This UK Food Standards Agency and Food Standards Scotland publication outlines emerging food innovations anticipated to influence the food system between 2025 and 2035. The document examines innovative food technologies expected to reach UK markets during this period, providing regulatory guidance and authorisation routes aligned with the Government's National Vision for Engineering Biology. Market authorisation decisions remain subject to evidence-based legal processes assessed individually, with arrangements varying between Great Britain and Northern Ireland. The initiative supports the UK's £2 billion bioeconomy investment over ten years, including dedicated funding for regulatory assessment of novel food technologies.

Self-healing polymers have emerged as an important class of advanced materials capable of autonomously or stimuli-responsively restoring mechanical integrity after damage. Among them, ionomers occupy a unique position due to the presence of reversible ionic interactions that simultaneously impart mechanical strength, toughness, and healing capability. This review provides a comprehensive and critical overview of self-healing ionomers, focusing on the fundamental role of ionic interactions, the mechanisms governing damage repair, and recent advances in material design.

Engineered living materials, which combine biological and synthetic components, represent a significant innovation frontier but face regulatory obstacles in the European market. Kai Purnhagen and Justus Wesseler argue that current EU legislation inadequately addresses the unique characteristics and safety considerations of these advanced composites, creating substantial market access bottlenecks for developers and manufacturers. The authors contend that comprehensive regulatory reform is essential to establish clear, science-based frameworks that can accommodate this emerging technology while maintaining appropriate consumer protection and environmental safeguards. By modernizing existing EU law to specifically address engineered living materials, policymakers can facilitate innovation and commercialization while ensuring robust oversight of these novel products.

This article examines the Oceangate submarine disaster through a cultural lens, analyzing how billionaire Stockton Rush's fatal decision-making reflected a problematic self-perception influenced by Star Trek mythology. The author traces the franchise's origins to Horatio Hornblower naval fiction, highlighting how Star Trek's command structure mirrors historical naval hierarchies requiring rigorous training and earned advancement. The piece suggests that Rush's disregard for expert advice and safety protocols stemmed from conflating himself with Kirk's heroic captain persona, overlooking the discipline and expertise that genuine leadership demands. By juxtaposing fictional space exploration ideals with historical naval reality, the article illustrates how romanticized narratives can dangerously distort judgment when adopted by individuals lacking the foundational competence and humility necessary for responsible decision-making in high-risk situations.

Polymer science is increasingly critical in addressing global challenges spanning clean water, healthcare, infrastructure, and energy storage. Research published in RSC Applied Polymers showcases innovations in polymer design and processing that transform waste into valuable resources while developing more durable, functional materials. The journal features curated articles demonstrating how researchers are creating circular economy solutions through novel recycling approaches and resource recovery techniques. These studies highlight emerging directions in applied polymer science, including bio-based alternatives and advanced material design strategies that maintain performance while reducing environmental impact. Collectively, this research demonstrates polymer scientists' commitment to developing practical, sustainable solutions for real-world challenges in building a more resilient and technologically advanced future.

Researchers at CU Boulder have discovered that tightly entangled particles, similar to compressed office staples, can exhibit remarkable dual properties: strength and reversibility. When particles become intertwined, they form a cohesive structure resembling a single solid object, yet can rapidly separate through vibration or movement. Led by Professor Francois Barthelat, the team is leveraging this phenomenon to develop engineered materials with enhanced adaptability and recyclability. By designing particles that interlock geometrically, similar to natural examples like bird nests and bone structures, scientists aim to create innovative materials combining strength with reversibility. The findings, published in the Journal of Applied Physics, suggest particle shape plays a crucial role in enabling interlocking, opening promising directions for next-generation material science applications.

Biodegradable bioelectronic systems require materials that can mechanically integrate with soft tissues while minimizing long-term invasiveness. Conventional electronic materials, owing to their high stiffness, often cause mechanical mismatch with biological tissues, leading to chronic inflammation and tissue damage. To address these challenges, biodegradable conductive materials based on organic and polymeric systems have emerged as promising candidates for transient, biofriendly electronics. This review provides a comprehensive overview of recent advances in biodegradable conductive systems, including conductive polymers, conductive composite pastes, and organic mixed ionic–electronic conductors (OMIECs). The discussion covers material design strategies that simultaneously address electrical performance, mechanical compliance, and degradability in both partially and fully degradable systems. Particular attention is given to the relationships among degradation behavior, microstructure, and device stability, which play critical roles in determining functional lifetime. The scope further extends to key bioelectronic applications, including bioelectrical stimulation, drug delivery, sensing, and neuromorphic systems, demonstrating the versatility of these materials across diverse platforms. Emphasis is placed on providing an integrated perspective for the design of next-generation transient bioelectronic systems based on biodegradable organic conductors.

Artificial intelligence has evolved dramatically since IBM's Deep Blue defeated Garry Kasparov in 1997, progressing from specialized applications like facial recognition to generative AI systems capable of composing poetry, creating artwork, and designing integrated circuits. This remarkable advancement stems from three critical factors: innovations in machine-learning algorithms, availability of massive training datasets, and progress in energy-efficient semiconductor technology. While algorithms and data receive significant attention, semiconductor advancement has been equally instrumental yet underrecognized. Each major AI milestone, from Deep Blue's 0.6-micrometer technology to modern systems utilizing nanometer-scale chips, has been fundamentally enabled by cutting-edge semiconductor innovations. As AI continues evolving toward becoming a universal digital assistant, semiconductor technology's role remains indispensable for sustaining continued progress and democratizing high-performance computing benefits across society.

What if the company you’re leading isn’t the one you think it is? Most companies operate as two organizations: the polished version executives see in dashboards and boardrooms, and the messier, more revealing reality lived by employees. This gap isn’t accidental—it’s structural, shaped by reporting layers, incentives, and leadership tenure, and now amplified by AI. The danger is subtle but real: strategies built on incomplete truths, problems that surface too late, and talent that quietly walks out the door. The leaders who get ahead of it don’t try to eliminate the gap—they learn to see it, surface it, and govern both organizations at once.

Selon l’analyste Ming-Chi Kuo, la pression sur Apple s’est déplacée. On est passé d’une flambée des prix de la mémoire à un déficit d’approvisionnement qui s’élargit. Il estime que la capacité mémoire allouée à l’électronique grand public pourrait baisser de 15 à 20% d’ici 2027, au profit des data centers, et que ce mouvement peut encore s’accentuer. Résultat, même si Apple trouvait un nouveau fournisseur, cela ne suffirait pas vraiment à faire baisser les coûts ni à combler le manque. Kuo le dit franchement dans une formule assez nette, « Cela ne réduirait pas de manière significative les coûts ni ne comblerait le trou d’offre ». Mais il ajoute aussi que Apple doit malgré tout sécuriser une source supplémentaire.

Derrière les démonstrations produit, on retombe vite sur le concret. Le compute, donc les GPU, CPU, TPU et autres accélérateurs. L’inference, autrement dit l’exécution du modèle une fois entraîné. Et le memory cache, notamment le KV caching, qui réduit les calculs inutiles pour accélérer les réponses. Même chose pour les tokens et le token throughput. Les premiers servent d’unité de langage et souvent d’unité de facturation. Le second mesure combien de texte un système peut traiter sur une période donnée, donc combien d’utilisateurs il peut servir vite et bien. La parallelization pousse la même logique à l’échelle des puces et des machines. Résultat, la pression sur la mémoire explose, au point de faire émerger le terme RAMageddon, signe d’une pénurie de RAM qui renchérit consoles, smartphones et data centers.

Vous développez une start-up de la construction, des services à l’énergie, des infrastructures de mobilités ou de l’immobilier ? Vous avez une technologie, une conviction forte, peut-être déjà un premier prototype… et l’envie de vous confronter enfin au réel du chantier ? Depuis 2019, le programme SEED accompagne des start-up technologiques et industrielles early stage dans les premières étapes décisives de leur croissance, en leur donnant accès à un environnement unique mêlant expertise métier du groupe VINCI, expérimentation terrain, accompagnement stratégique et financement.

Huawei has introduced the "Tau Law," an alternative approach to Moore's Law that shifts focus from transistor miniaturization to reducing signal propagation delay through three-dimensional stacking and circuit folding. While the company demonstrates architectural innovation in semiconductor technology, analysts remain skeptical about its ability to close the gap with leading competitors. Despite these efforts, Huawei faces persistent equipment shortages and supply chain constraints that limit near-term progress. Industry assessments suggest the company could still trail international competitors by six to eight years by 2031, though Huawei claims its new approach could increase chip density by fifty-five percent and achieve comparable performance levels to advanced processes.

Huawei and Intel have fundamentally shifted the semiconductor competition from traditional transistor scaling to comprehensive systems optimization. Huawei's Tau Scaling Law and LogicFolding architecture prioritize signal path efficiency across multiple hierarchical levels, with mass production of 381 chips and consumer products planned for late 2026. Intel's 18A-P node demonstrates continued lithographic relevance through advanced power delivery, new transistor options, and thermal management. Rather than a geopolitical rivalry, this represents a strategic disagreement about how to measure semiconductor progress. Both companies acknowledge that future advancement depends on integrating density improvements with data movement, power efficiency, heat dissipation, and system-level co-optimization—transforming chip development from isolated transistor innovation into holistic platform engineering.

Huawei's Tau Law proposes using time compression and LogicFolding architectures to sustain semiconductor performance gains.

Les satellites artificiels vont ils être trop nombreux et nous poser plus de problèmes qu’ils nous apportent de services ? Actuellement, les lancements de fusées relarguent dans l’atmosphère près 1 000 tonnes de suie par an. Dans la stratosphère (20-50km d’altitude) cette suie, constituée de particule de carbone aussi appelées carbone noir absorbe l’énergie solaire et provoque une augmentation des températures. D’après les recherches menées en 2022 par la National Oceanographic and Atmospheric Administration américaine (NOAA) le décuplement des lancements de fusées est attendu au cours des 20 prochaines années injecterait dans la stratosphère assez de carbone noir pour accroître les températures stratosphériques mondiales de 0,5 à 2 °C.

China Telecom is testing a new approach to packaging artificial intelligence services alongside its network offerings, reflecting a broader shift in how telecom operators are experimenting with AI-driven infrastructure and monetisation models. MEF CEO Dario Betti explores the implications for operators and how this development may reshape telecom business models.

LEGO a construit une Koenigsegg Sadair's Spear grandeur nature en briques qui a battu un record à 111 km/h à Goodwood.

Huawei's newly proposed "Tao Law" semiconductor technology has generated significant discussion regarding its potential to challenge TSMC's technological dominance. The approach leverages three-dimensional stacking, advanced packaging, and architectural integration to enhance chip performance and transistor density without requiring extreme ultraviolet lithography equipment. While Huawei claims the technology could achieve computing capabilities equivalent to 1.4-nanometer processes, NVIDIA CEO Jensen Huang contends the innovation, though noteworthy, poses no threat to TSMC. Huang emphasized that TSMC has invested nearly a decade in developing comparable die stacking and hybrid bonding technologies, maintaining a substantial technological advantage. TSMC's advanced packaging capabilities, including CoWoS and SoIC platforms, continue supporting leading-edge AI and high-performance computing applications from major manufacturers, reinforcing its market position.

This research addresses absorptive capacity in maintaining technological advantage amidst Emerging and Disruptive Technologies (EDTs). While traditional models focus on incremental integration, this study introduces the construct of transformative capability to account for the systemic reconfiguration necessitated by Artificial Intelligence and Big Data as two out of nine EDTs. Utilizing a structured policy research methodology, the study evaluates a purposive sample of 56 NATO policy documents, triangulated with semi-structured stakeholder interviews to identify high-priority catalysts for adoption. Findings identify four interconnected factors—technological, human, organizational, and societal—functioning as a recursive, systemic feedback loop. A distinctive contribution is the identification of the psychological unimaginability of EDTs as a primary barrier to diffusion, necessitating cognitive anchors through robust standardization, ethical governance and social institutionalization. By positioning ethics and societal assimilation as functional prerequisites, this research offers a multidimensional framework for fostering double-loop learning and organizational resilience in 21st-century defense ecosystems.