Abstract

The Agrophotovoltaic (APV) system is a novel concept in the field of Renewable Energy Systems. This system enables the generation of solar energy via photo-voltaic (PV) modules above crops, to mitigate harmful impact on food production. This study aims to develop a performance evaluation model for an APV system in a temperate climate region, such as South Korea. To this end, both traditional electricity generation models (solar radiation-based model and climate-based model) of PV modules and two major machine learning (ML) techniques (i.e., polynomial regression and deep learning) have been considered. Electricity generation data was collected via remote sensors installed in the APV system at Jeollanam-do Agricultural Research and Extension Services in South Korea. Moreover, economic analysis in terms of cost and benefit of the subject APV system was conducted to provide information about the return on investment to farmers and government agencies. As a result, farmers, agronomists, and agricultural engineers can easily estimate performance and profit of their APV systems via the proposed performance model.

Highlights

  • Solar energy generated by photovoltaic (PV) modules has received worldwide attention for decades

  • Electricity generation data was collected via remote sensors installed in the APV system at Jeollanam-do Agricultural Research and Extension Services in South Korea

  • This study has proposed a performance estimation model of the APV system involving solar energy generation and crop production

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Summary

Introduction

Solar energy generated by photovoltaic (PV) modules has received worldwide attention for decades. As most countries, including the U.S, Japan, China, and U.K., have tried to reduce greenhouse gas (GHG) emission, solar energy is becoming even more popular [1]. According to Pehl et al [2], solar energy generates 6 kg CO2 -e/MWh, which is a significantly less amount of carbon dioxide equivalent (CO2 -e) than existing energy sources, such as coal (109 kg CO2 -e/MWh) and natural gas (78 kg CO2 -e/MWh). The U.S tries to charge $0.025 per kg CO2 -e as GHG emissions [6]. The monetary support has made solar energy competitive, even though its profit is lower than from other existing energy sources

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