Tomi Medved

Dr. Tomi Medved


Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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2 March 2018 in Wires Energy and Environment
Verified
Journal Article
Closed access
PDF file
TMTomi Medved
Tomi Medved
GAGašper Artač
Gašper Artač
AGAndrej F. Gubina
Andrej F. Gubina

Verified
Conference Paper
Open access
PDF file
ACAlessandra Cuneo
Alessandra Cuneo
PQPierre-Jacques Le Quellec
Pierre-Jacques Le Quellec
TCTanguy Choné
Tanguy Choné
Gabriele ComodiGabriele Comodi
Gabriele Comodi
KVKaterina Valalaki
Katerina Valalaki
TMTomi Medved
Tomi Medved
This workshop brought together a selection of H2020 EU-funded projects to offer an overview of different tools used for the optimization of local energy networks and demonstrate how to facilitate grid interaction from the perspective of technology leaders representing four H2020 projects. This session offered a unique opportunity to discuss different approaches and compare the frameworks, practices, and tools used by different energy communities.

24 November 2025 in International Journal of Electrical Power & Energy Systems
Verified
Journal Article
Open access
CFChloé Fournely
Chloé Fournely
GVGregor Verbic
Gregor Verbic
AGAndrej Gubina
Andrej Gubina
TMTomi Medved
Tomi Medved

14 October 2025 in Glasnik zaštite bilja
Verified
Journal Article
Open access
PDF file
GBGermšek Blaž
Germšek Blaž
ŽMŽan Mongus
Žan Mongus
TPTomaž Poje
Tomaž Poje
TMTomi Medved
Tomi Medved
MPMatej Pečjak
Matej Pečjak
JZJernej Zupančić
Jernej Zupančić
Agrivoltaics (AV) represents a synergistic land-use strategy that combines solar energygeneration with high-value fruit production. As climate change intensifies heatwaves,droughts, and sunburn-related crop damage, AV offers a promising solution for improving the resilience and sustainability of perennial orchards. This review synthesizes datafrom experimental field trials, modeling studies, and analog shading systems, focusingon apples, pears, cherries, berries, kiwifruit, and olives. Studies were selected based onmethodological clarity and relevance to temperate and Mediterranean climates. Parameters such as panel geometry (height, tilt, ground coverage ratio), light transmittance,and microclimatic effects were compared across species. Findings indicate that properlydesigned AV systems can reduce fruit surface temperatures by up to 3.3 °C and decreasesunburn incidence by over 90%, especially in apples and pears. Berry crops displayedspecies-specific light tolerance, with strawberries and blueberries performing well undermoderate shading. In kiwifruit and olives, partial coverage (<30%) maintained yield while improving water efficiency. Integrating lightweight AV modules into existing orchardstructures proved technically feasible for cherries. Despite promising agronomic andenergy outcomes, large-scale adoption of AV remains constrained by policy, legal, andfinancial barriers. Strategic support is needed to align AV deployment with climate andenergy goals. In conclusion, AV offers a multifunctional approach to land use that enhances farm resilience, enables dual revenue streams, and supports EU decarbonizationstrategies particularly in permanent fruit cropping systems.