Methodology for the Qualitative and Quantitative Analysis of the Environmental Impact of Copernicus Data Space Ecosystem (CDSE) End-Users
コペルニクスデータスペースエコシステム(CDSE)エンドユーザーの環境影響の定性的・定量的分析のための方法論 (AI 翻訳)
Caroline Ball, Riana Rasoldier, Caroline Vateau, Charlotte Garrel, Nicolas Estival
🤖 gxceed AI 要約
日本語
本論文は、地球観測データを提供するCopernicus Data Space Ecosystem(CDSE)のエンドユーザーによる環境影響を評価する方法論を提案する。データ転送、処理、保存の各領域で、クラウドとオンプレミスの両方を対象に、体化排出と運用排出を計算する。ユーザー行動調査とLCAを組み合わせ、炭素フットプリントのホットスポット特定と排出削減推奨を目指す。
English
This paper proposes a methodology to assess the environmental impact of end-users of the Copernicus Data Space Ecosystem (CDSE), a major Earth observation data platform. It calculates embodied and operational emissions from data transfer, processing, and storage, covering both cloud and on-premises systems. Combining user behavior surveys and LCA, it aims to identify carbon footprint hotspots and provide emission reduction recommendations.
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、データセンターやクラウドサービスの環境負荷評価が注目されており、本方法論はGX分野でのデータ基盤の持続可能性評価に参考となる。特に、政府や企業が環境報告を行う際の算定手法として応用可能性がある。
In the global GX context
This methodology contributes to the global discourse on the environmental impact of digital infrastructure, particularly for large-scale Earth observation data platforms. It aligns with efforts to standardize carbon accounting for cloud services and supports the EU's Green Deal objectives by providing a framework for assessing and reducing emissions in data ecosystems.
👥 読者別の含意
🔬研究者:Provides a structured methodology for assessing environmental impacts of data platforms, useful for further empirical studies.
🏢実務担当者:Offers a framework for organizations to measure and reduce the carbon footprint of their data operations.
🏛政策担当者:Highlights the need for standardized environmental impact assessments for digital infrastructure, informing policy on sustainable data ecosystems.
📄 Abstract(原文)
The Copernicus Data Space Ecosystem (CDSE) has transformed Earth Observation data access cloud-based, multi-access services, replacing traditional download-heavy approaches. By 2024, CDSE provided over 78 PB of data to more than 290,000 users spanning scientific, institutional, and commercial sectors. This rapid expansion, however, raises sustainability questions due to the environmental impact of data transmission, storage, and processing. This study evaluates end-user contributions to the CDSE's environmental impact and explores strategies to reduce emissions across the value chain.The approach combines qualitative and quantitative analysis across 3 phases:Phase 1 – Preparation and ValidationThe first phase involves defining the scope of the study, validating user typologies (scientists, industry, institutions, start-ups), confirming methodological standards, and developing tools for surveys and interviews.Phase 2 – Data collection and user insights: Data will be gathered through 3 complementary channels:A GDPR-compliant questionnaire targeting diverse typologiesIn-depth discussions to capture decision-making processes and sustainability trade-offs.Existing data sources: Bibliographic research, statistical reports, and operational data from CDSE platforms to quantify download volumes, compute operations, and storage patterns.Phase 3 – Impact calculation and modellingImpacts will be evaluated for each CDSE end-user type by examining 3 main areas: data transfer (network traffic), data processing (computing tasks), and data storage (including backup and retention). Both cloud hosting and on-premises systems will be analyzed.The calculation process commences with the collection of key inputs, which include:Cloud resource consumption: Data from CDSE operations and cloud providers (compute, storage, data transfer).Technical specification of instances used: CPU, GPU, memory, storage type, PUE, etc.User behavior data: Collected via surveys and interviews, considering the amount of data, the types of processing performed, how long data is stored, redundancy measures, and involvement of third parties.Our methodology is adapted from the Cloud Carbon Footprint approach and established standards for assessing the environmental impact of cloud services and data centers, tailored specifically for Copernicus. This evaluation covers 2 emissions:Embodied Emissions related to manufacturing and maintaining servers and storage devicesManufacturing emissions × (usage time ÷ lifespan) × (reserved resources ÷ available resources).Operational Emissions caused by resource use during data processing.Time × total component power × efficiency × electricity carbon intensity.The calculation uses quantitative data, standard guidelines, established methodologies, and databases such as EcoInvent, EEA, Negaoctet, and Resilio.Complementing this, a multicriteria LCA approach, following European guidelines and standards, offers a comprehensive view. Key indicators considered are electricity consumption, GHG emissions, primary energy consumption (to capture total energy demand), water consumption (linked to cooling and infrastructure) and abiotic resource depletion (impact of raw material extraction for hardware).To achieve representative results, sampled typologies are extrapolated to all users using factors such as average footprint, CDSE registration data, infrastructure location, and storage and processing scenarios.The study will provide:Carbon footprint for each end-user typeHotspot identification in user types and infrastructureEmission reduction recommendations
🔗 Provenance — このレコードを発見したソース
- openalex https://doi.org/10.5194/egusphere-egu26-17776first seen 2026-08-02 16:56:20
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