PLANtoACT Task 2.1: Hourly profiles - Heating and cooling demand
PLANtoACT タスク2.1:時間別プロファイル - 冷暖房需要 (AI 翻訳)
Prina, Matteo Giacomo
🤖 gxceed AI 要約
日本語
欧州5地域の正規化された時間別冷暖房需要プロファイルを提供するデータセット。Renewables.ninjaとdemand_ninjaモデルを用いて生成され、エネルギーシステムモデリングや再生可能エネルギー評価に利用可能。
English
This dataset provides normalized hourly heating and cooling demand profiles for five European pilot regions, generated using the Renewables.ninja API and demand_ninja model. It is intended for energy system modeling, renewable energy assessment, and regional energy planning.
Unofficial AI-generated summary based on the public title and abstract. Not an official translation.
📝 gxceed 編集解説 — Why this matters
日本のGX文脈において
日本では、地域冷暖房や建物の脱炭素化に向けた需要プロファイルの整備が進んでおり、本データセットの手法は日本の地域エネルギー計画にも応用可能。
In the global GX context
This dataset supports European energy planning and sector coupling, aligning with global efforts to integrate renewable energy and decarbonize heating and cooling. It provides a replicable methodology for regional demand profiling.
👥 読者別の含意
🔬研究者:エネルギーシステムモデリングや需要予測の研究者は、地域冷暖房需要プロファイルの生成手法を参考にできる。
🏢実務担当者:地域エネルギー計画や再生可能エネルギー導入を検討する実務者は、需要プロファイルを活用してシステム設計に役立てられる。
🏛政策担当者:地域のエネルギー計画や脱炭素政策を担当する政策立案者は、需要データに基づく計画策定の参考にできる。
📄 Abstract(原文)
Regional Heating and Cooling Demand Profiles for the PLANtoACT Project This dataset contains normalized hourly heating and cooling demand profiles developed for the PLANtoACT project (Task 2.2). The profiles represent the long-term building heating and cooling demand behaviour of five European pilot regions and are intended for use in energy system modelling, renewable energy assessment, and regional energy planning. The dataset was generated using the Renewables.ninja weather API together with the demand_ninja building energy demand model and regional administrative boundaries. Hourly weather data (temperature, global horizontal radiation, humidity, wind speed) were downloaded for MERRA-2 grid points located within each region, converted into hourly heating and cooling demand, averaged into a representative regional profile, and normalized while preserving the long-term degree-hour equivalent — the demand-side analogue of the equivalent full-load hours used for the wind, solar, and hydro generation profiles. The dataset accompanies the scripts available in the corresponding GitLab repository. Study Regions The dataset contains heating and cooling demand profiles for the following regions: Country Region Italy Lombardia Romania Alba Germany Oberland France Auvergne-Rhône-Alpes Portugal Porto Metropolitan Area Dataset Structure Each regional folder contains: File Description dh_by_year_heating.csv / dh_by_year_cooling.csv Annual degree-hour integrals per grid point and regional average, for each simulated year profile_aggregated_heating.csv / profile_aggregated_cooling.csv 5-year aggregated normalized regional profile, before correction profile_final_heating_8784h.csv / .txt Final normalized hourly heating demand profile (leap-year, 8784 h) profile_final_cooling_8784h.csv / .txt Final normalized hourly cooling demand profile (leap-year, 8784 h) dh_comparison_heating.png / dh_comparison_cooling.png Comparison of annual degree-hour integrals against the 5-year average profile_final_heating_plot.png / profile_final_cooling_plot.png Visualization of the final normalized profile (full year + representative weeks) grid_map.png Map of the MERRA-2 grid points used for the regional average raw/weather_lon+X_lat+Y_YYYY.csv Raw MERRA-2 weather data per grid point and year raw/demand_lon+X_lat+Y_YYYY.csv Computed hourly heating/cooling demand per grid point and year raw/demand_lon+X_lat+Y_allyears.csv Per-point multi-year heating and cooling demand summary The dataset also includes, at the top level: Shapefiles/ , the regional administrative boundary polygons used to select the MERRA-2 grid points for each study region; Normalized_Profiles_heating_2024.png and Normalized_Profiles_cooling_2024.png , which compare the normalized heating and cooling demand profiles across all study regions. Data Generation Methodology The regional heating and cooling demand profiles were generated according to the following workflow: Regional administrative boundaries were provided as GIS shapefiles. MERRA-2 grid points (0.625° × 0.5° resolution, the same spatial grid used for the wind profiles) falling within each regional polygon were identified, with farthest-point sampling applied if a region contained more points than a configurable maximum. Hourly weather variables (temperature, global horizontal radiation, humidity, wind speed) were downloaded from the Renewables.ninja weather API for each selected grid point, over a five-year period (2020–2024). Hourly heating and cooling demand were computed from the weather variables using the demand_ninja building energy demand model, based on a BAIT (building-adjusted internal temperature) approach with heating and cooling thresholds of 14 °C and 20 °C respectively. Per-point demand series were averaged across all selected grid points to produce a representative regional profile, separately for heating and cooling. Annual degree-hour integrals (the sum of hourly demand values, analogous to equivalent full-load hours for generation profiles) were calculated for each grid point and for the regional average, for every simulated year. The 5-year aggregated regional profile was normalized using its own observed maximum. A non-linear correction factor was applied to the most recent year to preserve the 5-year average degree-hour integral while maintaining the hourly and seasonal variability of that year. Final normalized hourly profiles were exported for a leap-year (8784-hour) calendar. Data Format The profile files contain a single column: Column Description normalised Hourly normalized heating or cooling demand (dimensionless, ranging from 0 to 1) Each row represents one hour of the year. The absolute demand can be reconstructed by multiplying the normalized profile by the corresponding regional degree-hour integral reported in dh_by_year_heating.csv / dh_by_year_cooling.csv . Intended Applications The dataset is intended for: Energy system modelling Renewable energy scenario analysis Regional energy planning Capacity expansion modelling Long-term electricity system simulations Sector coupling studies Academic research Software The dataset was generated using Python together with the following libraries: pandas NumPy GeoPandas Shapely SciPy Matplotlib Requests demand_ninja Hourly weather data were obtained using the Renewables.ninja API. Heating and cooling demand were computed using the demand_ninja building energy demand model. Related Software The scripts used to generate this dataset are available from the associated GitLab repository: PLANtoACT / task_2_1 / Heating and Cooling Demand Hourly Profiles · GitLab Funding This work was developed within the PLANtoACT project. The PLANtoACT project has received funding from the European Union's LIFE Programme under Grant Agreement No. 101214506 (LIFE-2024-CET), managed by the European Climate, Infrastructure and Environment Executive Agency (CINEA). Views and opinions expressed are those of the author(s) only and do not necessarily reflect those of the European Union or CINEA. Neither the European Union nor CINEA can be held responsible for them. Citation If you use this dataset in your work, please cite both the Zenodo record and the associated software repository: PLANtoACT / task_2_1 / Heating and Cooling Demand Hourly Profiles · GitLab, https://gitlab.inf.unibz.it/plantoact/task_2_1/heating-and-cooling-demand-hourly-profiles.
🔗 Provenance — このレコードを発見したソース
- Zenodo https://zenodo.org/records/21834587first seen 2026-08-08 04:14:24
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