Design and Optimisation of a Modular PV-CSP Hybrid Plant

This study investigates the design and optimisation of a hybrid plant comprising an array of 30 MWac PV-CSP modules. Each module integrates a PV system, a power tower CSP with thermal energy storage, and a gas-fired generator for backup power. This configuration aims to leverage the benefits of both PV and CSP technologies while addressing the challenges associated with large-scale CSP systems, such as high upfront costs and lengthy construction periods. A Python-based application was developed to optimise and simulate a modular PV-CSP hybrid plant. This application integrates existing software with custom computational and financial models to generate performance and economic metrics. These metrics were used to compare a single 120 MWac plant with a modular plant comprising 4 x 30 MWac modules that are constructed sequentially. The large-scale plant demonstrates better economic performance across all investigated metrics. The modular layout enables earlier revenue generation; however, it has a higher total installation cost than the large-scale plant. These findings highlight the possible economic advantages of constructing single large-scale systems rather than integrating several small-scale systems.

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Publication Details

Journal
SolarPACES Conference Proceedings
Published
2025-11-26
DOI
https://doi.org/10.52825/solarpaces.v3i.2428
Primary Topic
Solar Thermal and Photovoltaic Systems
Type
article
Field-Weighted Citation Impact
0.00

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article

Design and Optimisation of a Modular PV-CSP Hybrid Plant

Craig McGregor, Stephen Clark, Benjamin Gardiner
SolarPACES Conference Proceedings
Solar Thermal and Photovoltaic Systems
article

Design and Optimisation of a Modular PV-CSP Hybrid Plant

Craig McGregor, Stephen Clark, Benjamin Gardiner
article en

Abstract

This study investigates the design and optimisation of a hybrid plant comprising an array of 30 MWac PV-CSP modules. Each module integrates a PV system, a power tower CSP with thermal energy storage, and a gas-fired generator for backup power. This configuration aims to leverage the benefits of both PV and CSP technologies while addressing the challenges associated with large-scale CSP systems, such as high upfront costs and lengthy construction periods. A Python-based application was developed to optimise and simulate a modular PV-CSP hybrid plant. This application integrates existing software with custom computational and financial models to generate performance and economic metrics. These metrics were used to compare a single 120 MWac plant with a modular plant comprising 4 x 30 MWac modules that are constructed sequentially. The large-scale plant demonstrates better economic performance across all investigated metrics. The modular layout enables earlier revenue generation; however, it has a higher total installation cost than the large-scale plant. These findings highlight the possible economic advantages of constructing single large-scale systems rather than integrating several small-scale systems.

SolarPACES Conference ProceedingsVol. 3
Stellenbosch University (ZA)
Universiteit Stellenbosch
Openalex Percentile: Top 74%
Solar Thermal and Photovoltaic Systems
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Design and Optimisation of a Modular PV-CSP Hybrid Plant — Craig McGregor, Stephen Clark, et al. · SolarPACES Conference Proceedings (2025) | TGRS Research Map | TGRS