A new framework for cost-effective design of Hybrid Power Systems

A new framework for cost-effective design of Hybrid Power Systems

WoS Article

Development of Power Pinch Analysis (PoPA) for the design and optimisation of Hybrid Power Systems (HPS) is steadily progressing. Even though PoPA has been developed for a wide range of applications in HPS design and analysis, the economic aspect still needs more attention. Screening of various renewable energy (RE) technologies in HPS is crucial as different technologies may have different cost and efficiencies, and affect the overall system economics. This work presents a novel framework for the design of a cost-effective HPS by incorporating PoPA with a cost-screening tool known as the Systematic Hierarchical Approach for Resilient Process Screening (SHARPS). SHARPS, which was originally developed to screen various process changes options in water networks is adapted to perform economic analysis and RE technology screening in power networks. Two strategies namely substitution and intensification have been proposed, in order to customise a cost-effective HPS. The presented framework provides a handy and effective measure to visualise the trade-off between the performance and cost of various potential RE technologies for HPS. Application of the framework on a case study demonstrates that the HPS design has been successfully customised with the RE technology scheme and capacity acceptable to the owner, while meeting its targeted payback period of 10 y.

Development of Power Pinch Analysis (PoPA) for the design and optimisation of Hybrid Power Systems (HPS) is steadily progressing. Even though PoPA has been developed for a wide range of applications in HPS design and analysis, the economic aspect still needs more attention. Screening of various renewable energy (RE) technologies in HPS is crucial as different technologies may have different cost and efficiencies, and affect the overall system economics. This work presents a novel framework for the design of a cost-effective HPS by incorporating PoPA with a cost-screening tool known as the Systematic Hierarchical Approach for Resilient Process Screening (SHARPS). SHARPS, which was originally developed to screen various process changes options in water networks is adapted to perform economic analysis and RE technology screening in power networks. Two strategies namely substitution and intensification have been proposed, in order to customise a cost-effective HPS. The presented framework provides a handy and effective measure to visualise the trade-off between the performance and cost of various potential RE technologies for HPS. Application of the framework on a case study demonstrates that the HPS design has been successfully customised with the RE technology scheme and capacity acceptable to the owner, while meeting its targeted payback period of 10 y.

Cost-effective; Hybrid Power Systems (HPS); Power Pinch Analysis (PoPA); Renewable energy (RE); Systematic Hierarchical Approach for Resilient Process Screening (SHARPS); Cost effectiveness; Costs; Economic analysis; Economic and social effects; Electric network analysis; Hierarchical systems; Investments; Network function virtualization; Renewable energy resources; Cost effective; Hierarchical approach; Hybrid power systems (HPS); Pinch analysis; Renewable energies; Cost benefit analysis;

Cost-effective; Hybrid Power Systems (HPS); Power Pinch Analysis (PoPA); Renewable energy (RE); Systematic Hierarchical Approach for Resilient Process Screening (SHARPS); Cost effectiveness; Costs; Economic analysis; Economic and social effects; Electric network analysis; Hierarchical systems; Investments; Network function virtualization; Renewable energy resources; Cost effective; Hierarchical approach; Hybrid power systems (HPS); Pinch analysis; Renewable energies; Cost benefit analysis;

Rozali, N.E.M.; Wan Alwi, S. R.; Ho, W.S.; Manan, Z.A.; Klemeš, J.J.; Mustapha, N.N.; Rosli, M.H.

2018

10.11.2017

Elsevier Ltd

0959-6526

Journal of Cleaner Production

166

United States of America

806

815

10