Feasibility Study on HYSOL CSP
Author(s) -
Lars Henrik Nielsen,
Klaus Skytte,
Cristian Hernán Cabrera Pérez,
Eduardo Cerrajero García,
Diego Lopez Barrio,
Lucía González Cuadrado,
Alberto R. Rocha
Publication year - 2016
Publication title -
procedia computer science
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.334
H-Index - 76
ISSN - 1877-0509
DOI - 10.1016/j.procs.2016.04.238
Subject(s) - renewable energy , process engineering , dispatchable generation , parabolic trough , combined cycle , concentrated solar power , computer science , electricity generation , environmental science , solar power , electricity , solar energy , thermal energy storage , distributed generation , mechanical engineering , power (physics) , turbine , electrical engineering , engineering , physics , quantum mechanics , ecology , biology
Concentrating Solar Power (CSP) plants utilize thermal conversion of direct solar irradiation. A trough or tower configuration focuses solar radiation and heats up oil or molten salt that subsequently in high temperature heat exchangers generate steam for power generation. High temperature molten salt can be stored and the stored heat can thus increase the load factor and the usability for a CSP plant, e.g. to cover evening peak demand. In the HYSOL concept (HYbrid SOLar) such configuration is extended further to include a gas turbine fuelled by upgraded biogas or natural gas. The optimised integrated HYSOL concept, therefore, becomes a fully dispatchable (offering firm power) and fully renewable energy source (RES) based power supply alternative, offering CO2-free electricity in regions with sufficient solar resources.The economic feasibility of HYSOL configurations is addressed in this paper. The CO2 free HYSOL alternative is discussed relative to conventional reference firm power generation technologies. In particular the HYSOL performance relative to new power plants based on natural gas (NG) such as open cycle or combined cycle gas turbines (OCGT or CCGT) are in focus. The feasibility of renewable based HYSOL power plant configurations attuned to specific electricity consumption patterns in selected regions with promising solar energy potentials are discusse
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