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Superstructure Modelling of Membrane Systems for the Optimization and Flexible Design of Post-combustion Carbon Capture Processes

燃焼後CO2回収プロセスの最適化と柔軟設計のための膜システムのスーパーストラクチャモデリング (AI 翻訳)

Stefania Bempeli, Marina Micari

Systems and Control Transactions📚 査読済 / ジャーナル2026-06-19#CCUSOrigin: Global経営インパクト: コスト削減対象セクター: power
DOI: 10.69997/sct.114207
原典: https://doi.org/10.69997/sct.114207

🤖 gxceed AI 要約

日本語

本研究は、膜を用いたCO2回収プロセスのためのスーパーストラクチャモデルを提案。多段膜システムの柔軟設計と大域最適化を可能にし、商用膜(Polaris、PolyActive)の性能比較を実施。材料革新とプロセス設計の橋渡しとなり、大規模展開を促進する。

English

This study presents a superstructure model for membrane-based carbon capture, enabling flexible design and global optimization of multi-stage systems. It compares commercial polymeric membranes (Polaris, PolyActive) on technical and economic metrics, bridging material innovation and process design for large-scale deployment.

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

日本は石炭火力や産業分野でのCCUS導入を推進しており、本モデルは膜分離技術の実用化とコスト評価に貢献する。経済性指標を含む設計ツールは、日本のCCUSロードマップに有用である。

In the global GX context

Membrane carbon capture is gaining attention globally for post-combustion applications. This work provides a systematic process design tool that links material performance to economic metrics, supporting scale-up and integration with power plants and industries, relevant to global CCUS deployment.

👥 読者別の含意

🔬研究者:Provides a flexible optimization framework for membrane process design, useful for comparing materials and configurations.

🏢実務担当者:Offers a tool to estimate technical and economic performance of commercial membranes, aiding in technology selection for CCUS projects.

🏛政策担当者:Highlights the potential of membrane technology for cost-effective carbon capture, informing support for CCUS infrastructure.

📄 Abstract(原文)

Membranes provide an efficient method for treating flue gases to capture CO2 from various point sources, achieving high recovery and purity rates. However, the lack of systematic process-level design tools has limited the translation of advanced membrane materials into large-scale technical and economic metrics. Thus, in this study, we present a superstructure model for the design of membrane-based carbon capture, both from highly energy-intensive industries and from power plants. The superstructure model enables the flexible design and global optimization of multi-stage membrane systems. Multiple membranes are compared under technical performance indicators (specific energy and specific area), while the already commercialized polymeric membranes Polaris and PolyActive are taken into consideration for estimating their economic performance. The presented framework establishes a robust link between material innovation and optimal process design, providing a key tool for the large-scale deployment of membrane-based carbon capture.

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