Open AccessAnalysis and optimization of concentrated solar power plant for application in arid climate
Author(s) -
Elbeh Mutaz B.,
Sleiti Ahmad K.
Publication year - 2021
Publication title -
energy science and engineering
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.638
H-Index - 29
ISSN - 2050-0505
DOI - 10.1002/ese3.742
Subject(s) - heliostat , concentrated solar power , environmental science , power station , solar energy , schedule , thermal energy storage , thermal power station , photovoltaic system , tower , meteorology , solar irradiance , arid , solar power , process engineering , engineering , power (physics) , computer science , waste management , civil engineering , electrical engineering , geography , paleontology , physics , quantum mechanics , biology , operating system , ecology
In this research study, the concentrated solar power (CSP) technology is reviewed for designing and optimizing a CSP tower plant for arid climate regions such as Qatar. A database for all CSP projects around the world is created, and a spreadsheet model for calculating the available solar irradiance is developed. Two software packages are used for analyzing and optimizing the entire solar thermal plant and its cost, SolarPILOT, and System Advisor Model (SAM). Both packages are validated using data from a recent power tower project. A thorough iterative optimization process was developed and applied to optimize the solar field parameters of a suggested CSP plant including tower optical height; heliostat structure width and height; number of heliostats; horizontal and vertical panels; receiver height and diameter; water consumption; cleaning schedule; maintenance; and total cost. The results confirmed the feasibility of a CSP plant on 0.45 km 2 of a solar field area with 2736 heliostats that produce 8 MW e with 10 hours of thermal storage and hybrid steam condensing system. It has been found that the highest production of the plant is in July, which is 3 621 950 kWh and the highest excess of electrical energy is in March, which is 2 946 965 kWh.