Optical study of a cocktail structural Space-based Solar Power Station

•This work firstly presents the design details and optimization of cocktail SPS-ALPHA.•Cosine effect and blocking shadow effect make the optical efficiency unstable.•The solving procedure involves source-target mapping and ACO feedback modifications.•The optimal receiving energy achieves apparent im...

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Veröffentlicht in:Solar energy 2019-12, Vol.194, p.156-166
Hauptverfasser: Meng, Xianlong, Liu, Cunliang, Bai, Xiaohui, Du, Kun, López, Carlos Felipe Aristizábal, Mankins, John C., Baig, Hasan, Mallick, Tapas K.
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container_end_page 166
container_issue
container_start_page 156
container_title Solar energy
container_volume 194
creator Meng, Xianlong
Liu, Cunliang
Bai, Xiaohui
Du, Kun
López, Carlos Felipe Aristizábal
Mankins, John C.
Baig, Hasan
Mallick, Tapas K.
description •This work firstly presents the design details and optimization of cocktail SPS-ALPHA.•Cosine effect and blocking shadow effect make the optical efficiency unstable.•The solving procedure involves source-target mapping and ACO feedback modifications.•The optimal receiving energy achieves apparent improvement and similar distribution.•The article can provide basic data and reference for engineering constructions of SPS. SPS-ALPHA as the most innovative and practical concept of Solar Power Satellite (SPS), has been widely concerned in the world. It adopts axisymmetric sigmoid curve-based/cocktail shape as the entire structure composed by several thousands of hexagonal “Reflectors and Deployment Modules” (RDM) that enables extremely high modularity and low cost of machining/space transport. SPS-ALPHA system, on the whole, can be treated as a dense array concentrated photovoltaic (DA-CPV) system. The blocking shadow effect and cosine effect of ray path exist that make the optical efficiency fluctuate with different tracking angles, resulting the trade-off exists between optical efficiency and irradiance uniformity. The current study aims to find the optimal design parameters of RDM when high optical efficiencies and stable irradiance distribution are both achieved for effective PV layout design. To meet this target, Ant Colony Optimization (ACO) algorithm combined with dynamic source-target mapping was adopted to find suitable aiming vectors of modular reflectors. The optical transmission characteristics under different incident degrees were investigated using a two-step Monte-Carlo ray tracing (MCRT) method. Afterwards the optimized results and sensitivity analysis for RDM would be undertook. The article can provide basic data and reference for engineering constructions of SPS-ALPHA in next step.
doi_str_mv 10.1016/j.solener.2019.10.053
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SPS-ALPHA as the most innovative and practical concept of Solar Power Satellite (SPS), has been widely concerned in the world. It adopts axisymmetric sigmoid curve-based/cocktail shape as the entire structure composed by several thousands of hexagonal “Reflectors and Deployment Modules” (RDM) that enables extremely high modularity and low cost of machining/space transport. SPS-ALPHA system, on the whole, can be treated as a dense array concentrated photovoltaic (DA-CPV) system. The blocking shadow effect and cosine effect of ray path exist that make the optical efficiency fluctuate with different tracking angles, resulting the trade-off exists between optical efficiency and irradiance uniformity. The current study aims to find the optimal design parameters of RDM when high optical efficiencies and stable irradiance distribution are both achieved for effective PV layout design. To meet this target, Ant Colony Optimization (ACO) algorithm combined with dynamic source-target mapping was adopted to find suitable aiming vectors of modular reflectors. The optical transmission characteristics under different incident degrees were investigated using a two-step Monte-Carlo ray tracing (MCRT) method. Afterwards the optimized results and sensitivity analysis for RDM would be undertook. 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SPS-ALPHA as the most innovative and practical concept of Solar Power Satellite (SPS), has been widely concerned in the world. It adopts axisymmetric sigmoid curve-based/cocktail shape as the entire structure composed by several thousands of hexagonal “Reflectors and Deployment Modules” (RDM) that enables extremely high modularity and low cost of machining/space transport. SPS-ALPHA system, on the whole, can be treated as a dense array concentrated photovoltaic (DA-CPV) system. The blocking shadow effect and cosine effect of ray path exist that make the optical efficiency fluctuate with different tracking angles, resulting the trade-off exists between optical efficiency and irradiance uniformity. The current study aims to find the optimal design parameters of RDM when high optical efficiencies and stable irradiance distribution are both achieved for effective PV layout design. To meet this target, Ant Colony Optimization (ACO) algorithm combined with dynamic source-target mapping was adopted to find suitable aiming vectors of modular reflectors. The optical transmission characteristics under different incident degrees were investigated using a two-step Monte-Carlo ray tracing (MCRT) method. Afterwards the optimized results and sensitivity analysis for RDM would be undertook. 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subjects Algorithms
Ant colony optimization
Blocking shadow effect
Cosine effect
Design parameters
Irradiance
Machining
Mapping
Mathematical analysis
Modularity
Monte Carlo simulation
Photovoltaic cells
Photovoltaics
Power plants
Ray tracing
Reflectors
Sensitivity analysis
Solar energy
Solar power
Solar power satellites
Space solar power
SPS-ALPHA
Vectors
title Optical study of a cocktail structural Space-based Solar Power Station
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