Dynamic operating behavior of a solar hybrid microturbine system: A comparative study of serial and parallel configurations

The paper aims to investigate the system behavior of a solar hybrid microturbine through dynamic simulation, relying on experimental data from existing literature. The focus of this evaluation is on assessing the systems response to changes in solar heat flow from the solar receiver to simulate dyna...

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Published inEnergy (Oxford) Vol. 309; p. 133058
Main Authors Arifin, Maulana, Fudholi, Ahmad, Wahono, Bambang, Schatz, Markus, Vogt, Damian M.
Format Journal Article
LanguageEnglish
Published Elsevier Ltd 15.11.2024
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Abstract The paper aims to investigate the system behavior of a solar hybrid microturbine through dynamic simulation, relying on experimental data from existing literature. The focus of this evaluation is on assessing the systems response to changes in solar heat flow from the solar receiver to simulate dynamic operation. By evaluating various simulated operational scenarios, the systems performance was assessed by comparing the minimum, average, and maximum solar heat flow from the solar receiver during regular operation. The main objective of these evaluations is to determine the optimal configuration to ensure safe and efficient system operation. The study shows that the parallel configuration outperforms the serial configuration. Specifically, the parallel configuration achieves a peak thermal efficiency of 37%, while the serial configuration reaches 33%. Additionally, the fuel conversion rate for both configurations rises to over 90% at maximum Direct Normal Irradiance (DNI) and decreases to below 40% at minimum DNI. This studies provide valuable insights into the dynamic behavior and performance of the solar hybrid microturbine system, guiding the selection of the most suitable configuration for optimized operational outcomes. Moreover, the study underscores the importance of dynamic analysis in ensuring efficient and reliable power generation. •A comparison of dynamic operating behavior has been conducted for solar hybrid microturbine.•The impact of serial versus parallel configurations on system performance have been demonstrated.•The performance of the solar hybrid microturbine system has been evaluated under various DNI conditions.
AbstractList The paper aims to investigate the system behavior of a solar hybrid microturbine through dynamic simulation, relying on experimental data from existing literature. The focus of this evaluation is on assessing the systems response to changes in solar heat flow from the solar receiver to simulate dynamic operation. By evaluating various simulated operational scenarios, the systems performance was assessed by comparing the minimum, average, and maximum solar heat flow from the solar receiver during regular operation. The main objective of these evaluations is to determine the optimal configuration to ensure safe and efficient system operation. The study shows that the parallel configuration outperforms the serial configuration. Specifically, the parallel configuration achieves a peak thermal efficiency of 37%, while the serial configuration reaches 33%. Additionally, the fuel conversion rate for both configurations rises to over 90% at maximum Direct Normal Irradiance (DNI) and decreases to below 40% at minimum DNI. This studies provide valuable insights into the dynamic behavior and performance of the solar hybrid microturbine system, guiding the selection of the most suitable configuration for optimized operational outcomes. Moreover, the study underscores the importance of dynamic analysis in ensuring efficient and reliable power generation. •A comparison of dynamic operating behavior has been conducted for solar hybrid microturbine.•The impact of serial versus parallel configurations on system performance have been demonstrated.•The performance of the solar hybrid microturbine system has been evaluated under various DNI conditions.
ArticleNumber 133058
Author Wahono, Bambang
Vogt, Damian M.
Schatz, Markus
Fudholi, Ahmad
Arifin, Maulana
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Keywords Concentrated solar power
Dynamic model
Parallel solar
Microturbine
Serial solar microturbine
Solar energy
Language English
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Snippet The paper aims to investigate the system behavior of a solar hybrid microturbine through dynamic simulation, relying on experimental data from existing...
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StartPage 133058
SubjectTerms Concentrated solar power
Dynamic model
Microturbine
Parallel solar
Serial solar microturbine
Solar energy
Title Dynamic operating behavior of a solar hybrid microturbine system: A comparative study of serial and parallel configurations
URI https://dx.doi.org/10.1016/j.energy.2024.133058
Volume 309
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