Assessment of Malaysia's Large-Scale Solar Projects: Power System Analysis for Solar PV Grid Integration

Rehan Khan, YunIi Go

Research output: Contribution to journalArticle

Abstract

Malaysia targets to become the second-largest producer of solar photovoltaic (PV) in the world by increasing the current output from 12% to 20% in 2020. The government also expects to achieve 45% reduction of greenhouse gas emission by 2030 through renewable energy mainly by solar PV. Large-scale solar (LSS) aims to produce 2.5 GW, which contributes to 10% of the nation's electricity demands. The LSS system is held back by the grid-scale integration, transmission, and distribution infrastructure. Thus, power system analysis is crucial to achieve optimization in LSS to power grid integration. This paper investigates various power system analysis models and recommends an optimized configuration based on Malaysia's LSS scenario. In stage 1, an optimal PV sizing is carried out based on real data of LSS installation in different locations. In stage 2, power analysis is carried out using to analyze the potential difference variation when connected to a nine-bus power system. The potential variation at each bus of the system is assessed and hence provides a feasibility statement on the most effective configurations for LSS-grid integration. This paper serves as the reference model for LSS-grid integration in Malaysia and is expected to be replicated in the other countries with similar conditions.

Original languageEnglish
Article number1900060
JournalGlobal Challenges
Volume4
Issue number2
Early online date28 Nov 2019
DOIs
Publication statusPublished - Feb 2020

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Solar Energy
Malaysia
Systems Analysis
Motor Vehicles
Renewable Energy
Electricity
Solar System
Gases

Cite this

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title = "Assessment of Malaysia's Large-Scale Solar Projects: Power System Analysis for Solar PV Grid Integration",
abstract = "Malaysia targets to become the second-largest producer of solar photovoltaic (PV) in the world by increasing the current output from 12{\%} to 20{\%} in 2020. The government also expects to achieve 45{\%} reduction of greenhouse gas emission by 2030 through renewable energy mainly by solar PV. Large-scale solar (LSS) aims to produce 2.5 GW, which contributes to 10{\%} of the nation's electricity demands. The LSS system is held back by the grid-scale integration, transmission, and distribution infrastructure. Thus, power system analysis is crucial to achieve optimization in LSS to power grid integration. This paper investigates various power system analysis models and recommends an optimized configuration based on Malaysia's LSS scenario. In stage 1, an optimal PV sizing is carried out based on real data of LSS installation in different locations. In stage 2, power analysis is carried out using to analyze the potential difference variation when connected to a nine-bus power system. The potential variation at each bus of the system is assessed and hence provides a feasibility statement on the most effective configurations for LSS-grid integration. This paper serves as the reference model for LSS-grid integration in Malaysia and is expected to be replicated in the other countries with similar conditions.",
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Assessment of Malaysia's Large-Scale Solar Projects : Power System Analysis for Solar PV Grid Integration. / Khan, Rehan; Go, YunIi.

In: Global Challenges, Vol. 4, No. 2, 1900060, 02.2020.

Research output: Contribution to journalArticle

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T1 - Assessment of Malaysia's Large-Scale Solar Projects

T2 - Power System Analysis for Solar PV Grid Integration

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AU - Go, YunIi

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AB - Malaysia targets to become the second-largest producer of solar photovoltaic (PV) in the world by increasing the current output from 12% to 20% in 2020. The government also expects to achieve 45% reduction of greenhouse gas emission by 2030 through renewable energy mainly by solar PV. Large-scale solar (LSS) aims to produce 2.5 GW, which contributes to 10% of the nation's electricity demands. The LSS system is held back by the grid-scale integration, transmission, and distribution infrastructure. Thus, power system analysis is crucial to achieve optimization in LSS to power grid integration. This paper investigates various power system analysis models and recommends an optimized configuration based on Malaysia's LSS scenario. In stage 1, an optimal PV sizing is carried out based on real data of LSS installation in different locations. In stage 2, power analysis is carried out using to analyze the potential difference variation when connected to a nine-bus power system. The potential variation at each bus of the system is assessed and hence provides a feasibility statement on the most effective configurations for LSS-grid integration. This paper serves as the reference model for LSS-grid integration in Malaysia and is expected to be replicated in the other countries with similar conditions.

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