DocumentCode :
2904586
Title :
Performance analysis and economic evaluation of a solar power tower in Algeria
Author :
Boudaoud, S. ; Khellaf, Abdallah ; Mohammedi, Kamel
Author_Institution :
Lab. de Modelisation et Simulation en Mec., Univ. M´hamed Bougara Boumerdes (UMBB), Boumerdes, Algeria
fYear :
2013
fDate :
2-4 Oct. 2013
Firstpage :
1
Lastpage :
6
Abstract :
In the context of the deployment and implementation of grid connected concentrated solar power plants which are in still progress in MENA regions, the different authority of this country like Algeria gives suitable environment for the promotion and the diversification of energy sources to produce electricity. The energy policy and legal framework are the main incentive trials to support that future environmental friendly assignment, thus in this work, a thermal performance analysis coupled to economic reliability were elaborated using SAM advisor software as a preliminary results in order to investigate whether the installation of high concentrated central receiver solar power plant in different regions (coastal, highland and Sahara) is feasible. We have carried out a method to optimize the Solar Multiple (SM) to get a trade-off between the incremental investment cost related to the heliostat field size and the Thermal Energy Storage (TES) required, yielding a minimum Levelized Electricity Cost (LEC) in DZA/kWhe and allow higher Capacity Factors (CF) for dispatchability of the generated electricity within critical hours in the day. This study presents also the optimization process to build some design parameter like receiver working temperature with molten salt as Heat Transfer Fluid (HTF) medium and thus perform the allowable flux density admitted by the receiver cavity from a given size of heliostat field. Finally, the electricity unit cost, the Net Present Value (NPV) and the internal rate of return variants depending on the region are calculated. The results indicate that for optimal working parameters and a given size of the solar field, highland and Sahara regions are the suitable regions for grid integration and and economic competitiveness of the central receiver power tower plant.
Keywords :
energy resources; government policies; heat transfer; investment; optimisation; poles and towers; power generation economics; power transmission economics; solar power stations; thermal energy storage; CF; HTF medium; LEC; MEN regions; NPV; SAM advisor software; SM; Sahara regions; TES; capacity factors; central receiver power tower plant; economic reliability; electricity unit cost; energy policy; energy sources; environmental friendly assignment; flux density; grid connected concentrated solar power plants; grid integration; heat transfer fluid medium; heliostat field size; high concentrated central receiver; highland regions; incentive trials; incremental investment cost; internal rate; legal framework; levelized electricity cost; molten salt; net present value; optimal working parameters; optimization process; receiver cavity; return variants; solar multiple; solar power tower; thermal energy storage; thermal performance analysis; Azimuth; Economics; Electric potential; Thermal analysis; Capacity Factors; Energy policy; Levelized Electricity Cost; Net Present Value; Solar Multiple; Thermal Energy Storage; economic reliability;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Electric Power and Energy Conversion Systems (EPECS), 2013 3rd International Conference on
Conference_Location :
Istanbul
Print_ISBN :
978-1-4799-0687-1
Type :
conf
DOI :
10.1109/EPECS.2013.6712998
Filename :
6712998
Link To Document :
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