Agrivoltaic (APV) systems offer a promising approach to co-locating food and energy production; however, their effects on crop performance remain insufficiently quantified, particularly for shade-sensitive crops such as potato (Solanum tuberosum L.). This study reports a four-year field experiment (2021–2024) conducted in Northern Italy under a REM Tec Agrovoltaico® dual-axis sun-tracking APV system. The objective was to quantify potato yield response and tuber characteristics under contrasting array setups and associated shading patterns, including the adoption of an anti-tracking (AT) management strategy during critical growth stages. Experimental treatments included a full-light control (FL), standard sun-tracking (ST1), intensified shading (ST2), and a dynamic anti-tracking strategy applied during the tuber initiation phase in 2024 in combination with ST1 (ST1+AT). Yield response was strongly dependent on both shading intensity and timing. The standard sun-tracking configuration (ST1), characterized by a low mean seasonal shade depth (∼13 %), resulted in limited yield penalties (–12 % on average), whereas the higher-shade configuration (ST2) caused yield reductions exceeding 30 %. The AT management during early tuber development partially mitigated yield losses, indicating that dynamic light management can represent an effective strategy to balance agricultural productivity and energy generation in APV systems. Weibull-based modelling of tuber size distribution (TSD) revealed a consistent shift toward smaller tubers under increasing shade, while tuber dry matter content (DMC) remained relatively stable.

This study examines the current state and potential of renewable energy in Poland’s agricultural sector, focusing on bioenergy, agrivoltaics, and funding opportunities. While progress has been made toward EU targets, challenges like grid capacity and regulatory barriers remain. The findings underscore the sector’s role in advancing sustainable energy solutions, aligning with Value4Farm’s goals to promote circularity and innovation in agriculture.

This study presents a techno‑economic optimization framework for integrating agrivoltaic systems with anaerobic digestion to produce biomethane alongside food and clean energy. By comparing different agrivoltaic configurations with conventional energy systems, the research identifies solutions that maximize economic performance, reduce land use, and enhance renewable energy output. These insights align with Value4Farm’s goals of promoting efficient, multifunctional agricultural landscapes that combine sustainable energy, food production, and climate‑smart technologies.

This study explores how agrivoltaic systems, which combine solar panels with crop cultivation, affect microclimate, plant growth, and crop yield. Field experiments showed that panel arrangements can improve plant physiological traits and stabilize yields under dry conditions, highlighting the potential for climate-smart, resource-efficient farming. These findings support Value4Farm’s mission to promote innovative, sustainable solutions that enhance both food production and renewable energy use on European farms.