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建設段階における空港エアサイド基盤への先端技術と持続可能な舗装材料の統合:カーボンニュートラルに向けた構造・環境・経済評価

Integrating Modern Technologies and Sustainable Pavement Materials into Airport Airside Infrastructure during the Construction Phase: Structural, Environmental and Economic Assessment for Carbon Neutrality (原題)

Abdel Latif G.A.L. Younes

International Journal of Current Research in Science Engineering & Technology📚 査読済 / ジャーナル2026-10-24#Scope 1/2経営インパクト: コスト削減対象セクター: construction
DOI: 10.30967/ijcrset/abdel-latif-gal-younes/223
原典: https://doi.org/10.30967/ijcrset/abdel-latif-gal-younes/223
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🤖 gxceed AI 要約

日本語

空港エアサイド建設を対象に、BIM/GIS、AI・3DGNSS建機、温合材アスファルト(WMA)、コンクリート炭酸塩化を統合した定量枠組みを提示。建機稼働1,000時間の基準モデルで燃料1万L削減・約2.4万ドルの累積コスト削減と26.8tCO2eのScope1削減を試算。WMAはバーナー燃料20%減・VOC50%減、炭酸塩化はコンクリート1m3当たり最大15kgCO2を永久固定しつつ初期強度を向上させる。

English

An integrated BIM/GIS, AI-guided equipment, warm-mix asphalt and CO2-mineralized concrete framework for airport airside construction. A 1,000-hour equipment baseline yields ~10,000 L diesel saved, ~$24,000 cumulative savings and 26.8 tCO2e Scope 1 abatement. WMA cuts burner fuel 20% and site VOCs 50%; carbon mineralization permanently sequesters up to 15 kgCO2/m3 without compromising flexural strength.

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

建設業のScope1削減はSSBJ・有報での自社排出開示と直結し、施工段階の削減実証はゼロカーボン建築・インフラの説明材料になる。空港という公共性の高い案件での定量例は、建設会社の脱炭素投資対効果の社内説明に使いやすい。

In the global GX context

Construction-phase Scope 1 abatement evidence feeds directly into ISSB/CSRD Scope 1 disclosure and green-procurement criteria for public infrastructure. The paper links material innovation (WMA, CO2 mineralization) to auditable emission and cost figures, a pattern relevant to transition-plan credibility for hard-to-abate construction.

👥 読者別の含意

🔬研究者:建設段階のScope1削減を技術別に定量化する統合評価手法の実証例として参照できる。

🏢実務担当者:建機のAI/3DGNSS制御とWMA・炭酸塩化コンクリートの組合せを、投資回収と排出削減の社内説明資料に転用できる。

🏛政策担当者:空港等の公共インフラ入札で、施工段階の炭素削減を評価項目化する際の定量的根拠になりうる。

📄 Abstract(原文)

This research presents an integrated quantitative framework for developing sustainable airport airside infrastructure by integrating Building Information Modeling with Geographic Information Systems, the use of smart construction equipment and sustainable pavement material technologies, alongside evaluating the environmental and economic impacts of carbon emission reduction strategies during the construction phase, aiming to reduce Greenhouse Gas Emissions (Scope1).The methodological scope comprises three main pillars: The first focuses on leveraging Building Information Modeling and Geographic Information System to achieve an optimal cut -and -fill balance within the airport boundary and the deployment of equipment guided by 3D GPS technology and Artificial Intelligence during the execution of excavation, backfilling and fine grading of the subgrade, as well as during the spreading of the subbase course and base course, achieving a high level of elevation accuracy ranging between ±3: ±5 mm.The second pillar involves using Warm Mix Asphalt in paving, produced via mechanical water injection to lower mixing temperature by 20: 40 °C.The third pillar focuses on capturing carbon dioxide and reinjecting it into fresh concrete during central mixing, a processing called carbon mineralization.Using equipment's guided by 3D GPS technology and Artificial Intelligence reduces directly equipment operating hours by 30: 50% during earthworks, subgrade / base layer preparation and fine grading.Carbon mineralization is using in rigid paving for runway thresholds and aircraft aprons, this technology permanently sequesters carbon as calcium carbonate, boosting the concrete's early compressive strength and reduces cement consumption.As a baseline model, assuming 1000 direct equipment operation hours, this reduction yields a direct fuel savings 10000 liters of diesel, which translates to a direct fuel cost reduction of $10000.Cumulative operational savings reach $ 24000 including labor and maintenance, while abating 26.8 tCO2 e in scope1 emissions.Concurrently, Warm Mix Asphalt cuts plant burner fuel consumption by 20 % and reduces site level volatile organic compounds by 50%.Regarding carbon mineralization technology, it permanently sequesters up to 15kgCO2/m3 in concrete pavement without compromising structural integrity or flexural strength under heavy aircraft gear loadings.Consequently, the approach presented in this study offers airfield infrastructure engineers and aviation authorities a validated, scalable pathway toward achieving carbon neutrality during airside infrastructure construction.

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gxceed は公開メタデータに基づく研究支援データセットです。要約・翻訳・解説は AI 支援で生成されています。 最終的な解釈・検証は利用者が原典資料に基づいて行うことを前提とします。