[New Publication] Material Resilience 2030: Technical Portfolios and Financial Strategies to Overcome Resource Geopolitical Risks
CMC Research will publish a new industrial report on May 27, 2026. As geopolitical risks and environmental regulations intensify, the report details strategies for the manufacturing industry to transition from 'efficiency' to 'resilience,' presenting winning material strategies for 2030 including MI, autonomous labs, and the circular economy.
📋 Article Processing Timeline
- 📰 Published: May 21, 2026 at 20:00
- 🔍 Collected: May 21, 2026 at 11:31
- 🤖 AI Analyzed: May 27, 2026 at 08:02 (140h 30m after Collected)
The global industrial sector has undergone an irreversible transition from an 'era of efficiency' to an 'era of resilience.' The ideals once pursued by manufacturing—such as 'Just-in-Time' and 'global supply chain optimization'—are now exposing their vulnerabilities in the face of normalized geopolitical risks, resurgent resource nationalism, and tightening environmental regulations. Particularly in core industries driving the 2030 economy, such as semiconductors, secondary batteries, next-generation mobility, and robotics, securing materials is no longer a mere procurement issue. It has transformed into a 'strategic choke point' that directly impacts national economic security and determines corporate survival.
The 'Material Resilience' presented in this report does not simply refer to increasing stockpiles or diversifying suppliers. It signifies the construction of multi-layered competitive advantages by 'neutralizing resource constraints through technological innovation, turning transparency into value through digital tools, and realizing perpetual resource use through circulation.'
Japanese companies currently face an extremely severe situation. New rule-making, where information and matter are closely linked—such as the U.S. Inflation Reduction Act (IRA), European battery regulations, and the mandatory Digital Product Passport (DPP)—is taking the lead. Whether companies respond with passive 'compliance' or view these as opportunities to build their own 'market entry barriers' will distinguish the winners of 2030.
In material development, the leading role is shifting from traditional methods relying on expert experience and intuition to 'Material Informatics (MI),' which fuses AI with physical simulation, and 'Autonomous Labs' that repeat prototyping 24/7. The development of 'resource-risk-free materials' like cobalt-free or lithium-free alternatives, and the pursuit of extreme energy efficiency with next-generation power semiconductors, are no longer distant dreams; as of 2026, the countdown to mass production has begun.
Another pillar of Material Resilience is the complete transition to a 'Circular Economy.' The report details the movement to secure 'Black Mass' and multi-metals recovered from used products not just as 'recycled materials,' but as 'strategic resources' within vertically integrated supply chains.
The 'Material Resilience' presented in this report does not simply refer to increasing stockpiles or diversifying suppliers. It signifies the construction of multi-layered competitive advantages by 'neutralizing resource constraints through technological innovation, turning transparency into value through digital tools, and realizing perpetual resource use through circulation.'
Japanese companies currently face an extremely severe situation. New rule-making, where information and matter are closely linked—such as the U.S. Inflation Reduction Act (IRA), European battery regulations, and the mandatory Digital Product Passport (DPP)—is taking the lead. Whether companies respond with passive 'compliance' or view these as opportunities to build their own 'market entry barriers' will distinguish the winners of 2030.
In material development, the leading role is shifting from traditional methods relying on expert experience and intuition to 'Material Informatics (MI),' which fuses AI with physical simulation, and 'Autonomous Labs' that repeat prototyping 24/7. The development of 'resource-risk-free materials' like cobalt-free or lithium-free alternatives, and the pursuit of extreme energy efficiency with next-generation power semiconductors, are no longer distant dreams; as of 2026, the countdown to mass production has begun.
Another pillar of Material Resilience is the complete transition to a 'Circular Economy.' The report details the movement to secure 'Black Mass' and multi-metals recovered from used products not just as 'recycled materials,' but as 'strategic resources' within vertically integrated supply chains.
FAQ
『マテリアル・レジリエンス 2030』の主な内容は?
地政学リスクや資源制約、環境規制の時代における製造業の「強靭性(レジリエンス)」獲得に向けた、技術ポートフォリオと財務戦略を解説しています。半導体、電池、モビリティ産業の分析やMI、自律型ラボの最前線を網羅しています。
本書で分析されている「資源地政学時代」の技術とは?
AI材料開発(マテリアル・インフォマティクス)、自律型ラボ、代替元素探索、次世代パワー半導体、ナトリウムイオン電池、ブラックマス循環などが挙げられています。
どのような企業が分析対象に含まれていますか?
Form Energy、Redwood Materials、信越化学工業など、世界で先行する50社の分析を通じて、日本企業の戦略ロードマップを提示しています。
書籍の価格と体裁を教えてください。
A4判125頁で、定価は冊子版が99,000円(税込)、書籍+PDF版CDセットが165,000円(税込)です。
本書が定義する「マテリアル・レジリエンス」とは?
単なる資源備蓄や調達先分散ではなく、技術革新による資源制約の無効化、デジタルによる透明性の価値化、循環による資源の永続利用を実現する多層的な競争優位の構築を指します。