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April 17, 2026Energy and AI2 citationsOpen Access

Data-driven landscape scenicness mapping for continental-scale onshore wind resource assessment

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RCRuihong CHENTPTristan PelserALAlena Lohrmann

Key Points

  • This research aims to assess the impact of landscape scenicness on onshore wind resource availability in Europe using a machine learning model.
  • Developed a machine learning model to classify scenicness across Europe.
  • Trained the model on crowdsourced scenicness ratings from Great Britain.
  • Integrated scenicness maps into continental-scale wind resource assessment under various preservation scenarios.
  • High accuracy achieved in classifying scenicness across 29 European countries.
  • Prioritizing scenic landscapes can reduce wind generation potential in certain countries by over 60%.
  • Landscape preservation has a minor impact on the continental median levelized costs of electricity, with slight variations regionally.

Abstract

• A machine learning model classifies European scenicness with a high accuracy • Land cover category and naturalness are the most important predictors • Scenic-area preservation cuts technical potential by 43% with minor cost impact • Stricter landscape preservation shifts Europe’s main onshore wind producers Visual impacts on scenic landscapes dominate public opposition to onshore wind turbines. Yet wind resource assessments often overlook landscape scenicness due to limited data availability. This study introduces a scalable machine learning framework for generating continental scenicness layers, trained on crowdsourced scenicness ratings from Great Britain and achieving high predictive performance. The resulting scenicness maps are integrated into an onshore wind resource assessment under three landscape preservation scenarios across 29 European countries. We show that prioritizing scenic landscapes in planning can reduce wind generation potential in certain countries by over 60%. However, it only modestly affects the continental median levelized costs of electricity (57 €/MWh and 54 €/MWh under low and high preservation scenarios), while substantially increasing regional costs in scenic mountainous regions such as the Alps and Norway. These findings demonstrate how data-driven approaches can enable socially aware and large-scale energy system planning.

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Cite This Study

CHEN et al. (2026) studied this question.

synapsesocial.com/papers/69e1cdc45cdc762e9d857045https://doi.org/10.1016/j.egyai.2026.100752
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1GIS-based landscape scenicness estimation using machine learning for visual impact assessment of wind projects deployment in Europe2024
  2. 2Visual Assessment of Wind Turbine Impacts on Rural Landscapes in Poland: A Model-Based SBE Study Considering Distance from Residential Areas2026 · 1 citations
  3. 3Minimizing visual impacts of renewable energy technologies and its implications for potential, costs, and energy transformation pathways: A nationwide study on Germany2024
  4. 4Headwind in sight? Wind turbine visibility spillovers and support for renewable energy policy2026
  5. 5A GIS-Based Framework for Evaluating Technical and Economic Prospects of Onshore Wind Energy: Case Study of Poland2025