Robust allocation of residential solar photovoltaic systems paired with battery units in South Australia

Date

2019

Authors

Aghamohamadi, M.
Mahmoudi, A.
Haque, M.H.

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Conference paper

Citation

2019 IEEE Energy Conversion Congress and Exposition (ECCE) proceedings, 2019, pp.6673-6679

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2019 IEEE Energy Conversion Congress and Exposition (ECCE) (29 Sep 2019 - 3 Oct 2019 : Baltimore, MD, USA)

Abstract

A huge portion of solar photovoltaic (PV) systems is installed in residential sector, recently. Considering the uncertain nature of PV generation, battery units are coupled with these systems to provide a better performance when trading power with upstream network. Although, pairing PVs with battery units (PV-battery) provides a promising operation, the uncertainties of load and solar radiation poses a noticeable effect on optimal sizing of such systems. Therefore, an appropriate characterization of these uncertainties is essential when sizing residential PV-battery systems. This can assist decision makers to 1) optimally design their system from both economical and operational perspectives, and 2) avoid non-optimal sizing decisions, regarding the huge investment costs of these systems. This study presents a robust optimization (RO) approach for sizing residential PV-battery systems, characterizing the uncertainties of load and solar radiation. The proposed model determines the optimal capacity of a residential PV-battery system while minimizing its operation costs considering the uncertain parameters' variations. The RO model is developed as a max-min optimization problem. According to the obtained results, the proposed robust model gives a greater sizing solution (50% increase in PV capacity), which is more reliable when the uncertain parameters deviate from the forecasted values.

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Copyright 2019 IEEE Access Condition Notes: Accepted manuscript available on Open Access

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