Process Intensificationin Nuclear Energy Systems:Challenges, Opportunities, and Limitations in the Context of EnergyTransition and Sustainability
原子力エネルギーシステムにおけるプロセス強化:エネルギー転換と持続可能性の文脈における課題、機会、限界 (AI 翻訳)
Juan Gabriel Segovia‐Hernández
🤖 gxceed AI 要約
日本語
本レビューは、原子力エネルギーシステムへのプロセス強化(PI)適用を批判的に検討し、性能・安全性・持続可能性のトレードオフを整理する。PI–安全性–持続可能性の評価枠組みを提案し、熱電併給ケーススタディで効率向上とフットプリント削減を示す。新興原子炉やハイブリッドシステムでの可能性と、材料・規制上の制約を議論する。
English
This review critically examines the application of Process Intensification (PI) to nuclear energy systems, analyzing trade-offs among performance, safety, and sustainability. It proposes a PI–Safety–Sustainability evaluation framework and illustrates with a cogeneration case study showing improved thermal efficiency and reduced footprint. PI offers opportunities for emerging reactors and hybrid systems but faces material and regulatory constraints.
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GX実行会議で原子力の活用を位置づけており、次世代炉や水素製造などへの関心が高い。本稿の評価枠組みは、日本の原子力システム設計における効率・安全・持続可能性の統合的評価に示唆を与える。
In the global GX context
Nuclear energy is positioned as a low-carbon dispatchable power source in global energy transition strategies. This framework provides a structured way to assess process intensification in nuclear systems, relevant for advanced reactor development and hybrid energy integration under evolving sustainability criteria.
👥 読者別の含意
🔬研究者:Offers a structured PI–Safety–Sustainability framework that can be applied to nuclear system design and evaluation research.
📄 Abstract(原文)
Nuclear energy is widely recognized as a key low-carbon technology capable of delivering dispatchable electricity and high-grade thermal energy. However, its long-term role within evolving energy systems is increasingly conditioned by requirements related to efficiency, flexibility, safety, and integration with other energy vectors. In this context, Process Intensification offers a promising design paradigm for enhancing system performance through compactness, improved transport phenomena, and functional integration. This review critically examines the application of Process Intensification principles to nuclear energy systems, with a specific focus on identifying where intensification can provide measurable benefits, where fundamental limitations arise, and how trade-offs between performance, safety, and sustainability must be managed. Rather than presenting a broad overview of the energy transition, the analysis is structured around Process Intensificationrelevant mechanisms, system-level constraints, and quantitative performance indicators. A Process Intensification–Safety–Sustainability evaluation framework is proposed to systematically assess intensification strategies in nuclear contexts. The framework integrates three interdependent dimensions: process performance, safety implications, and sustainability outcomes. In addition, an illustrative cogeneration case study is presented to compare conventional and intensified heat transfer configurations, highlighting improvements in thermal efficiency, reductions in system footprint, and associated safety considerations. The results indicate that Process Intensification can enable significant enhancements in energy utilization, system integration, and modularity, particularly in emerging reactor concepts and hybrid energy systems. However, its implementation is inherently constrained by material limitations, regulatory requirements, and the need to preserve robust safety margins. The findings underscore that the value of Process Intensification in nuclear systems lies not only in performance enhancement but in its ability to redefine system architectures within strict operational and safety boundaries. This work provides a focused and critical synthesis of Process Intensification in nuclear energy systems, contributing to a more rigorous integration of intensification principles into nuclear engineering design and evaluation.
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