innovation

As the world enters a new era of deep tech innovation, fields such as AI chips, Advanced Computing, Autonomous Vehicles, Smart Manufacturing, and MedTech have become strategic priorities for global investors and corporate venture capital (CVC). This momentum has accelerated collaboration between startups and the semiconductor supply chain, transforming innovative ideas into scalable market solutions.As part of its effort to foster global startup engagement, SEMI connects global innovators through two key platforms — the Silicon Startups Zone and the IC Taiwan Grand Challenge (ICTGC) — to accelerate innovation across the semiconductor ecosystem.Silicon Startups Zone: A Global Stage for Semiconductor Innovation The Silicon Startups Zone serves as a gateway for global startups and investors exploring opportunities in semiconductor innovation. Launched at SEMICON Taiwan 2025, the Silicon Startups Zone is organized by SEMI with support from the National Science and Technology Council (NSTC). It features over 20 startup teams from Taiwan and around the world, showcasing advancements in AI chips, advanced packaging, EDA tools, and sustainable solutions.Through UPNext Stage presentations and live technology showcases, startups engage directly with investors, chip designers, and technology providers. SEMICON Taiwan attracts over 100,000 industry professionals, fostering new partnerships, investment discussions, and collaborations — reinforcing Taiwan’s pivotal role in connecting global innovation with the semiconductor supply chain. The Silicon Startups Zone is more than just an exhibit space — it is a starting point for collaboration and commercialization. By leveraging SEMI’s global network and Taiwan’s world-class manufacturing ecosystem, the platform accelerates startup growth and builds a sustainable pathway for next-generation innovation.The 2026 Silicon Startups Zone welcomes qualified startups to participate, offering a dedicated showcase area, UPNext Stage speaking opportunities, and exclusive marketing and media exposure. For more details, please contact Sophie Chen at [email protected] Taiwan Grand Challenge (ICTGC): Precision Scouting for Global Deep Tech Collaboration Organized by the NSTC and promoted by SEMI, the IC Taiwan Grand Challenge (ICTGC) is a global competition focused on Deep Tech innovation — based in Taiwan and open to the world. With the theme “Prototyping to Production,” ICTGC identifies startups and innovators in five key areas: AI Chip Technology, Smart Mobility, Smart Manufacturing, MedTech, and Green Technology. The program invites global startups, research institutions, and entrepreneurial teams to apply. Selected winners receive up to US $30,000 in prize funding, along with technical mentorship and access to semiconductor manufacturing resources, including EDA tools, wafer fabrication, and packaging technologies. The 2026 Call for Proposals are open now through February 28, 2026. More than a competition, ICTGC serves as a platform for collaboration — connecting the semiconductor supply chain, academia, and venture partners to help startups accelerate development and market entry. For more details on the call proposals, please contact Sophie Chen at [email protected] or submit via the Google form.Two Platforms, One Mission: Connecting Innovation for the Future Together, the Silicon Startups Zone and IC Taiwan Grand Challenge (ICTGC) create a pathway for Deep Tech startups — from discovery to collaboration and growth. Through these initiatives, SEMI connects global innovators with the semiconductor ecosystem, driving cross-border partnerships and accelerating next-generation technologies. Please click here for more information.SEMI Contact Sophie Chen, Coordinator, Technical Projects Email: [email protected]

As healthcare undergoes a digital transformation, semiconductor technologies are emerging as a critical foundational enabler, making care more personalized, proactive, and accessible. At SEMI, we’re proud to highlight the leadership of STMicroelectronics (ST), a member and active participant in our Smart MedTech initiative’s governing council, for their commitment to advancing this critical frontier.With decades of experience in sensing, power management, and connectivity, ST is helping to shape a future where electronic systems seamlessly integrate with healthcare and wellness solutions, empowering both patients and providers.The Rise of Wearables and the Role of SemiconductorsST has long delivered innovation in automotive, industrial, and consumer electronics. Now, the company is applying its expertise to wearable health technologies, a rapidly growing segment that’s reshaping how we monitor, diagnose, and manage health.Today’s wearables go far beyond their predecessors. They capture vital signs and biomarkers such as heart rate variability, ECG signals, blood pressure trends, and more with medical-grade accuracy, providing real-time insights that can inform treatment and improve outcomes. This evolution represents not just a technological leap, but a shift in how we deliver and think about healthcare.A Shared Mission to Scale MedTech InnovationST’s active engagement with SEMI’s Smart MedTech initiative reflects our shared commitment to building an agile, responsive ecosystem that can bring life-changing technologies to the market faster. Through Smart MedTech, SEMI unites leaders across the electronics and healthcare value chains to identify systemic barriers, spark cross-sector dialogue, and co-create strategies for scalable success.ST brings invaluable perspective and technical depth to this mission. Their approach focusing on full solutions rather than standalone components, demonstrates how semiconductor companies can play a central role in enabling integrated healthcare systems.Meeting the Moment: Prevention, Personalization, and ReachHealthcare systems globally face mounting challenges: aging populations, chronic disease burdens, rising costs, and a projected shortfall of 18 million healthcare workers (WHO, 2019). Against this backdrop, wearables and remote health monitoring tools are poised to deliver tremendous value.As ST points out, the economic case is clear: treating chronic disease can be 100 times more expensive than prevention, wearables offer a proactive path forward. By enabling continuous, at-home health tracking, these devices empower individuals to take control of their wellness and allow providers to intervene earlier and more effectively.Accelerating the Future TogetherAt the SEMI 2025 Technology Workshop, ST joined a panel discussion exploring how semiconductors are reshaping healthcare. The session highlighted the need for earlier diagnosis, personalized care, and scalable solutions amid rising chronic disease and healthcare labor shortages.Panelists emphasized moving beyond component sales to integrated, system-level solutions. ST’s role on the Smart MedTech governing council emphasizes their commitment to cross-sector collaboration and advancing MedTech adoption.The MedTech revolution requires more than great products, it demands aligned ecosystems, shared knowledge, and coordinated strategies. As a member of SEMI and a key voice in our Smart MedTech initiative, ST exemplifies how semiconductor innovation can drive real change in healthcare.We’re proud to work alongside ST and other industry leaders who are committed to creating smarter, more sustainable healthcare through electronics. Because in today’s healthcare landscape, an ounce of prevention enabled by semiconductors isn’t just worth a pound of cure, it’s a blueprint for global health resilience.See the full ST article STMicroelectronics and Medtech: Enabling Personalized Healthcare and Wellness through the Integration of Electronics featured on Smart MedTech webpage.Gity Samadi is Senior Director of R D at SEMI.Rafael Tudela Senior Technical Marketing Manager at SEMI.Michelle Smith-Moritz is Senior Program Manager, Smart MedTech at SEMI.

Say ‘Ahhhh’ – imagine your doctor monitoring a health condition from afar or emergency responders receiving real-time alerts that could save a life. A new smart sensor is taking the ouch out of wound monitoring. By using laser-induced graphene (LIG), a two-dimensional (2D) material, researchers are developing a sensor that could revolutionize the tracking of wound healing and recovery. Doctors could get a much clearer picture of the healing process, identifying issues like inflammation, physical strain or a spike in body temperature early on. "This unique sensor material we've developed has potentially important applications in health care monitoring,” said Huanyu “Larry” Cheng, James L. Henderson, Jr. Memorial Associate Professor of Engineering Science and Mechanics (ESM) at Penn State. LIG sensors are self-powered which means they could be especially useful for continuous monitoring in clinical settings or helping detect fires in remote locations. Source: Materials Research Institute, Penn StateUnder the Sea – Mechanical engineers at Carnegie Mellon’s Soft Machines Lab have created a soft robot inspired by the quick and agile brittle starfish, the first mobile and untethered underwater crawling robot. Named after Sponge Bob Square Pants’ sidekick, PATRICK is an AI powered robot which operates without motors so as not to disturb delicate sea life. To make the robot move, the researchers hit it with electric current, causing the wires to heat up past its transition temperature and allowing the limbs to contract and move in different directions. “We want to put the power and the electronics on-board with the robots,” said Ph.D. candidate and PATRICK creator, Zach Patterson. The soft robotic systems which are ideal for tracking the health and quality of water, are biodegradable to eliminate waste and protect the natural environment.Source: Carnegie Mellon University, School of Engineering The sky is NOT the limit with engineering – While Blue Origin made the news recently for sending an all women crew to the edge of space, the first Mexican born woman to travel into space is Katya Echazarreta, an electrical engineer originally from Guadalajara, Mexico. Echazarreta was selected for the trip from a pool of 7,000 applicants from more than 100 countries based on her outstanding achievements in the space industry, including five NASA missions. She traveled to space in 2022 aboard Blue Origin’s NS-21 flight as one of Space for Humanity’s citizen astronauts. Echazarreta comes from a family of engineers and works to make space exploration accessible to young kids, teens, women, and other scientists and engineers through Fundación Espacial, a foundation started in Mexico. Source: Astronomy.comMargaret Kindling is Senior Program Manager at the SEMI Foundation. She promotes inclusive workplaces via initiatives including Women in Semiconductors, Semiconductor PRIDE and workforce and career development programming at SEMICON West and SEMIEXPO Heartland.

In a world where technological advancements move at lightning speed, the semiconductor industry is facing unprecedented challenges. The demand for smaller, faster, and more energy-efficient devices is growing, and traditional manufacturing processes are being pushed to their limits. Enter Spin-on Dielectrics (SOD), a breakthrough material technology that offers a cost-effective, scalable solution for micro-gap filling and high-performance dielectric films. As the industry evolves, SOD is expected to play a pivotal role in enabling the next generation of chips that power everything from AI to everyday electronics.To learn more, SEMI Europe and Merck KGaA, Darmstadt, Germany, held a joint webinar that focused on semiconductor device process evolution by SOD. The session featured insights from three technology experts in the company, including Dr. Surésh Rajaraman, Executive Vice President and Head of Thin Film Business Unit, along with Atsuko Yamamoto, R D Manager for Spin-On Dielectric, and Go Nakano, Global Marketing Manager for Dielectric Materials.SEMI: What is SOD, and how does it fit within the broader semiconductor manufacturing process?Rajaraman: SOD, Spin on Dielectrics, is a unique class of materials used to deposit thin layers of dielectric films, which act as insulators or other functional films, on semiconductor devices. The fabrication of a semiconductor chip involves thousands of intricate steps that incorporate conductors, semiconductors, and insulators. SOD is a versatile technology that supports device performance and miniaturization by enabling better gap fill and film uniformity, all while offering attractive cost of ownership.SEMI: Why is there so much focus on SOD materials, and how are they evolving to meet future industry demands?Rajaraman: As semiconductor devices become more complex—such as 3D NAND scaling to more than 300 layers and DRAM incorporating pillar capacitors—there’s a growing need for materials that can address challenges like interconnect delays, power consumption, and heat generation while maintaining optimal performance. Traditional dielectric materials are reaching their limits, making Spin-on Dielectrics (SOD) a critical solution. SOD offers advantages like bottom-up and seam-free gap filling, enabling ultra-thin insulating and other functional layers that enhance electrical and thermal efficiency and support next-generation device scaling.The industry is pushing the boundaries of scaling, with increasing aspect ratios and complex structures in Logic, 3D NAND and DRAM. Modern devices now require deposition in features which are not only incredibly narrow but also increasingly deep due to going into the third dimension. This creates new challenges, such as stress buildup and cracking in conventional SOD materials. To overcome this, we are developing enhanced formulations with improved mechanical stability and polymer backbone engineering. These innovations enhance gap-filling properties and resistance to process-induced stress, ensuring SOD remains a key enabler for advanced semiconductor manufacturing.SEMI: What are the current industry trends driving the adoption of SOD?Nakano: SOD is becoming a key technology because of its excellent gap-filling performance. Unlike gas-phase deposition methods like Chemical Vapor Deposition (CVD) and Atomic Layer Deposition (ALD), SOD is a liquid-phase process. This makes it more efficient for high-aspect-ratio structures. It also helps reduce costs while maintaining high-performance dielectric properties.With increasing demand for high-density memory and logic devices, SOD is crucial for applications like DRAM and NAND flash, which require precise dielectric layer formation. In DRAM, we’re witnessing a shift from planar to vertical transistors, and even to monolithic 3D DRAM. These changes require new materials for gate insulators and electrodes, alongside improvements in aspect ratio gap filling.For NAND memory, manufacturers are increasing the number of memory layers, leading to taller memory stacks and deeper trenches. As lateral scaling progresses, narrower and more complex structures demand high-aspect-ratio trench fills to maintain performance and reliability.Logic devices are also evolving, with transistor structures moving from FinFETs to nanosheets and forksheets. This transition enhances performance, but it also introduces challenges in wiring density and electrical properties. The narrower pitch of wiring requires advanced dielectric solutions, like SOD, to enable reliable, high-performance semiconductor architectures.SEMI: With all these recent innovations, what role does Merck KGaA, Darmstadt, Germany play in supporting these advancements, and what does the company offer its customers? Rajaraman: As the semiconductor industry pushes the boundaries of scaling, doing so requires materials that can support increasingly complex structures. We are the only materials company in the industry to possess the full spectrum of process technologies for gap-filling capabilities, including SOD, ALD, CVD, and Flowable CVD. Our strategic acquisition of Versum Materials has expanded our capabilities with organosilicon precursors. Combined with our SOD expertise, it allows us to reengineer material backbones with more material choices and tailored properties to optimize performance in high-aspect-ratio applications.To support this, we’ve expanded our global R D footprint. We now operate in various application labs, enabling close collaboration with customers for material customization and fine-tuning properties to address specific manufacturing challenges. Last year, we inaugurated a new R D center in Korea as part of our commitment to being near our customers and accelerating time-to-market for next-generation semiconductor solutions. As semiconductor roadmaps become more complex, customization and collaboration also become more critical. The key to innovation lies in working closely with our customers, understanding their challenges, refining materials, and optimizing processes together. By fostering this ongoing partnership, we can accelerate technological advancements and ensure that new solutions align seamlessly with evolving industry demands.SEMI: Can you share some technical insights on SOD?Yamamoto: SOD is a key material used in semiconductor manufacturing to create insulating layers with high precision. One of the essential components in SOD is PHPS (Perhydropolysilazane), a polymer composed of silicon, nitrogen, and hydrogen. This material is applied as a liquid solution and transforms into a high-quality silicon oxide film through a series of thermal processes.PHPS is essential because it enables precise gap filling in extremely small structures, helping to improve device reliability. The process involves spin-coating the polymer onto a wafer, followed by pre-baking to remove solvents. Then, it undergoes high temperature curing in an oxygen and steam atmosphere, forming a dense silicon oxide film. This method ensures uniform coverage and cost efficiency compared to traditional dry film deposition techniques.Our Spinfil® product line has evolved over the past two decades, starting with the Spinfil® 400 series and advancing through the Spinfil® 600 to the widely used Spinfil® 800 series. These improvements have enhanced gap-filling capabilities and film uniformity, making them ideal for high-aspect-ratio trench structures. The critical baking process involves spin coating and pre-baking before wafers undergo batch processing in a high-temperature furnace. Controlled temperature and moisture conditions transform Spinfil® into silicon oxide films, optimizing properties such as refractive index, shrinkage, and etching resistance and ensuring reliability in semiconductor applications.SEMI: What are the latest trends in new polymer development for SOD?Yamamoto: Our research focuses on three key areas: enhancing film quality, developing SOD for high-aspect-ratio trench filling, and advancing low-k SOD for semiconductor processes.To improve film quality, we introduced the Neofil®series, an evolution of the Spinfil® 800 series. This innovation reduces film shrinkage, lowers stress, and enhances wet etching rates, making it ideal for next-generation semiconductor nodes.Our latest Neofil® series for high-aspect-ratio trench filling is targeted for traditional dry processes like CVD and ALD, which can often lead to void formation and require multiple deposition-etch steps. Our latest SOD materials address this by improving polymer elasticity, ensuring uniform filling of deep trenches up to 16 microns without cracks, making them suitable for emerging 3D nanostaircase designs.In low-k SOD development, we’re focusing on siloxane-based polymers, which provide excellent trench-filling capabilities while maintaining strong mechanical and electrical properties. Compared to flowable CVD and ALD, SOD offers a more cost-effective and efficient alternative. With continued advancements, we anticipate SOD will become a key material for future semi-damascene processes, enhancing embedding performance and overall device reliability.SEMI ContactSitong He, Communications Manager Email: [email protected]

Superconducting Naturally – Miassite is a naturally occurring mineral which scientists at Ames National Laboratory have identified as the first unconventional superconductor found in nature. Unlike conventional superconductors that follow the Bardeen-Cooper-Schrieffer (BCS) theory, minerals such as miassite exhibit unique properties outside of this framework. Made of rhodium and sulfur, miassite was initially recognized as a regular superconductor in 2010. Recent tests confirm it joins a small, exclusive group of unconventional superconductors previously limited to lab-made materials.Lab tests on miassite involved measuring magnetic reactions, inducing defects, and analyzing energy gaps, all confirming its unconventional behavior. While naturally occurring, samples are unlikely to be superconductive due to their disordered state, miassite’s lab-verified properties open doors to new research and highlight its unique duality as both a conventional and unconventional superconductor.Source: A Superconductor Found in Nature Has Rocked the Scientific WorldPheromones + vision = mate selection – When choosing a mate, Heliconius butterflies, despite their tiny brains can outperform current AI in multi-sensory decision-making by processing visual and chemical cues simultaneously. This discovery inspired Penn State researchers to develop a low-energy, multi-sensory AI platform using 2D materials. The device combines molybdenum sulfide (MoS2) to mimic visual capabilities and graphene to detect chemical signals like pheromones.The device could integrate visual and chemical cues, offering adaptability like a butterfly’s mating behavior. This innovation addresses limitations in current AI, which relies heavily on energy-intensive, single-sensory processes. Researchers aim to expand the device to process three senses, like crayfish using visual, tactile, and chemical cues. The work, supported by the U.S. Army Research Office and the U.S. National Science Foundation, could revolutionize applications in robotics, smart sensors, and critical environments, by enabling AI systems to detect issues using multiple sensory inputs efficiently. Imaging of Heliconius Butterfly A Butterfly Effect – Proving once again that there is a lot to be learned from nature, researchers from the Fraunhofer Institute for Solar Energy Systems ISE have developed innovative, colored solar facade elements inspired by morpho butterfly mimicry. These panels are aesthetically pleasing, integrate seamlessly into building exteriors, and retain high efficiency, achieving 95% of the power output of uncoated panels. Using vacuum-applied 3D photonic structures like those on butterfly wings, the panels produce vibrant, angularly stable colors with minimal energy loss. This MorphoColor® technology addresses architects’ and building owners’ concerns about design, offering an efficient, visually appealing solution for building-integrated photovoltaics while surpassing other technologies currently available.Close up of a morpho butterfly wingSustainable Flight – The world’s fastest supercomputer, Frontier, located at Oak Ridge National Laboratory, enables unprecedented advancements in sustainable aviation technology. Capable of over a quintillion calculations per second, Frontier allows GE Aerospace to conduct full-scale simulations of its revolutionary Open Fan engine design, accelerating insights into aerodynamics and turbulence. This groundbreaking tool aids the CFM RISE program, which aims to cut fuel consumption and CO2 emissions by at least 20%. Frontier’s detailed simulations predict engine performance under real-world conditions, saving years of testing. The partnership between GE Aerospace and Oak Ridge is expanding, promising future collaborations in climate modeling and advanced simulation techniques.An Open Fan engine design developed as part of a new project led by GE AerospaceSource: https://www.geaerospace.com/news/articles/new-frontier-how-ge-aerospace-using-worlds-fastest-supercomputer-help-design-open-fanMargaret Kindling is Senior Program Manager at the SEMI Foundation. She promotes inclusive workplaces via initiatives like Women in Semiconductors, Semiconductor PRIDE and workforce development programming at SEMICON West and SEMIEXPO Heartland.

The sensor revolution is shaping the future of connectivity, with innovation in MEMS and imaging technologies paving the way for a smarter and more integrated world.As the world becomes increasingly interconnected, MEMS and imaging sensor technologies are driving transformative changes across industries, shaping the future of connectivity, intelligence, and sustainability. Powered by advances in miniaturization, AI integration, and sustainable design, MEMS and imaging technologies are enabling groundbreaking applications—from autonomous vehicles to wearable health devices—while addressing urgent global challenges like climate change and energy efficiency. At the MEMS Imaging Sensors Summit 2024, Laith Altimime, President of SEMI Europe, emphasized the pivotal role of MEMS and imaging technologies. Setting the stage for discussions on technological breakthroughs and market trends, Altimime remarked, “Sensors are at the heart of the next wave of innovation, enabling unprecedented levels of intelligence that are transforming industries and fostering a smarter, more sustainable, and seamlessly connected future.”Laith Altimime, President, SEMI EuropeStefan Finkbeiner, CEO of Bosch Sensortec, underscored in his opening keynote how advanced sensor technologies are enabling life-changing use cases. “Sensors are all around us, though we don’t always notice them,” emphasizing sensors’ ubiquitous role in smartphones, wearables, and hearables. Finkbeiner highlighted miniaturization as a key challenge, noting that even as sensors continue to shrink, they are increasingly integrated with edge AI to enable efficient, local decision-making.Stefan Finkbeiner, CEO, Bosch SensortecSimone Ferri, APMS Group Vice-President and MEMS Sub-Group General Manager at STMicroelectronics, highlighted the pivotal role of sensors as a bridge between the physical and digital world, noting “the most sophisticated machine is the human – so it is best to emulate human capabilities to enable the next generation of devices to accurately measure the parameters of your body.” Ferri stressed the importance of sustainability, advocating for smart, transformative, and precise sensors that provide meaningful data with optimal efficiency. By aligning technological innovation with environmental responsibility, Simone Ferri demonstrated how sensorization can enhance lives while enabling a net-zero transition across industries.Simone Ferri, APMS Group Vice-President and MEMS Sub-Group General Manager, STMicroelectronicsMEMS Growth Fueled by Piezo Materials and ElectrificationJean-Christophe Eloy, CEO and President of Yole Group, grounded the discussion in market data, forecasting a 5% CAGR for the MEMS market, which is set to exceed $20 billion by 2029. He highlighted key trends such as the increasing sophistication of automotive sensors—more cameras, higher resolution—and the impact of electrification. On the technology front, Eloy noted a “strong shift towards piezoelectric (piezo) MEMS,” driven by advancement in new materials like Lead Zirconate Titanate (PZT), Aluminum Nitride (AIN), and Scandium-doped Aluminum Nitride (ScAIN).Jean-Christophe Eloy, CEO and President, Yole GroupAlissa Fitzgerald, CEO of A.M. Fitzgerald Associates explored the expanding roles of MEMS technology in new domains, such as fiber optics for data centers. “Photonics is in the news,” she remarked, highlighting its potential to deliver 40% power savings compared to copper technologies. “MEMS manufacturing is set to evolve by 2030 and beyond,” said Fitzgerald, emphasizing the continued innovation in traditional wafer-based processes through the adoption of advanced thin-film materials like piezoelectrics and GaN. Furthermore, Fitzgerald discussed emerging manufacturing techniques such as 3D-printed MEMS and biodegradable materials to enable low-cost, sustainable sensors.Alissa Fitzgerald, CEO of A.M. Fitzgerald AssociatesAdding to the conversation on manufacturing, Jessica Gomez, CEO of Rogue Valley Microdevices, shared her perspective on how 300mm-capable MEMS foundries could “change the game,” improving production efficiency and lowering costs. Gomez also outlined the unique challenges of MEMS manufacturing, including the need for custom processes and the high-mix, low-volume nature of production.Advancing Smart Mobility Through Interoperable NetworksSmart mobility gained significant traction as Patrice Ancel, In-Vehicle Technologies Leader at BMW, tackled the intricacies of in-vehicle networking. Ancel shed light on the complexities of today’s vehicles, which contain 20,000 components and over 100 electronic control units (ECUs) from multiple suppliers. His message was clear: “Interoperability is key for us; without interoperability, none of this will happen.” Ancel’s call for collaboration resonated throughout the summit, highlighting the critical role of teamwork in driving innovation and progress within the automotive industry.Patrice Ancel, In-Vehicle Technologies Leader, BMWA Vision for the Future: Sustainability, Collaboration, and InnovationThe MEMS Imaging Sensors Summit demonstrated how collaboration, sustainability, and innovation are driving the sensor industry forward. From addressing market trends to tackling manufacturing challenges, the discussions revealed a shared commitment to creating a smarter, more connected world.On behalf of SEMI, the SEMI Europe team would like to thank the industry leaders whose expertise and enthusiasm made this summit a resounding success. SEMI ContactAna Bernardo, Manager of Technology ProgramsEmail: [email protected] Mobile: +49 175 4129 764Sitong He, Communications Manager Email: [email protected]: +49 151 5546 2638

New pilot lines offer European innovators access to the most advanced semiconductor technologies for product development and validation.The global semiconductor landscape has undergone significant transformation in recent years. With disruptions such as the semiconductor supply chain crisis and the challenges it posed to the automotive sector, Europe’s dependence on external fabrication facilities, particularly in Taiwan, has become a pressing concern. In response, the European Union (EU) introduced the EU Chips Act, a comprehensive framework designed to reduce this reliance and boost Europe’s share of the global semiconductor market. ITF Chip into the Future, hosted by imec at SEMICON Europa 2024, was a pivotal event that brought together industry leaders, policymakers, and experts to explore the implementation of the EU Chips Act and the future of Europe’s semiconductor ecosystem. Jari Kinaret, Executive Director of the Chips Joint Undertaking (Chips JU)—the body overseeing the EU’s semiconductor investments—explained, “The Chips JU is about capacity building to drive semiconductor innovation in Europe. We will continue to be dependent on the rest of the world, but we want to make sure that the rest of the world depends on us as well.” Jari Kinaret, Executive Director, Chips JUEuropean research is driving progress towards sub-nanometer fabricationOne of the pilot lines, located at imec’s research center in Belgium, is focused on advancing methods that push Moore’s Law forward by achieving smaller and more efficient circuit features. As Luc Van den hove, President and CEO of imec, explained, “imec is now powering innovation for tomorrow’s chip designs, including stacked layers of chips, with each layer containing specific functionality implemented on chip processes optimized for each function. This allows us to scale much further than if all functionality had to be implemented on a single monolithic layer.”Luc Van den hove, President and CEO, imec Another pilot line, based in France and operated by CEA-Leti, is focused on pushing the limits of technology across multiple dimensions. CEA-Leti CEO, Sébastien Dauvé, explained that the goal of the FAMES pilot line is to advance “not only FD-SOI at 10nm and 7nm nodes, but also novel non-volatile memory technologies, RF components, 3D integration, and the development of small inductors for DC-DC converters.” Sébastien Dauvé, CEO, CEA-LetiAdvancements in 3D integration and chiplet technologies are closely tied to innovation in chip packaging. Christoph Kutter, Executive Director of Fraunhofer EMS, described how the Advanced Packaging and Heterogeneous Integration for Electronic Components and Systems (APECS) pilot line in Germany is designed to meet the needs of industrial customers’ growing demand for advanced packaging solutions. Kutter noted “Customers told us that they needed to integrate logic and power, sensors and logic, and other combinations of functions. We have built the APECS pilot line to provide what they asked for.”Christoph Kutter, Executive Director, Fraunhofer EMSThe EU Chips Act is spurring investments not only in chip fabrication but also in the underlying technologies which support chipmaking. Emmanuel Sabonnadière, EVP at Soitec, highlighted how fabrication of advanced silicon carbide (SiC) power devices “is enabled by SmartSiC™ technology from Soitec – part of a built-in-Europe solution for silicon carbide.” Sabonnadière explained that SmartSiC technology “creates very thin layers of SiC material which make really differentiated substrates supporting the production of high-performance SiC devices.” Emmanuel Sabonnadière, EVP, SoitecInnovation in materials emerged as an important theme at ITF Chip into the Future. Julien Arcamone, Vice President of Corporate R D at ASM, described the critical role of materials for atomic layer deposition (ALD) in the advancing 3D semiconductor integration. Arcamone emphasized the importance of collaboration across the semiconductor value chain, describing ASM’s partnership with imec as part of “a win-win ecosystem.” Julien Arcamone, Vice President of Corporate R D, ASMDeveloping the skills to implement advanced semiconductor technologiesWhile the EU Chips Act is subsidizing the construction of new facilities including pilot lines needed for the hardware of the semiconductor industry’s expansion – the ITF speakers underlined the equally important “software” element of the semiconductor industry ecosystem: the knowledge and expertise of the people working in the industry. One of the biggest challenges in implementing the EU Chips Act is addressing Europe’s talent gap. Katrien Marent, Executive Vice President and Chief Marketing and Communications Officer at imec, said that the gap is in part “because students who graduate in STEM subjects are not trained in advanced semiconductor technologies.” From left to right: Katrien Marent, Executive Vice President and Chief Marketing and Communications Officer, imec; Julien Arcamone, Vice President of Corporate R D, ASM; Thomas Heurung, CEO, Siemens EDA; Frédérique Le Grevès, President STMicroelectronics France and Executive Vice President, Europe France Public Affairs, STMicroelectronics; Romano Hoofman, Director imec.IC-link, imec; and Christophe Frey, Vice-President of EU engagements Managing Director, ARM.Thomas Heurung, CEO of Siemens EDA, highlighted the need for educational reform in the electronics industry. He suggested that “we might not have the right degree-level curriculum for changing times in the electronics industry. We need to change the way that we train students at university, and we need more scope for early or mid-career training on specialist micro-curriculums aimed at a particular skill or knowledge set.”The industry also struggles to attract individuals. Frédérique Le Grevès, President of STMicroelectronics France and Executive Vice President, Europe France Public Affairs of STMicroelectronics, emphasizes the importance of rebranding the industry to attract new talent. She remarked, “The word ‘semiconductor’ itself isn't very exciting—it’s even off-putting to some. By simply changing the name of educational programs, we’ve seen significant increases in enrollment. This demonstrates the power of language in shaping perceptions and interest.”Thomas Heurung of Siemens EDA also called for a stronger emphasis on entrepreneurship, noting “there is a big contrast between Europe and the US, particularly Silicon Valley.” He explained how his company’s Cre8Ventures unit had been set up to help start-ups through the key stages of creating a successful new company, including product development, attracting funding, and bringing the product to market. Thomas Fleischmann, Program Manager at Robert Bosch, explained how the EU Chips Act has accelerated the formation of the European Semiconductor Manufacturing Company (ESMC) joint venture, in which Bosch is a key stakeholder. ESMC is building a new semiconductor fabrication plant in Dresden, dedicated to producing chips for the automotive and industrial sectors. Fleischmann emphasized that ESMC will play a crucial role in helping Europe “scale advanced technologies to high volumes at a competitive cost.”In addition, the EU Chips Act also provides a broader platform for the expansion of Europe’s deep tech capacity. This includes the creation of five pilot lines, which will offer European companies access to manufacturing capacity for prototyping at the most advanced semiconductor technology nodes.Thomas Fleischmann, Program Manager, Robert BoschITF Chip into the Future at SEMICON Europa 2024 highlighted the broad scope of the EU Chips Act – not only supporting the building of advanced fabs but also providing the foundations for technology development, production, and marketing – all aimed at supporting semiconductor innovation in Europe. SEMI ContactMaria Daniela Perez, Communications ManagerEmail: [email protected]

Leaders in the semiconductor industry are finding ways to balance rapid demand growth with strategies to mitigate the risks of geopolitical uncertainty and a complex supply chain.At the CxO Summit during SEMICON Europa, industry leaders gathered to share insights into the immense opportunities ahead for the semiconductor sector, as well as the challenges that could impede growth. Laith Altimime, President of SEMI Europe, highlighted how discussions last year centered on reaching $1 trillion in global sales by 2030. “The conversation today is about how far above $1 trillion we will be in 2030,” said Altimime. “Artificial intelligence is an amazing and exciting technology, and the semiconductor industry is at the heart of it.”Laith Altimime, President, SEMI EuropeAjit Manocha, President and CEO of SEMI, described the current state of the semiconductor industry with one word – “unprecedented.” Emphasizing quantum computing as the next growth driver after AI, Manocha urged leaders to prepare for the next landmark - $4 trillion in global sales by 2040. However, the challenges facing the industry are equally unprecedented. Manocha identified four key obstacles: geopolitical volatility, the Net Zero challenge, the competition for top talent, and supply chain disruptions. “We need to work together to solve these challenges – we need unprecedented collaboration,” he explained. Ajit Manocha, President and CEO, SEMIA European Perspective on the Industry’s ChallengesWith the CHIPS Act in the US and the European Union (EU) Chips Act, the industry is also seeing unprecedented governmental engagement. Gustav Kolbe, Acting Director of Enabling and Emerging Technologies at Directorate-General for Communications Networks, Content and Technology of the European Commission, explained that Europe had been deeply impacted by the effect of trade tensions and supply chain disruptions. “In the field of semiconductors, we realized that we cannot keep doing business as usual and expect to achieve more resilience and reduced dependence on non-European supply chains,” Kolbe said. Gustav Kolbe, Acting Director of Enabling and Emerging Technologies, DG CONNECT, European CommissionJari Kinaret, Executive Director of the Chips Joint Undertaking (Chips JU), which is responsible for implementing EU Chips Act programs, described how its projects amplify the effect of EU funding by leveraging matching contributions from member states and participating companies. “This means that our budget of €4 billion actually produces investments in the semiconductor industry of about €11 billion,” he noted. Jari Kinaret, Executive Director, Chips JUThe Chips JU funded projects are designed to position Europe at the forefront of advanced semiconductor technology. Belgium’s imec, for example, is operating a Chips JU pilot line focused on leading-edge semiconductor innovation. Luc Van den hove, President and CEO of imec, highlighted the potential for 3D integration, “We can now combine multiple chips through silicon interposers with very fast connectivity between them. This allows us to build compute platforms which are far larger than what can be made with a single silicon chip,” he explained referring to this approach as “CMOS 2.0.” However, Van den hove warned that Europe cannot achieve its goals alone, emphasizing the complex semiconductor value chain and the need for collaboration. “Self-sufficiency leads to mediocrity,” he warned, advocating for a global approach that leverages the “best of the best.”Luc Van den hove, President and CEO, imecStephan Haferl, Chief Executive Officer of Comet Group, introduced the CA20, a tool designed to improve efficiency and quality in semiconductor manufacturing. The CA20 uses advanced imaging and AI to quickly identify and address production challenges, such as defects in solder bumps, without damaging components. Now fully automated, it integrates smoothly into factory workflows, providing real-time information to help manufacturers maintain high standards and increase production yields. This innovation highlights the role of new technologies in overcoming key obstacles and driving progress in the semiconductor industry.Left to right: Isabella Drolz, Vice President Marketing Product Strategy, Comet Yxlon; Laith Altimime, President, SEMI Europe; Stephan Haferl, Chief Executive Officer, Comet Group; and Dionys van de Ven, President, Comet YxlonCarlos Mazure, Chief Strategy Officer at Institute of Microelectronics – A*STAR in Singapore, illustrated this point by highlighting the institute’s focus on advanced packaging, a key Singaporean strength. “We have built a state-of-the-art 300mm prototyping line, enabling companies to implement wafer-to-wafer and chip-to-wafer bonding as well as fanout chip packaging,” Mazure said. Carlos Mazure, Chief Strategy Officer, Institute of Microelectronics – A*STARTurning back to Europe, Pierre Barnabé, CEO of Soitec, highlighted materials science as a regional strength. Soitec’s engineered substrates are driving energy efficiency breakthroughs in electronic, acoustic, and photonic applications. “We can bond anything to anything, creating advanced substrates for any active layer,” Barnabé explained. Pierre Barnabé, CEO, SoitecKai Beckmann, Member of the Executive Board and CEO Electronics at Merck KGaA, Darmstadt, Germany, also emphasized the role of materials in enabling sustainable growth. “The semiconductor industry faces a challenge with the contribution of process gases to its total greenhouse gas emissions. We hope to solve the problem by using AI to support materials research, and to design new molecules – an approach we have learned from the pharmaceuticals industry,” Beckmann shared. Kai Beckmann, Member of the Executive Board and CEO Electronics, Merck KGaA, Darmstadt, GermanyCollaboration Strengthens the Semiconductor Supply Chain Despite the breadth of enabling technologies emerging from Europe, the rapid growth in semiconductor demand has not always been matched by a secure supply. Barbara Frenkel, Member of the Executive Board Purchase at Porsche, shared that the company is collaborating with the industry to improve its access to the chips needed for automotive electrification. This includes joining industry groups such as the SEMI Global Automotive Advisory Council (GAAC) and, as she said, “learning your language.” Frenkel added, “Porsche aims to emulate Apple’s approach with Intel and Motorola to drive innovation – we will do the same with suppliers of automotive chips.”Barbara Frenkel, Member of the Executive Board Purchase, PorscheAnother solution to supply constraints is to widen the supply pipeline. John Behnke, General Manager for Smart Manufacturing at Inficon, described how smart technology can significantly improve efficiency and output. “A semiconductor fab is 100 times more complicated than anything else in the world – it is a mathematical nightmare to model it. That gives massive opportunities for improved productivity if we can implement smart control technologies,” Behnke explained. John Behnke, General Manager for Smart Manufacturing, InficonThe Challenge of Achieving Sustainable GrowthWhile the prospect of exceeding $1 trillion in annual sales energizes the industry, there is widespread recognition that growth must not come at the expense of environmental responsibility. As the industry doubles in size in the 2020s, it cannot afford to double its use of resources, such as energy or greenhouse gas emissions. Frédéric Godemel, Executive Vice President for Power Systems and Services at Schneider Electric, shared that the biggest impact on sustainability could come from “energy frugality” – using energy more efficiently. He explained that implementing data fusion in a semiconductor fab – combining detailed analysis of the operation of chillers with external data sets, such as weather conditions to allow for more efficient use – results in energy savings of 10%. “This approach saved costs, reduced CO2 emissions, and provided a financial payback in less than one year,” Godemel said.Frédéric Godemel, Executive Vice President for Power Systems and Services, Schneider ElectricThe value of smart control in fab operations was also highlighted by Katharina Westrich, Global Vice President of Electronics, Semiconductors Simulation Digital Industries at Siemens. She described how Siemens makes digital twins of factories before they are built. “This is an approach that the semiconductor industry can also adopt,” Westrich said. “A digital twin enables more efficient allocation of resources to the fab and sub-fab, allowing simulation of fab operation and optimization of processes and resources.”Katharina Westrich, Global Vice President of Electronics, Semiconductors Simulation Digital Industries, SiemensThe semiconductor industry faces a future full of opportunity, yet also marked by significant obstacles—ones that delegates at the CxO Summit are now better equipped to tackle head-on.On behalf of SEMI, the SEMI Europe team would like to express appreciation to the industry leaders for sharing their visions and readiness to collaborate during the CxO Summit.SEMI ContactCassandra Melvin, Senior Director of Business Development and OperationsEmail: [email protected]

How Cool is That - Northrop Grumman’s “World’s Fastest Microchip” won the 2024 “Coolest Thing Made in California” contest, organized by the California Manufacturers Technology Association (CMTA). Public votes were cast for 138 California-made products in four rounds, culminating in this microchip—boasting speeds up to 1 terahertz—being crowned the winner. Manufactured in Redondo Beach, CA, the chip is 1,000 times faster than smartphone processors and represents California’s cutting-edge manufacturing sector. The contest and award ceremony were celebrated during CMTA’s MakingCA Conference, honoring manufacturing’s $310 billion contribution to the state’s economy. Doing the Green Wave - NIST scientists have successfully created a compact, full-spectrum laser covering the green-yellow-orange wavelengths, long considered challenging to produce. Traditional semiconductor lasers struggled with green wavelengths due to material limitations, so NIST turned to nonlinear optics, producing different wavelengths by adjusting silicon nitride device geometry and laser input. This breakthrough enables more precise, pure wavelengths ideal for quantum computing, medical devices, and underwater communications. Their method combines pump laser tuning and device adjustments, achieving 150+ wavelengths, demonstrating a significant advancement in accessible, high-quality lasers.Source: NIST’s Compact Green Semiconductor Laser - IEEE SpectrumEnergy Hero - At the 2024 ITF World conference, AMD CEO Lisa Su spotlighted a new goal: a 100x boost in computing efficiency by 2027. As shrinking transistor sizes yield diminishing returns, materials innovation has become essential for boosting performance and efficiency. Applied Materials has responded with advanced materials engineering solutions, harnessing exotic elements and 3D chip designs to improve efficiency. For instance, Applied’s Integrated Materials Solution™ combines six process technologies to reduce chip wiring resistance by 25%, a critical advance as semiconductor nodes shrink to the atomic scale. These methods promise breakthroughs in power efficiency across AI, personal electronics, and more. Building Automation of the Future - Imagine a future where every device in newly built structures— from HVAC systems and appliances to light switches and sensors—is equipped with a microprocessor and linked through a reliable communication network. This could transform how buildings operate, yielding substantial benefits across various sectors. Chip manufacturers would see new growth opportunities, while builders could offer smarter, more efficient homes. Consumers would gain convenience and comfort, as buildings could dynamically adjust to personal preferences and real-time needs. For instance, rooms would automatically adapt their temperature as people move through them, making manual thermostat adjustments obsolete. This automated approach wouldn’t just create a more comfortable environment but would also optimize energy use, potentially lowering costs and benefiting the environment.Source: Building Automation of the Future - EE TimesDo you have a fun fact to share? We invite SEMI members to share fun facts about the industry or their company. We’ll consider your tidbits for inclusion in future blog articles and or posting on social media. Complete our survey form or email [email protected]. Learn more about the SEMI Foundation and its initiatives to promote industry awareness and help provide a path for those interested in rewarding careers in microelectronics. Follow the SEMI Foundation on LinkedIn, Instagram, X and Facebook. Margaret Kindling is Senior Program Manager for Diversity, Equity, and Inclusion at the SEMI Foundation. She promotes inclusion and belonging via Women in Semiconductors, Semiconductor PRIDE and SEMICON West Workforce Development Pavilion programming.

In today’s rapidly evolving semiconductor industry, ensuring both precision and efficiency in manufacturing has become an increasing challenge, particularly as advanced technologies like MEMS and AI chips push the boundaries of design and production. Inspection methods that were once sufficient are now falling short, making room for cutting-edge solutions powered by artificial intelligence (AI). The introduction of AI-driven 3D X-ray inspection technologies is transforming the landscape, offering manufacturers a sophisticated tool to ensure quality control, while driving sustainable production strategies.SEMI spoke with, Joscha Malin, Product Manager, and Daniel Stickler, R D Expert for X-ray Imaging at Comet AG, Industrial X-Ray System Division, to explore how AI-powered 3D X-ray inspection technologies are shaping manufacturing. They delve into how these technologies address critical challenges during inspections and defect analysis, using tools such as Dragonfly 3D World software for user-friendly, AI-driven insights that facilitate effective decision-making.Further insights into the application of AI-powered 3D X-ray inspection technologies and their role in advancing MEMS manufacturing will be presented by Stickler at the SEMI MEMS Imaging Sensors Summit on November 14, 2024, in Munich, Germany. Registration is now open.SEMI: Thank you both for agreeing to share your insights. To start, can you explain the importance of inspection strategies in the context of MEMS manufacturing?Malin: As MEMS devices become increasingly miniaturized and complex, effective inspection strategies are crucial. These strategies not only accelerate the wrap-up of production processes, but also significantly enhance product yield. With tighter tolerances and various materials involved, ensuring the integrity and functionality of each component is more critical than ever. A robust inspection strategy allows us to catch potential defects early, which can save time and costs associated with rework or scrap.Stickler: The evolution of MEMS technology, particularly in AI chips, demands a higher level of inspection sophistication. Traditional methods may fall short in providing the necessary detail and speed, which is why we’re focusing on advanced solutions like our AI-powered 3D X-ray inspection.SEMI: Could you elaborate on how the 3D X-ray technology differs from conventional inspection methods? Stickler: The 3D X-ray technology we utilize acts as a bridge between traditional optical methods and standard 2D X-ray inspection. It offers high-resolution, three-dimensional images without damaging the samples. 3D X-ray technology emphasizes three main benefits: clarity, efficiency, and actionable insights. This means we can obtain detailed images that help us analyze components more effectively, allowing for real-time decision-making.Malin: Moreover, the clarity and detail provided by the 3D X-ray images are critical when it comes to defect analysis in MEMS devices. They allow us to assess mechanical, electrical, and assembly errors in ways that conventional methods simply cannot. This leads to a more reliable production process.SEMI: What specific MEMS defects can be effectively analyzed using this technology?Stickler: There are several types of defects we can analyze. For instance, we can detect mechanical defects such as stiction or fractures, as well as electrical failures like short circuits. The 3D X-ray inspection allows us to visualize these defects in detail. Additionally, we can monitor assembly errors, which are particularly important in complex MEMS devices where misalignments can lead to significant issues.Malin: I’d like to add that early detection of these defects is paramount. The faster we identify issues, the quicker we can implement corrective actions, thereby improving overall yield and reducing production costs.SEMI: You mentioned yield improvement earlier. Can you explain how your technology contributes to that?Malin: Our approach supports process optimization by providing information on product characteristics and, for example, allows us to identify trends early on that may lead to yield issues later. We also aim to accelerate new product introduction in the early phase by rapid feedback, saving time and cost. This is crucial because many defects may not be apparent until later stages of production. With our technology, we can monitor samples in real-time, allowing us to react promptly to emerging challenges.Stickler: By integrating this feedback loop, we can significantly shorten the time to market for new products. This is particularly beneficial in industries where speed and efficiency are essential.SEMI: Can you tell us about Dragonfly 3D World software and its role in this process?Malin: Dragonfly 3D World is a user-friendly software that leverages AI and, specifically, deep learning for image processing. It enables users to efficiently perform bump metrology and defect identification, for example, without needing extensive expertise in the field. The software makes complex processes manageable, even for operators who may not be specialists in image processing.Stickler: Beside MEMS and advanced packaging in GPU production, this software is indeed an “AI-for-AI” application. By utilizing deep learning, users can train models that adapt to various imaging tasks, making the entire inspection process more efficient. The insights generated from the 3D X-ray images are automated, enhancing usability and streamlining workflows.SEMI: In conclusion, what are the key takeaways you’d like to share?Malin: The key takeaways are that AI-driven 3D X-ray inspection is transformative for the MEMS manufacturing process, enhancing inspection strategies and defect detection significantly. By integrating advanced technologies, we can ensure higher product quality and efficiency.Stickler: Yes, and I would emphasize the importance of powerful monitoring and non-destructive test tools. Our innovative solutions not only improve yield, but also pave the way for sustainable practices in manufacturing, ultimately benefiting the industry. Dr. Daniel SticklerDirector X-ray Technology Components at Comet AG, Industrial X-Ray System Division. Based in Hamburg, Germany, he holds a PhD in Physics from the University of Hamburg and has extensive experience in X-ray imaging, semiconductor X-ray applications and product innovations. Joscha MalinDirector Product Marketing Software Products at Comet AG, Industrial X-Ray System Division. Based in Hamburg, Germany, he holds a degree in Electrical Engineering with specialization in Semiconductors and profound experience in the industry. For over a decade, he has focused on developing X-ray inspection and metrology solutions, especially for the Semiconductor industry. SEMI ContactSitong He / Communications Manager, SEMI EuropeEmail: [email protected]: +49 151 5546 2638