Economic evaluation of one-axis, vertical, and elevated agrivoltaic systems across Europe: a Monte Carlo Analysis

Energy conversion from conventional ground-mounted photovoltaic systems requires a significant amount of land, which can compete with food production. Agrivoltaic systems, which integrate electricity generation and crop production, can help reduce this land competition. The profitability of agrivoltaic systems is expected to be a crucial factor for decision-makers and stakeholders considering their adoption. This work aims to analyze the economic performance of one-axis, vertical and elevated agrivoltaic systems compared to conventional ground-mounted photovoltaic systems across Europe focusing on countries such as Sweden, Denmark, Germany and Italy. By employing a stochastic approach with Monte Carlo simulations, this research makes a significant contribution to forecasting the profitability and cost-effectiveness of agrivoltaic projects in European countries for the next years. Moreover, it identifies the key parameters that significantly impact the net present value and levelized cost of electricity. The economic findings reveal a notable trend: agrivoltaic projects (i.e., one-axis, vertical, and elevated) are likely to be profitable throughout Europe. However, the agricultural profit generated from these systems is minimal for the investigated crop rotations compared to the benefits derived from energy conversion. Among the systems evaluated, one-axis agrivoltaic setups demonstrate higher profitability and cost-effectiveness compared to vertical and elevated setups. They also have a shorter discounted payback period and a lower levelized cost of electricity than conventional ground-mounted photovoltaic systems. These findings are particularly significant for decision-makers and stakeholders involved in developing agrivoltaic policies. This is especially relevant for Sweden which currently lacks agrivoltaic policies, regulations, and definitions, in contrast to Germany and Italy where policies for promoting agrivoltaics have previously been implemented or are in progress. • APV systems economic feasibility is investigated across Europe using a Monte Carlo Analysis approach. • NPV is mostly positive across Europe for one-axis, vertical, and elevated APVs. • LCOE for one-axis APVs is 20–25 % less than vertical and 30 % less than elevated APVs. • Vertical APV systems perform better in Northern Europe, while elevated APV systems are more effective in Southern Europe.

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Publication Details

Journal
Applied Energy
Published
2025-04-19
DOI
https://doi.org/10.1016/j.apenergy.2025.125826
Citations
15
Primary Topic
Photovoltaic Systems and Sustainability
Type
article
Field-Weighted Citation Impact
11.99
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article

Economic evaluation of one-axis, vertical, and elevated agrivoltaic systems across Europe: a Monte Carlo Analysis

Mohammed Guezgouz, Pietro Elia Campana, Tekai Eddine Khalil Zidane, Silvia Ma Lu et al.
15 citations
Applied Energy
Photovoltaic Systems and Sustainability
11.99
article

Economic evaluation of one-axis, vertical, and elevated agrivoltaic systems across Europe: a Monte Carlo Analysis

Mohammed Guezgouz, Pietro Elia Campana, Tekai Eddine Khalil Zidane, Silvia Ma Lu, Stefano Amaducci, Abbas Khosravi, Sebastian Zainali, Yuri Bellone, Sultan Tekie
article en
15 citations

Abstract

Energy conversion from conventional ground-mounted photovoltaic systems requires a significant amount of land, which can compete with food production. Agrivoltaic systems, which integrate electricity generation and crop production, can help reduce this land competition. The profitability of agrivoltaic systems is expected to be a crucial factor for decision-makers and stakeholders considering their adoption. This work aims to analyze the economic performance of one-axis, vertical and elevated agrivoltaic systems compared to conventional ground-mounted photovoltaic systems across Europe focusing on countries such as Sweden, Denmark, Germany and Italy. By employing a stochastic approach with Monte Carlo simulations, this research makes a significant contribution to forecasting the profitability and cost-effectiveness of agrivoltaic projects in European countries for the next years. Moreover, it identifies the key parameters that significantly impact the net present value and levelized cost of electricity. The economic findings reveal a notable trend: agrivoltaic projects (i.e., one-axis, vertical, and elevated) are likely to be profitable throughout Europe. However, the agricultural profit generated from these systems is minimal for the investigated crop rotations compared to the benefits derived from energy conversion. Among the systems evaluated, one-axis agrivoltaic setups demonstrate higher profitability and cost-effectiveness compared to vertical and elevated setups. They also have a shorter discounted payback period and a lower levelized cost of electricity than conventional ground-mounted photovoltaic systems. These findings are particularly significant for decision-makers and stakeholders involved in developing agrivoltaic policies. This is especially relevant for Sweden which currently lacks agrivoltaic policies, regulations, and definitions, in contrast to Germany and Italy where policies for promoting agrivoltaics have previously been implemented or are in progress. • APV systems economic feasibility is investigated across Europe using a Monte Carlo Analysis approach. • NPV is mostly positive across Europe for one-axis, vertical, and elevated APVs. • LCOE for one-axis APVs is 20–25 % less than vertical and 30 % less than elevated APVs. • Vertical APV systems perform better in Northern Europe, while elevated APV systems are more effective in Southern Europe.

Applied EnergyVol. 391
Università Cattolica del Sacro Cuore (IT), Mälardalen University (SE)
Openalex Percentile: Top 1%
Photovoltaic Systems and Sustainability
11.99
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