From the heart of Germany’s automotive sector to manufacturing hubs across France and Italy, Europe is embracing industrial AI and advanced AI-powered robotics to address labor shortages, boost productivity and fuel sustainable economic growth. Robotics companies are developing humanoid robots and collaborative systems that integrate AI into real-world manufacturing applications. Supported by a $200 billion investment initiative and coordinated efforts from the European Commission, Europe is positioning itself at the forefront of the next wave of industrial automation, powered by AI. This momentum is on full display at Automatica — Europe’s premier conference on advancements in robotics, machine vision and intelligent manufacturing — taking place this week in Munich, Germany. NVIDIA and its ecosystem of partners and customers are showcasing next-generation robots, automation and AI technologies designed to accelerate the continent’s leadership in smart manufacturing and logistics. NVIDIA Technologies Boost Robotics Development  Central to advancing robotics development is Europe’s first industrial AI cloud, announced at NVIDIA GTC Paris at VivaTech earlier this month. The Germany-based AI factory, featuring 10,000 NVIDIA GPUs, provides European manufacturers with secure, sovereign and centralized AI infrastructure for industrial workloads. It will support applications ranging from design and engineering to factory digital twins and robotics. To help accelerate humanoid development, NVIDIA released NVIDIA Isaac GR00T N1.5 — an open foundation model for humanoid robot reasoning and skills. This update enhances the model’s adaptability and ability to follow instructions, significantly improving its performance in material handling and manufacturing tasks. To help post-train GR00T N1.5, NVIDIA has also released the Isaac GR00T-Dreams blueprint — a reference workflow for generating vast amounts of synthetic trajectory data from a small number of human demonstrations — enabling robots to generalize across behaviors and adapt to new environments with minimal human demonstration data. In addition, early developer previews of NVIDIA Isaac Sim 5.0 and Isaac Lab 2.2 — open-source robot simulation and learning frameworks optimized for NVIDIA RTX PRO 6000 workstations — are now available on GitHub. Image courtesy of Wandelbots. Robotics Leaders Tap NVIDIA Simulation Technology to Develop and Deploy Humanoids and More  Robotics developers and solutions providers across the globe are integrating NVIDIA’s three computers to train, simulate and deploy robots. NEURA Robotics, a German robotics company and pioneer for cognitive robots, unveiled the third generation of its humanoid, 4NE1, designed to assist humans in domestic and professional environments through advanced cognitive capabilities and humanlike interaction. 4NE1 is powered by GR00T N1 and was trained in Isaac Sim and Isaac Lab before real-world deployment. NEURA Robotics is also presenting Neuraverse, a digital twin and interconnected ecosystem for robot training, skills and applications, fully compatible with NVIDIA Omniverse technologies. Delta Electronics, a global leader in power management and smart green solutions, is debuting two next-generation collaborative robots: D-Bot Mar and D-Bot 2 in 1 — both trained using Omniverse and Isaac Sim technologies and libraries. These cobots are engineered to transform intralogistics and optimize production flows. Wandelbots, the creator of the Wandelbots NOVA software platform for industrial robotics, is partnering with SoftServe, a global IT consulting and digital services provider, to scale simulation-first automating using NVIDIA Isaac Sim, enabling virtual validation and real-world deployment with maximum impact. Cyngn, a pioneer in autonomous mobile robotics, is integrating its DriveMod technology into Isaac Sim to enable large-scale, high fidelity virtual testing of advanced autonomous operation. Purpose-built for industrial applications, DriveMod is already deployed on vehicles such as the Motrec MT-160 Tugger and BYD Forklift, delivering sophisticated automation to material handling operations. Doosan Robotics, a company specializing in AI robotic solutions, will showcase its “sim to real” solution, using NVIDIA Isaac Sim and cuRobo. Doosan will be showcasing how to seamlessly transfer tasks from simulation to real robots across a wide range of applications — from manufacturing to service industries. Franka Robotics has integrated Isaac GR00T N1.5 into a dual-arm Franka Research 3 (FR3) robot for robotic control. The integration of GR00T N1.5 allows the system to interpret visual input, understand task context and autonomously perform complex manipulation — without the need for task-specific programming or hardcoded logic. Image courtesy of Franka Robotics. Hexagon, the global leader in measurement technologies, launched its new humanoid, dubbed AEON. With its unique locomotion system and multimodal sensor fusion, and powered by NVIDIA’s three-computer solution, AEON is engineered to perform a wide range of industrial applications, from manipulation and asset inspection to reality capture and operator support. Intrinsic, a software and AI robotics company, is integrating Intrinsic Flowstate with  Omniverse and OpenUSD for advanced visualization and digital twins that can be used in many industrial use cases. The company is also using NVIDIA foundation models to enhance robot capabilities like grasp planning through AI and simulation technologies. SCHUNK, a global leader in gripping systems and automation technology, is showcasing its innovative grasping kit powered by the NVIDIA Jetson AGX Orin module. The kit intelligently detects objects and calculates optimal grasping points. Schunk is also demonstrating seamless simulation-to-reality transfer using IGS Virtuous software — built on Omniverse technologies — to control a real robot through simulation in a pick-and-place scenario. Universal Robots is showcasing UR15, its fastest cobot yet. Powered by the UR AI Accelerator — developed with NVIDIA and running on Jetson AGX Orin using CUDA-accelerated Isaac libraries — UR15 helps set a new standard for industrial automation. Vention, a full-stack software and hardware automation company, launched its Machine Motion AI, built on CUDA-accelerated Isaac libraries and powered by Jetson. Vention is also expanding its lineup of robotic offerings by adding the FR3 robot from Franka Robotics to its ecosystem, enhancing its solutions for academic and research applications. Image courtesy of Vention. Learn more about the latest robotics advancements by joining NVIDIA at Automatica, running through Friday, June 27. 

To speed up AI adoption across industries, HPE and NVIDIA today launched new AI factory offerings at HPE Discover in Las Vegas. The new lineup includes everything from modular AI factory infrastructure and HPE’s AI-ready RTX PRO Servers (HPE ProLiant Compute DL380a Gen12), to the next generation of HPE’s turnkey AI platform, HPE Private Cloud AI. The goal: give enterprises a framework to build and scale generative, agentic and industrial AI. The NVIDIA AI Computing by HPE portfolio is now among the broadest in the market. The portfolio combines NVIDIA Blackwell accelerated computing, NVIDIA Spectrum-X Ethernet and NVIDIA BlueField-3 networking technologies, NVIDIA AI Enterprise software and HPE’s full portfolio of servers, storage, services and software. This now includes HPE OpsRamp Software, a validated observability solution for the NVIDIA Enterprise AI Factory, and HPE Morpheus Enterprise Software for orchestration. The result is a pre-integrated, modular infrastructure stack to help teams get AI into production faster. This includes the next-generation HPE Private Cloud AI, co-engineered with NVIDIA and validated as part of the NVIDIA Enterprise AI Factory framework. This full-stack, turnkey AI factory solution will offer HPE ProLiant Compute DL380a Gen12 servers with the new NVIDIA RTX PRO 6000 Blackwell Server Edition GPUs. These new NVIDIA RTX PRO Servers from HPE provide a universal data center platform for a wide range of enterprise AI and industrial AI use cases, and are now available to order from HPE. HPE Private Cloud AI includes the latest NVIDIA AI Blueprints, including the NVIDIA AI-Q Blueprint for AI agent creation and workflows. HPE also announced a new NVIDIA HGX B300 system, the HPE Compute XD690, built with NVIDIA Blackwell Ultra GPUs. It’s the latest entry in the NVIDIA AI Computing by HPE lineup and is expected to ship in October. In Japan, KDDI is working with HPE to build NVIDIA AI infrastructure to accelerate global adoption. The HPE-built KDDI system will be based on the NVIDIA GB200 NVL72 platform, built on the NVIDIA Grace Blackwell architecture, at the KDDI Osaka Sakai Data Center. To accelerate AI for financial services, HPE will co-test agentic AI workflows built on Accenture’s AI Refinery with NVIDIA, running on HPE Private Cloud AI. Initial use cases include sourcing, procurement and risk analysis. HPE said it’s adding 26 new partners to its “Unleash AI” ecosystem to support more NVIDIA AI use cases. The company now offers more than 70 packaged AI workloads, from fraud detection and video analytics to sovereign AI and cybersecurity. Security and governance were a focus, too. HPE Private Cloud AI supports air-gapped management, multi-tenancy and post-quantum cryptography. HPE’s try-before-you-buy program lets customers test the system in Equinix data centers before purchase. HPE also introduced new programs, including AI Acceleration Workshops with NVIDIA, to help scale AI deployments. Watch the keynote: HPE CEO Antonio Neri announced the news from the Las Vegas Sphere on Tuesday at 9 a.m. PT. Register for the livestream and watch the replay. Explore more: Learn how NVIDIA and HPE build AI factories for every industry. Visit the partner page.

When Leta Sobierajski enrolled in college, she already knew what she was meant to do, and she didn’t settle for anything less. “When I went to school for graphic design, I really didn’t have a backup plan – it was this, or nothing,” she says. “My work is a constantly evolving practice, and from the beginning, I have always convinced myself that if I put in the time and experimentation, I would grow and evolve.” After graduation, Sobierajski took on a range of projects, which included animation, print, and branding elements. She collaborated with corporate clients, but realized that she wouldn’t feel comfortable following anyone else’s rules in a 9-to-5 environment. Leta Sobierajski (standing) and Wade Jeffree (on ladder) \\\ Photo: Matt Dutile Sobierajski eventually decided to team up with fellow artist and kindred spirit Wade Jeffree. In 2016 they launched their Brooklyn-based studio, Wade and Leta. The duo, who share a taste for quirky aesthetics, produces sculpture, installations, or anything else they can dream up. Never static in thinking or method, they are constantly searching for another medium to try that will complement their shared vision of the moment. The pair is currently interested in permanency, and they want to utilize more metal, a strong material that will stand the test of time. Small architectural pieces are also on tap, and on a grander scale, they’d like to focus on a park or communal area that everyone can enjoy. With so many ideas swirling around, Sobierajski will record a concept in at least three different ways so that she’s sure to unearth it at a later date. “In some ways, I like to think I’m impeccably organized, as I have countless spreadsheets tracking our work, our lives, and our well-being,” she explains. “The reality is that I am great at over-complicating situations with my intensified list-making and note-taking. The only thing to do is to trust the process.” Today, Leta Sobierajski joins us for Friday Five! Photo: Melitta Baumeister and Michał Plata 1. Melitta Baumeister and Michał Plata The work of Melitta Baumeister and Michał Plata has been a constant inspiration to me for their innovative, artful, and architectural silhouettes. By a practice of draping and arduous pattern-making, the garments that they develop season after season feel like they could be designed for existence in another universe. I’m a person who likes to dress up for anything when I’m not in the studio, and every time I opt to wear one of their looks, I feel like I can take on the world. The best part about their pieces is that they’re extremely functional, so whether I need to hop on a bicycle or show up at an opening, I’m still able to make a statement – these garments even have the ability to strike up conversations on their own. Photo: Wade and Leta 2. Pandas! I was recently in Chengdu to launch a new project and we took half the day to visit the Chengdu Research Base of Giant Pandas and I am a new panda convert. Yes, they’re docile and cute, but their lifestyles are utterly chill and deeply enviable for us adults with responsibilities. Giant pandas primarily eat bamboo and can consume 20-40 kilograms per day. When they’re not doing that, they’re sleeping. When we visited, many could be seen reclining on their backs, feasting on some of the finest bamboo they could select within arm’s reach. While not necessarily playful in appearance, they do seem quite cheeky in their agendas and will do as little as they can to make the most of their meals. It felt like I was watching a mirrored image of myself on a Sunday afternoon while trying to make the most of my last hours of the weekend. Photo: Courtesy of Aoiro 3. Aoiro I’m not really a candle person (I forget to light it, and then I forget it’s lit, and then I panic when it’s been lit for too long) but I love the luxurious subtlety of a fragrant space. It’s an intangible feeling that really can only be experienced in the present. Some of the best people to create these fragrances, in my opinion, are Shizuko and Manuel, the masterminds behind Aoiro, a Japanese and Austrian duo who have developed a keen sense for embodying the fragrances of some of the most intriguing and captivating olfactory atmospheres – earthy forest floors with crackling pine needles, blue cypress tickling the moon in an indigo sky, and rainfall on a spirited Japanese island. Despite living in an urban city, Aoiro’s olfactory design is capable of transporting me to the deepest forests of misty Yakushima island. Photo: Wade and Leta 4. Takuro Kuwata A few months ago, I saw the work of Japanese ceramicist Takuro Kuwata at an exhibition at Salon94 and have been having trouble getting it out of my head. Kuwata’s work exemplifies someone who has worked with a medium so much to completely use the medium as a medium – if that makes sense. His ability to manipulate clay and glaze and use it to create gravity-defying effects within the kiln are exceptionally mysterious to me and feel like they could only be accomplished with years and years of experimentation with the material. I’m equally impressed seeing how he’s grown his work with scale, juxtaposing it with familiar iconography like the fuzzy peach, but sculpting it from materials like bronze. Photo: Wade and Leta 5. The Site of Reversible Destiny, a park built by artists Arakawa and Gins, in Yoro Japan The park is a testament to their career as writers, architects, and their idea of reversible destiny, which in its most extreme form, eliminates death. For all that are willing to listen, Arakawa and Gins’ Reversible Destiny mentality aims to make our lives a little more youthful by encouraging us to reevaluate our relationship with architecture and our surroundings. The intention of “reversible destiny” is not to prolong death, postpone it, grow older alongside it, but to entirely not acknowledge and surpass it. Wade (my partner) and I have spent the last ten years traveling to as many of their remaining sites as possible to further understand this notion of creating spaces to extend our lives and question how conventional living spaces can become detrimental to our longevity.   Works by Wade and Leta: Photo: Wade and Leta and Matt Alexander Now You See Me is a large-scale installation in the heart of Shoreditch, London, that explores the relationship between positive and negative space through bold color, geometry, and light. Simple, familiar shapes are embedded within monolithic forms, creating a layered visual experience that shifts throughout the day. As sunlight passes through the structures, shadows and silhouettes stretch and connect, forming dynamic compositions on the surrounding concrete. Photo: Wade and Leta and John Wylie Paint Your Own Path is series of five towering sculptures, ranging from 10 to 15 feet tall, invites viewers to explore balance, tension, and perspective through bold color and form. Inspired by the delicate, often precarious act of stacking objects, the sculptures appear as if they might topple – yet each one holds steady, challenging perceptions of stability. Created in partnership with the Corolla Cross, the installation transforms its environment into a pop-colored landscape. Photo: Millenia Walk and Outer Edit, Eurthe Studio Monument to Movement is a 14-meter-tall kinetic sculpture that celebrates the spirit of the holiday season through rhythm, motion, and color. Rising skyward in layered compositions, the work symbolizes collective joy, renewal, and the shared energy of celebrations that span cultures and traditions. Powered by motors and constructed from metal beams and cardboard forms, the sculpture continuously shifts, inviting viewers to reflect on the passage of time and the cycles that connect us all. Photo: Wade and Leta and Erika Hara, Piotr Maslanka, and Jeremy Renault Falling Into Place is a vibrant rooftop installation at Ginza Six that explores themes of alignment, adaptability, and perspective. Six colorful structures – each with a void like a missing puzzle piece – serve as spaces for reflection, inviting visitors to consider their place within a greater whole. Rather than focusing on absence, the design transforms emptiness into opportunity, encouraging people to embrace spontaneity and the unfolding nature of life. Playful yet contemplative, the work emphasizes that only through connection and participation can the full picture come into view. Photo: Wade and Leta and Erika Hara, Piotr Maslanka, and Jeremy Renault Photo: Wade and Leta Stop, Listen, Look is a 7-meter-tall interactive artwork atop IFS Chengdu that captures the vibrant rhythm of the city through movement, sound, and form. Blending motorized and wind-powered elements with seesaws and sound modulation, it invites people of all ages to engage, play, and reflect. Inspired by Chengdu’s balance of tradition and modernity, the piece incorporates circular motifs from local symbolism alongside bold, geometric forms to create a dialogue between past and present. With light, motion, and community at its core, the work invites visitors to connect with the city – and each other – through shared interaction. The Cloud is a permanent sculptural kiosk in Burlington, Vermont’s historic City Hall Park, created in collaboration with Brooklyn-based Studio RENZ+OEI. Designed to reinterpret the ephemeral nature of clouds through architecture, it blends art, air, and imagination into a light, fluid structure that defies traditional rigidity. Originally born from a creative exchange between longtime friends and collaborators, the design challenges expectations of permanence by embodying movement and openness. Now home to a local food vendor, The Cloud brings a playful, uplifting presence to the park, inviting reflection and interaction rain or shine..

Modern healthcare innovations span AI, devices, software, images, and regulatory frameworks, all requiring stringent coordination. Generative AI arguably has the strongest transformative potential in healthcare technology programmes, with it already being applied across various domains, such as R&D, commercial operations, and supply chain management.Traditional models for medical appointments, like face-to-face appointments, and paper-based processes may not be sufficient to meet the fast-paced, data-driven medical landscape of today. Therefore, healthcare professionals and patients are seeking more convenient and efficient ways to access and share information, meeting the complex standards of modern medical science. According to McKinsey, Medtech companies are at the forefront of healthcare innovation, estimating they could capture between $14 billion and $55 billion annually in productivity gains. Through GenAI adoption, an additional $50 billion plus in revenue is estimated from products and service innovations. A McKinsey 2024 survey revealed around two thirds of Medtech executives have already implemented Gen AI, with approximately 20% scaling their solutions up and reporting substantial benefits to productivity.  While advanced technology implementation is growing across the medical industry, challenges persist. Organisations face hurdles like data integration issues, decentralised strategies, and skill gaps. Together, these highlight a need for a more streamlined approach to Gen AI deployment. Of all the Medtech domains, R&D is leading the way in Gen AI adoption. Being the most comfortable with new technologies, R&D departments use Gen AI tools to streamline work processes, such as summarising research papers or scientific articles, highlighting a grassroots adoption trend. Individual researchers are using AI to enhance productivity, even when no formal company-wide strategies are in place.While AI tools automate and accelerate R&D tasks, human review is still required to ensure final submissions are correct and satisfactory. Gen AI is proving to reduce time spent on administrative tasks for teams and improve research accuracy and depth, with some companies experiencing 20% to 30% gains in research productivity. KPIs for success in healthcare product programmesMeasuring business performance is essential in the healthcare sector. The number one goal is, of course, to deliver high-quality care, yet simultaneously maintain efficient operations. By measuring and analysing KPIs, healthcare providers are in a better position to improve patient outcomes through their data-based considerations. KPIs can also improve resource allocation, and encourage continuous improvement in all areas of care. In terms of healthcare product programmes, these structured initiatives prioritise the development, delivery, and continual optimisation of medical products. But to be a success, they require cross-functional coordination of clinical, technical, regulatory, and business teams. Time to market is critical, ensuring a product moves from the concept stage to launch as quickly as possible.Of particular note is the emphasis needing to be placed on labelling and documentation. McKinsey notes that AI-assisted labelling has resulted in a 20%-30% improvement in operational efficiency. Resource utilisation rates are also important, showing how efficiently time, budget, and/or headcount are used during the developmental stage of products. In the healthcare sector, KPIs ought to focus on several factors, including operational efficiency, patient outcomes, financial health of the business, and patient satisfaction. To achieve a comprehensive view of performance, these can be categorised into financial, operational, clinical quality, and patient experience.Bridging user experience with technical precision – design awardsInnovation is no longer solely judged by technical performance with user experience (UX) being equally important. Some of the latest innovations in healthcare are recognised at the UX Design Awards, products that exemplify the best in user experience as well as technical precision. Top products prioritise the needs and experiences of both patients and healthcare professionals, also ensuring each product meets the rigorous clinical and regulatory standards of the sector. One example is the CIARTIC Move by Siemens Healthineers, a self-driving 3D C-arm imaging system that lets surgeons operate, controlling the device wirelessly in a sterile field. Computer hardware company ASUS has also received accolades for its HealthConnect App and VivoWatch Series, showcasing the fusion of AIoT-driven smart healthcare solutions with user-friendly interfaces – sometimes in what are essentially consumer devices. This demonstrates how technical innovation is being made accessible and becoming increasingly intuitive as patients gain technical fluency.  Navigating regulatory and product development pathways simultaneously The establishing of clinical and regulatory paths is important, as this enables healthcare teams to feed a twin stream of findings back into development. Gen AI adoption has become a transformative approach, automating the production and refining of complex documents, mixed data sets, and structured and unstructured data. By integrating regulatory considerations early and adopting technologies like Gen AI as part of agile practices, healthcare product programmes help teams navigate a regulatory landscape that can often shift. Baking a regulatory mindset into a team early helps ensure compliance and continued innovation. (Image source: “IBM Achieves New Deep Learning Breakthrough” by IBM Research is licensed under CC BY-ND 2.0.)Want to learn more about AI and big data from industry leaders? Check out AI & Big Data Expo taking place in Amsterdam, California, and London. The comprehensive event is co-located with other leading events including Intelligent Automation Conference, BlockX, Digital Transformation Week, and Cyber Security & Cloud Expo.Explore other upcoming enterprise technology events and webinars powered by TechForge here.

Germany and NVIDIA are building possibly the most ambitious European tech project of the decade: the continent’s first industrial AI cloud.NVIDIA has been on a European tour over the past month with CEO Jensen Huang charming audiences at London Tech Week before dazzling the crowds at Paris’s VivaTech. But it was his meeting with German Chancellor Friedrich Merz that might prove the most consequential stop.The resulting partnership between NVIDIA and Deutsche Telekom isn’t just another corporate handshake; it’s potentially a turning point for European technological sovereignty.An “AI factory” (as they’re calling it) will be created with a focus on manufacturing, which is hardly surprising given Germany’s renowned industrial heritage. The facility aims to give European industrial players the computational firepower to revolutionise everything from design to robotics.“In the era of AI, every manufacturer needs two factories: one for making things, and one for creating the intelligence that powers them,” said Huang. “By building Europe’s first industrial AI infrastructure, we’re enabling the region’s leading industrial companies to advance simulation-first, AI-driven manufacturing.”It’s rare to hear such urgency from a telecoms CEO, but Deutsche Telekom’s Timotheus Höttges added: “Europe’s technological future needs a sprint, not a stroll. We must seize the opportunities of artificial intelligence now, revolutionise our industry, and secure a leading position in the global technology competition. Our economic success depends on quick decisions and collaborative innovations.”The first phase alone will deploy 10,000 NVIDIA Blackwell GPUs spread across various high-performance systems. That makes this Germany’s largest AI deployment ever; a statement the country isn’t content to watch from the sidelines as AI transforms global industry.A Deloitte study recently highlighted the critical importance of AI technology development to Germany’s future competitiveness, particularly noting the need for expanded data centre capacity. When you consider that demand is expected to triple within just five years, this investment seems less like ambition and more like necessity.Robots teaching robotsOne of the early adopters is NEURA Robotics, a German firm that specialises in cognitive robotics. They’re using this computational muscle to power something called the Neuraverse which is essentially a connected network where robots can learn from each other.Think of it as a robotic hive mind for skills ranging from precision welding to household ironing, with each machine contributing its learnings to a collective intelligence.“Physical AI is the electricity of the future—it will power every machine on the planet,” said David Reger, Founder and CEO of NEURA Robotics. “Through this initiative, we’re helping build the sovereign infrastructure Europe needs to lead in intelligent robotics and stay in control of its future.”The implications of this AI project for manufacturing in Germany could be profound. This isn’t just about making existing factories slightly more efficient; it’s about reimagining what manufacturing can be in an age of intelligent machines.AI for more than just Germany’s industrial titansWhat’s particularly promising about this project is its potential reach beyond Germany’s industrial titans. The famed Mittelstand – the network of specialised small and medium-sized businesses that forms the backbone of the German economy – stands to benefit.These companies often lack the resources to build their own AI infrastructure but possess the specialised knowledge that makes them perfect candidates for AI-enhanced innovation. Democratising access to cutting-edge AI could help preserve their competitive edge in a challenging global market.Academic and research institutions will also gain access, potentially accelerating innovation across numerous fields. The approximately 900 Germany-based startups in NVIDIA’s Inception program will be eligible to use these resources, potentially unleashing a wave of entrepreneurial AI applications.However impressive this massive project is, it’s viewed merely as a stepping stone towards something even more ambitious: Europe’s AI gigafactory. This planned 100,000 GPU-powered initiative backed by the EU and Germany won’t come online until 2027, but it represents Europe’s determination to carve out its own technological future.As other European telecom providers follow suit with their own AI infrastructure projects, we may be witnessing the beginning of a concerted effort to establish technological sovereignty across the continent.For a region that has often found itself caught between American tech dominance and Chinese ambitions, building indigenous AI capability represents more than economic opportunity. Whether this bold project in Germany will succeed remains to be seen, but one thing is clear: Europe is no longer content to be a passive consumer of AI technology developed elsewhere.(Photo by Maheshkumar Painam)Want to learn more about AI and big data from industry leaders? Check out AI & Big Data Expo taking place in Amsterdam, California, and London. The comprehensive event is co-located with other leading events including Intelligent Automation Conference, BlockX, Digital Transformation Week, and Cyber Security & Cloud Expo.Explore other upcoming enterprise technology events and webinars powered by TechForge here.

Barricades, as we know them today, are thought to date back to the European wars of religion. According to most historians, the first barricade went up in Paris in 1588; the word derives from the French barriques, or barrels, spontaneously put together. They have been assembled from the most diverse materials, from cobblestones, tyres, newspapers, dead horses and bags of ice (during Kyiv’s Euromaidan in 2013–14), to omnibuses and e‑scooters. Their tactical logic is close to that of guerrilla warfare: the authorities have to take the barricades in order to claim victory; all that those manning them have to do to prevail is to hold them.  The 19th century was the golden age for blocking narrow, labyrinthine streets. Paris had seen barricades go up nine times in the period before the Second Empire; during the July 1830 Revolution alone, 4,000 barricades had been erected (roughly one for every 200 Parisians). These barricades would not only stop, but also trap troops; people would then throw stones from windows or pour boiling water onto the streets. Georges‑Eugène Haussmann, Napoleon III’s prefect of Paris, famously created wide boulevards to make blocking by barricade more difficult and moving the military easier, and replaced cobblestones with macadam – a surface of crushed stone. As Flaubert observed in his Dictionary of Accepted Ideas: ‘Macadam: has cancelled revolutions. No more means to make barricades. Nevertheless rather inconvenient.’   Lead image: Barricades, as we know them today, are thought to have originated in early modern France. A colour engraving attributed to Achille‑Louis Martinet depicts the defence of a barricade during the 1830 July Revolution. Credit: Paris Musées / Musée Carnavalet – Histoire de Paris. Above: the socialist political thinker and activist Louis Auguste Blanqui – who was imprisoned by every regime that ruled France between 1815 and 1880 – drew instructions for how to build an effective barricade Under Napoleon III, Baron Haussmann widened Paris’s streets in his 1853–70 renovation of the city, making barricading more difficult Credit: Old Books Images / Alamy ‘On one hand, [the authorities] wanted to favour the circulation of ideas,’ reactionary intellectual Louis Veuillot observed apropos the ambiguous liberalism of the latter period of Napoleon III’s Second Empire. ‘On the other, to ensure the circulation of regiments.’ But ‘anti‑insurgency hardware’, as Justinien Tribillon has called it, also served to chase the working class out of the city centre: Haussmann’s projects amounted to a gigantic form of real-estate speculation, and the 1871 Paris Commune that followed constituted not just a short‑lived anarchist experiment featuring enormous barricades; it also signalled the return of the workers to the centre and, arguably, revenge for their dispossession.    By the mid‑19th century, observers questioned whether barricades still had practical meaning. Gottfried Semper’s barricade, constructed for the 1849 Dresden uprising, had proved unconquerable, but Friedrich Engels, one‑time ‘inspector of barricades’ in the Elberfeld insurrection of the same year, already suggested that the barricades’ primary meaning was now moral rather than military – a point to be echoed by Leon Trotsky in the subsequent century. Barricades symbolised bravery and the will to hold out among insurrectionists, and, not least, determination rather to destroy one’s possessions – and one’s neighbourhood – than put up with further oppression.   Not only self‑declared revolutionaries viewed things this way: the reformist Social Democrat leader Eduard Bernstein observed that ‘the barricade fight as a political weapon of the people has been completely eliminated due to changes in weapon technology and cities’ structures’. Bernstein was also picking up on the fact that, in the era of industrialisation, contention happened at least as much on the factory floor as on the streets. The strike, not the food riot or the defence of workers’ quartiers, became the paradigmatic form of conflict. Joshua Clover has pointed out in his 2016 book Riot. Strike. Riot: The New Era of Uprisings, that the price of labour, rather than the price of goods, caused people to confront the powerful. Blocking production grew more important than blocking the street. ‘The only weapons we have are our bodies, and we need to tuck them in places so wheels don’t turn’ Today, it is again blocking – not just people streaming along the streets in large marches – that is prominently associated with protests. Disrupting circulation is not only an important gesture in the face of climate emergency; blocking transport is a powerful form of protest in an economic system focused on logistics and just‑in‑time distribution. Members of Insulate Britain and Germany’s Last Generation super‑glue themselves to streets to stop car traffic to draw attention to the climate emergency; they have also attached themselves to airport runways. They form a human barricade of sorts, immobilising traffic by making themselves immovable.   Today’s protesters have made themselves consciously vulnerable. They in fact follow the advice of US civil rights’ Bayard Rustin who explained: ‘The only weapons we have are our bodies, and we need to tuck them in places so wheels don’t turn.’ Making oneself vulnerable might increase the chances of a majority of citizens seeing the importance of the cause which those engaged in civil disobedience are pursuing. Demonstrations – even large, unpredictable ones – are no longer sufficient. They draw too little attention and do not compel a reaction. Naomi Klein proposed the term ‘blockadia’ as ‘a roving transnational conflict zone’ in which people block extraction – be it open‑pit mines, fracking sites or tar sands pipelines – with their bodies. More often than not, these blockades are organised by local people opposing the fossil fuel industry, not environmental activists per se. Blockadia came to denote resistance to the Keystone XL pipeline as well as Canada’s First Nations‑led movement Idle No More. In cities, blocking can be accomplished with highly mobile structures. Like the barricade of the 19th century, they can be quickly assembled, yet are difficult to move; unlike old‑style barricades, they can also be quickly disassembled, removed and hidden (by those who have the engineering and architectural know‑how). Think of super tripods, intricate ‘protest beacons’ based on tensegrity principles, as well as inflatable cobblestones, pioneered by the artist‑activists of Tools for Action (and as analysed in Nick Newman’s recent volume Protest Architecture).   As recently as 1991, newly independent Latvia defended itself against Soviet tanks with the popular construction of barricades, in a series of confrontations that became known as the Barikādes Credit: Associated Press / Alamy Inversely, roadblocks can be used by police authorities to stop demonstrations and gatherings from taking place – protesters are seen removing such infrastructure in Dhaka during a general strike in 1999 Credit: REUTERS / Rafiqur Rahman / Bridgeman These inflatable objects are highly flexible, but can also be protective against police batons. They pose an awkward challenge to the authorities, who often end up looking ridiculous when dealing with them, and, as one of the inventors pointed out, they are guaranteed to create a media spectacle. This was also true of the 19th‑century barricade: people posed for pictures in front of them. As Wolfgang Scheppe, a curator of Architecture of the Barricade (currently on display at the Arsenale Institute for Politics of Representation in Venice), explains, these images helped the police to find Communards and mete out punishments after the end of the anarchist experiment. Much simpler structures can also be highly effective. In 2019, protesters in Hong Kong filled streets with little archways made from just three ordinary bricks: two standing upright, one resting on top. When touched, the falling top one would buttress the other two, and effectively block traffic. In line with their imperative of ‘be water’, protesters would retreat when the police appeared, but the ‘mini‑Stonehenges’ would remain and slow down the authorities. Today, elaborate architectures of protest, such as Extinction Rebellion’s ‘tensegrity towers’, are used to blockade roads and distribution networks – in this instance, Rupert Murdoch’s News UK printworks in Broxbourne, for the media group’s failure to report the climate emergency accurately Credit: Extinction Rebellion In June 2025, protests erupted in Los Angeles against the Trump administration’s deportation policies. Demonstrators barricaded downtown streets using various objects, including the pink public furniture designed by design firm Rios for Gloria Molina Grand Park. LAPD are seen advancing through tear gas Credit: Gina Ferazzi / Los Angeles Times via Getty Images Roads which radicals might want to target are not just ones in major metropoles and fancy post‑industrial downtowns. Rather, they might block the arteries leading to ‘fulfilment centres’ and harbours with container shipping. The model is not only Occupy Wall Street, which had initially called for the erection of ‘peaceful barricades’, but also the Occupy that led to the Oakland port shutdown in 2011. In short, such roadblocks disrupt what Phil Neel has called a ‘hinterland’ that is often invisible, yet crucial for contemporary capitalism. More recently, Extinction Rebellion targeted Amazon distribution centres in three European countries in November 2021; in the UK, they aimed to disrupt half of all deliveries on a Black Friday.   Will such blockades just anger consumers who, after all, are not present but are impatiently waiting for packages at home? One of the hopes associated with the traditional barricade was always that they might create spaces where protesters, police and previously indifferent citizens get talking; French theorists even expected them to become ‘a machine to produce the people’. That could be why military technology has evolved so that the authorities do not have to get close to the barricade: tear gas was first deployed against those on barricades before it was used in the First World War; so‑called riot control vehicles can ever more easily crush barricades. The challenge, then, for anyone who wishes to block is also how to get in other people’s faces – in order to have a chance to convince them of their cause.        2025-06-11 Kristina Rapacki Share

In a nutshell: As nations set ever more ambitious targets for renewable energy and electrification, the humble high-voltage cable has emerged as a linchpin – and a potential chokepoint – in the race to decarbonize the global economy. A Bloomberg interview with Claes Westerlind, CEO of NKT, a leading cable manufacturer based in Denmark, explains why. A global surge in demand for high-voltage electricity cables is threatening to stall the clean energy revolution, as the world's ability to build new wind farms, solar plants, and cross-border power links increasingly hinges on a supply chain bottleneck few outside the industry have considered. At the center of this challenge is the complex, capital-intensive process of manufacturing the giant cables that transport electricity across hundreds of miles, both over land and under the sea. Despite soaring demand, cable manufacturers remain cautious about expanding capacity, raising questions about whether the pace of electrification can keep up with climate ambitions, geopolitical tensions, and the practical realities of industrial investment. High-voltage cables are the arteries of modern power grids, carrying electrons from remote wind farms or hydroelectric dams to the cities and industries that need them. Unlike the thin wires that run through a home's walls, these cables are engineering marvels – sometimes as thick as a person's torso, armored to withstand the crushing pressure of the ocean floor, and designed to last for decades under extreme electrical and environmental stress. "If you look at the very high voltage direct current cable, able to carry roughly two gigawatts through two pairs of cables – that means that the equivalent of one nuclear power reactor is flowing through one cable," Westerlind told Bloomberg. The process of making these cables is as specialized as it is demanding. At the core is a conductor, typically made of copper or aluminum, twisted together like a rope for flexibility and strength. Around this, manufacturers apply multiple layers of insulation in towering vertical factories to ensure the cable remains perfectly round and can safely contain the immense voltages involved. Any impurity in the insulation, even something as small as an eyelash, can cause catastrophic failure, potentially knocking out power to entire cities. // Related Stories As the world rushes to harness new sources of renewable energy, the demand for high-voltage direct current (HVDC) cables has skyrocketed. HVDC technology, initially pioneered by NKT in the 1950s, has become the backbone of long-distance power transmission, particularly for offshore wind farms and intercontinental links. In recent years, approximately 80 to 90 percent of new large-scale cable projects have utilized HVDC, reflecting its efficiency in transmitting electricity over vast distances with minimal losses. But this surge in demand has led to a critical bottleneck. Factories that produce these cables are booked out for years, Westerlind reports, and every project requires custom engineering to match the power needs, geography, and environmental conditions of its route. According to the International Energy Agency, meeting global clean energy goals will require building the equivalent of 80 million kilometers (around 49.7 million miles) of new grid infrastructure by 2040 – essentially doubling what has been constructed over the past century, but in just 15 years. Despite the clear need, cable makers have been slow to add capacity due to reasons that are as much economic and political as technical. Building a new cable factory can cost upwards of a billion euros, and manufacturers are wary of making such investments without long-term commitments from utilities or governments. "For a company like us to do investments in the realm of €1 or 2 billion, it's a massive commitment... but it's also a massive amount of demand that is needed for this investment to actually make financial sense over the next not five years, not 10 years, but over the next 20 to 30 years," Westerlind said. The industry still bears scars from a decade ago, when anticipated demand failed to materialize and expensive new facilities sat underused. Some governments and transmission system operators are trying to break the logjam by making "anticipatory investments" – committing to buy cable capacity even before specific projects are finalized. This approach, backed by regulators, gives manufacturers the confidence to expand, but it remains the exception rather than the rule. Meanwhile, the industry's structure itself creates barriers to rapid expansion, according to Westerlind. The expertise, technology, and infrastructure required to make high-voltage cables are concentrated in a handful of companies, creating what analysts describe as a "deep moat" that is difficult for new entrants to cross. Geopolitical tensions add another layer of complexity. China has built more HVDC lines than any other country, although Western manufacturers, such as NKT, maintain a technical edge in the most advanced cable systems. Still, there is growing concern in Europe and the US about becoming dependent on foreign suppliers for such critical infrastructure, especially in light of recent global conflicts and trade disputes. "Strategic autonomy is very important when it comes to the core parts and the fundamental parts of your society, where the grid backbone is one," Westerlind noted. The stakes are high. Without a rapid and coordinated push to expand cable manufacturing, the world's clean energy transition could be slowed not by a lack of wind or sun but by a shortage of the cables needed to connect them to the grid. As Westerlind put it, "We all know it has to be done... These are large investments. They are very expensive investments. So also the governments have to have a part in enabling these anticipatory investments, and making it possible for the TSOs to actually carry forward with them."

Solar air heating is among the most cost-effective applications of solar thermal energy. These systems are used for space heating and preheating fresh air for ventilation, typically using glazed or unglazed perforated solar collectors. The collectors draw in outside air, heat it using solar energy, and then distribute it through ductwork to meet building heating and fresh air needs. In 2024, Canada led again the world for the at least seventh year in a row in solar air heating adoption. The four key suppliers – Trigo Energies, Conserval Engineering, Matrix Energy, and Aéronergie – reported a combined 26,203 m2 (282,046 ft2) of collector area sold last year. Several of these providers are optimistic about the growing demand. These findings come from the newly released Canadian Solar Thermal Market Survey 2024, commissioned by Natural Resources Canada. Canada is the global leader in solar air heating. The market is driven by a strong network of experienced system suppliers, optimized technologies, and a few small favorable funding programs – especially in the province of Quebec. Architects and developers are increasingly turning to these cost-effective, façade-integrated systems as a practical solution for reducing onsite natural gas consumption. Despite its cold climate, Canada benefits from strong solar potential with solar irradiance in many areas rivaling or even exceeding that of parts of Europe. This makes solar air heating not only viable, but especially valuable in buildings with high fresh air requirements including schools, hospitals, and offices. The projects highlighted in this article showcase the versatility and relevance of solar air heating across a range of building types, from new constructions to retrofits. Figure 1: Preheating air for industrial buildings: 2,750 m2 (29,600 ft2) of Calento SL solar air collectors cover all south-west and south-east facing facades of the FAB3R factory in Trois-Rivières, Quebec. The hourly unitary flow rate is set at 41 m3/m2 or 2.23 cfm/ft2 of collector area, at the lower range because only a limited number of intake fans was close enough to the solar façade to avoid long ventilation ductwork. Photo: Trigo Energies Quebec’s solar air heating boom: the Trigo Energies story Trigo Energies makes almost 90 per cent of its sales in Quebec. “We profit from great subsidies, as solar air systems are supported by several organizations in our province – the electricity utility Hydro Quebec, the gas utility Energir and the Ministry of Natural Resources,” explained Christian Vachon, Vice President Technologies and R&D at Trigo Energies. Trigo Energies currently has nine employees directly involved in planning, engineering and installing solar air heating systems and teams up with several partner contractors to install mostly retrofit projects. “A high degree of engineering is required to fit a solar heating system into an existing factory,” emphasized Vachon. “Knowledge about HVAC engineering is as important as experience with solar thermal and architecture.” One recent Trigo installation is at the FAB3R factory in Trois-Rivières. FAB3R specializes in manufacturing, repairing, and refurbishing large industrial equipment. Its air heating and ventilation system needed urgent renovation because of leakages and discomfort for the workers. “Due to many positive references he had from industries in the area, the owner of FAB3R contacted us,” explained Vachon. “The existence of subsidies helped the client to go for a retrofitting project including solar façade at once instead of fixing the problems one bit at a time.” Approximately 50 per cent of the investment costs for both the solar air heating and the renovation of the indoor ventilation system were covered by grants and subsidies. FAB3R profited from an Energir grant targeted at solar preheating, plus an investment subsidy from the Government of Quebec’s EcoPerformance Programme.   Blue or black, but always efficient: the advanced absorber coating In October 2024, the majority of the new 2,750 m² (29,600 ft2) solar façade at FAB3R began operation (see figure 1). According to Vachon, the system is expected to cover approximately 13 per cent of the factory’s annual heating demand, which is otherwise met by natural gas. Trigo Energies equipped the façade with its high-performance Calento SL collectors, featuring a notable innovation: a selective, low-emissivity coating that withstands outdoor conditions. Introduced by Trigo in 2019 and manufactured by Almeco Group from Italy, this advanced coating is engineered to maximize solar absorption while minimizing heat loss via infrared emission, enhancing the overall efficiency of the system. The high efficiency coating is now standard in Trigo’s air heating systems. According to the manufacturer, the improved collector design shows a 25 to 35 per cent increase in yield over the former generation of solar air collectors with black paint. Testing conducted at Queen’s University confirms this performance advantage. Researchers measured the performance of transpired solar air collectors both with and without a selective coating, mounted side-by-side on a south-facing vertical wall. The results showed that the collectors with the selective coating produced 1.3 to 1.5 times more energy than those without it. In 2024, the monitoring results were jointly published by Queen’s University and Canmat Energy in a paper titled Performance Comparison of a Transpired Air Solar Collector with Low-E Surface Coating. Selective coating, also used on other solar thermal technologies including glazed flat plate or vacuum tube collectors, has a distinctive blue color. Trigo customers can, however, choose between blue and black finishes. “By going from the normal blue selective coating to black selective coating, which Almeco is specially producing for Trigo, we lose about 1 per cent in solar efficiency,” explained Vachon. Figure 2: Building-integrated solar air heating façade with MatrixAir collectors at the firehall building in Mont Saint Hilaire, south of Montreal. The 190 m2 (2,045 ft2) south-facing wall preheats the fresh air, reducing natural gas consumption by 18 per cent compared to the conventional make-up system. Architect: Leclerc Architecture. Photo: Matrix Energy Matrix Energy: collaborating with architects and engineers in new builds The key target customer group of Matrix Energy are public buildings – mainly new construction. “Since the pandemic, schools are more conscious about fresh air, and solar preheating of the incoming fresh air has a positive impact over the entire school year,” noted Brian Wilkinson, President of Matrix Energy. Matrix Energy supplies systems across Canada, working with local partners to source and process the metal sheets used in their MatrixAir collectors. These metal sheets are perforated and then formed into architectural cladding profiles. The company exclusively offers unglazed, single-stage collectors, citing fire safety concerns associated with polymeric covers. “We have strong relationships with many architects and engineers who appreciate the simplicity and cost-effectiveness of transpired solar air heating systems,” said President Brian Wilkinson, describing the company’s sales approach. “Matrix handles system design and supplies the necessary materials, while installation is carried out by specialized cladding and HVAC contractors overseen by on-site architects and engineers,” Wilkinson added. Finding the right flow: the importance of unitary airflow rates One of the key design factors in solar air heating systems is the amount of air that passes through each square meter of the perforated metal absorber,  known as the unitary airflow rate. The principle is straightforward: higher airflow rates deliver more total heat to the building, while lower flow rates result in higher outlet air temperatures. Striking the right balance between air volume and temperature gain is essential for efficient system performance. For unglazed collectors mounted on building façades, typical hourly flow rates should range between 120 and 170 (m3/h/m2), or 6.6 to 9.4 cfm/ft2. However, Wilkinson suggests that an hourly airflow rate of around 130 m³/h/m² (7.2 cfm/ft2) offers the best cost-benefit balance for building owners. If the airflow is lower, the system will deliver higher air temperatures, but it would then need a much larger collector area to achieve the same air volume and optimum performance, he explained. It’s also crucial for the flow rate to overcome external wind pressure. As wind passes over the absorber, air flow through the collector’s perforations is reduced, resulting in heat losses to the environment. This effect becomes even more pronounced in taller buildings, where wind exposure is greater. To ensure the system performs well even in these conditions, higher hourly airflow rates typically between 150 and 170 m³/m² (8.3 to 9.4 cfm/ft2)  are necessary. Figure 3: One of three apartment blocks of the Maple House in Toronto’s Canary District. Around 160 m2 (1,722 ft2) of SolarWall collectors clad the two-storey mechanical penthouse on the roof. The rental flats have been occupied since the beginning of 2024. Collaborators: architects-Alliance, Claude Cormier et Associés, Thornton Tomasetti, RWDI, Cole Engineering, DesignAgency, MVShore, BA Group, EllisDon. Photo: Conserval Engineering Solar air heating systems support LEED-certified building designs Solar air collectors are also well-suited for use in multi-unit residential buildings. A prime example is the Canary District in Toronto (see Figure 3), where single-stage SolarWall collectors from Conserval Engineering have been installed on several MURBs to clad the mechanical penthouses. “These penthouses are an ideal location for our air heating collectors, as they contain the make-up air units that supply corridor ventilation throughout the building,” explained Victoria Hollick, Vice President of Conserval Engineering. “The walls are typically finished with metal façades, which can be seamlessly replaced with a SolarWall system – maintaining the architectural language without disruption.” To date, nine solar air heating systems have been commissioned in the Canary District, covering a total collector area of over 1,000 m² (10,764 ft2). “Our customers have many motivations to integrate SolarWall technology into their new construction or retrofit projects, either carbon reduction, ESG, or green building certification targets,” explained Hollick. The use of solar air collectors in the Canary District was proposed by architects from the Danish firm Cobe. The black-colored SolarWall system preheats incoming air before it is distributed to the building’s corridors and common areas, reducing reliance on natural gas heating and supporting the pursuit of LEED Gold certification. Hollick estimates the amount of gas saved between 10 to 20 per cent of the total heating load for the corridor ventilation of the multi-unit residential buildings. Additional energy-saving strategies include a 50/50 window-to-wall ratio with high-performance glazing, green roofs, high-efficiency mechanical systems, LED lighting, and Energy Star-certified appliances. The ideal orientation for a SolarWall system is due south. However, the systems can be built at any orientation up to 90° east and west, explained Hollick. A SolarWall at 90° would have approximately 60 per cent of the energy production of the same area facing south.Canada’s expertise in solar air heating continues to set a global benchmark, driven by supporting R&D, by innovative technologies, strategic partnerships, and a growing portfolio of high-impact projects. With strong policy support and proven performance, solar air heating is poised to play a key role in the country’s energy-efficient building future. Figure 4: Claude-Bechard Building in Quebec is a showcase project for sustainable architecture with a 72 m2 (775 ft2) Lubi solar air heating wall from Aéronergie. It serves as a regional administrative center. Architectural firm: Goulet et Lebel Architectes. Photo: Art Massif Bärbel Epp is the general manager of the German Agency solrico, whose focus is on solar market research and international communication. The post Op-ed: Canada’s leadership in solar air heating—Innovation and flagship projects appeared first on Canadian Architect.

Industrial AI isn’t slowing down. Germany is ready. Following London Tech Week and GTC Paris at VivaTech, NVIDIA founder and CEO Jensen Huang’s European tour continued with a stop in Germany to discuss with Chancellor Friedrich Merz — pictured above — new partnerships poised to bring breakthrough innovations on the world’s first industrial AI cloud. This AI factory, to be located in Germany and operated by Deutsche Telekom, will enable Europe’s industrial leaders to accelerate manufacturing applications including design, engineering, simulation, digital twins and robotics. “In the era of AI, every manufacturer needs two factories: one for making things, and one for creating the intelligence that powers them,” said Jensen Huang, founder and CEO of NVIDIA. “By building Europe’s first industrial AI infrastructure, we’re enabling the region’s leading industrial companies to advance simulation-first, AI-driven manufacturing.” “Europe’s technological future needs a sprint, not a stroll,” said Timotheus Höttges, CEO of Deutsche Telekom AG. “We must seize the opportunities of artificial intelligence now, revolutionize our industry and secure a leading position in the global technology competition. Our economic success depends on quick decisions and collaborative innovations.” This AI infrastructure — Germany’s single largest AI deployment — is an important leap for the nation in establishing its own sovereign AI infrastructure and providing a launchpad to accelerate AI development and adoption across industries. In its first phase, it’ll feature 10,000 NVIDIA Blackwell GPUs — spanning NVIDIA DGX B200 systems and NVIDIA RTX PRO Servers — as well as NVIDIA networking and AI software. NEURA Robotics’ training center for cognitive robots. NEURA Robotics, a Germany-based global pioneer in physical AI and cognitive robotics, will use the computing resources to power its state-of-the-art training centers for cognitive robots — a tangible example of how physical AI can evolve through powerful, connected infrastructure. At this work’s core is the Neuraverse, a seamlessly networked robot ecosystem that allows robots to learn from each other across a wide range of industrial and domestic applications. This platform creates an app-store-like hub for robotic intelligence — for tasks like welding and ironing — enabling continuous development and deployment of robotic skills in real-world environments. “Physical AI is the electricity of the future — it will power every machine on the planet,” said David Reger, founder and CEO of NEURA Robotics. “Through this initiative, we’re helping build the sovereign infrastructure Europe needs to lead in intelligent robotics and stay in control of its future.” Critical to Germany’s competitiveness is AI technology development, including the expansion of data center capacity, according to a Deloitte study. This is strategically important because demand for data center capacity is expected to triple over the next five years to 5 gigawatts. Driving Germany’s Industrial Ecosystem Deutsche Telekom will operate the AI factory and provide AI cloud computing resources to Europe’s industrial ecosystem. Customers will be able to run NVIDIA CUDA-X libraries, as well as NVIDIA RTX- and Omniverse-accelerated workloads from leading software providers such as Siemens, Ansys, Cadence and Rescale. Many more stand to benefit. From the country’s robust small- and medium-sized businesses, known as the Mittelstand, to academia, research and major enterprises — the AI factory offers strategic technology leaps. A Speedboat Toward AI Gigafactories The industrial AI cloud will accelerate AI development and adoption from European manufacturers, driving simulation-first, AI-driven manufacturing practices and helping prepare for the country’s transition to AI gigafactories, the next step in Germany’s sovereign AI infrastructure journey. The AI gigafactory initiative is a 100,000 GPU-powered program backed by the European Union, Germany and partners. Poised to go online in 2027, it’ll provide state-of-the-art AI infrastructure that gives enterprises, startups, researchers and universities access to accelerated computing through the establishment and expansion of high-performance computing centers. As of March, there are about 900 Germany-based members of the NVIDIA Inception program for cutting-edge startups, all of which will be eligible to access the AI resources. NVIDIA offers learning courses through its Deep Learning Institute to promote education and certification in AI across the globe, and those resources are broadly available across Germany’s computing ecosystem to offer upskilling opportunities. Additional European telcos are building AI infrastructure for regional enterprises to build and deploy agentic AI applications. Learn more about the latest AI advancements by watching Huang’s GTC Paris keynote in replay.