Trymax Semiconductor B.V. provides plasma-based etching, stripping, and curing process equipment for advanced semiconductor packaging, targeting applications in dry descum, ashing, surface preparation, light etching and processing, as well as UV photoresist curing and charge erase. It also manufactures UV curing equipment, focusing on equipment used in compound semiconductor processes. These equipment are used in the production of wide-bandgap semiconductor power devices such as silicon carbide (SiC) and gallium nitride (GaN), as well as other important processes such as communication power amplifiers (PAs).Trymax has been established for over 25 years and has a considerable customer base and brand recognition in the Taiwanese market. At Semicon Taiwan 2025, the company primarily serves to promote its products and connect with key clients. With a product portfolio ranging from 100mm to 300mm wafer size, Trymax's clients are on both sides of the Taiwan Strait becoming major suppliers to the manufacturers of power amplifiers and RF components. In the global presence, Trymax has significant market shares at foundries, IDMs and wafer level packaging houses for end applications in Power semiconductor, automotive, MEMS, LED and CMOS.Trymax's NEO series plasma dry descum systems are suitable for cleaning and activation processes in the semiconductor industry, offering high efficiency, uniformity, and repeatability. These systems utilize RF/microwave power to generate high-energy, disordered plasma under vacuum conditions. They can process a wide range of substrate sizes and offer a variety of processing technologies for flexible customer selection, meeting the needs of diverse semiconductor process technologies.Trymax continuously innovates to support its customers’ needs. In addition to the compound semiconductor processes, it is also widely used in application fields such as MEMS microelectromechanical systems, microfluidic devices, SOI substrate manufacturing, advanced packaging and optoelectronic displays. Among them, the global installed capacity of NEO system equipment has exceeded 300 sets.

Tempress is a leading manufacturer of diffusion and thin film deposition equipment, with over 55 years of experience in thermal process technology. We support innovators in semiconductors, power, MEMS, photonics, memory, life sciences, and coating industries in producing high-value materials and devices. Our production systems are built for R&D applications but also for  automated, high-volume production and meet the rigorous standards of modern chip manufacturing. Tempress solutions cover essential thermal processes such as oxidation, annealing, diffusion, and LPCVD, offering precise temperature control to achieve optimal properties in silicon wafers.Tempress established an early presence in Taiwan (1999), earning recognition across the region's semiconductor sector. Our local experts ensure smooth coordination between customers and our product team in the Netherlands, providing hands-on support and technical guidance.We collaborate globally with universities and research institutes to drive innovation and continuously improve our technology. At Tempress, we deliver more than equipment-we build lasting partnerships backed by dependable service and worldwide support.

Founded in 2020, Powertrim Technologies is a provider of back-end packaging equipment for power modules. Rooted in over 40 years of semiconductor trim and form toolmaking heritage, the company offers product design support, prototyping, and manufacturing services for power modules used in electric vehicles, the energy industry, and industrial applications. The rapidly growing automotive industry is driving significant demand for compound semiconductors and back-end packaging to support the growth of power modules, creating a strong demand for power module packaging and manufacturing technologies. The company offers full support to allow power module manufacturers to predictably build quality products at the most competitive price.The Powertrim Flex Line, the flagship manufacturing platform, provides high performance handling, assembly and testing technology for automated power module manufacturing. With its modular architecture, the Flex Line covers the core trim and form processes as well as adjacent process steps like laser marking, laser de-flashing, optical inspection, quality control, testing, loading and unloading.The main focus of Powertrim Technologies is in providing power module back-end packaging equipment and tooling. Through different modular machine designs, they are assembled into production configurations that meet the customized needs of various power module products. The company also provides the well-designed tools to help customers implementing both prototyping, qualification and rapid serial or mass production of power modules.Furthermore, electrification of the automotive transmission system by either battery or hybrid electric motors, new industrial power applications and the massive growth of renewable energy solutions accelerate the need for power modules. With these, Powertrim provides manufacturing equipment, supporting a wide range of power electronics applications, and is strategically collaborating with supply chain partners to centralize services and resources for the EV market, a move designed to meet fluctuating demands efficiently.The existing flagship production line implements a system designed to adapt quickly to changes in product type and quantity, allowing for the efficient production of a variety of power module products on one single machine, hence Flex Line. With this concept, the company is capable of switching between complex product sizes in under 15 minutes. In addition, it can also provide a series of optional add-on units, including loading/offloading modules, laser marking & de-flashing, automatic optical inspection, MES integrated system, which providing software linking to ERP/MES enterprise software platforms. These different arrangements can be flexibly matched and assembled to meet the manufacturing needs.With a presence in the Netherlands, known for its cutting edge semiconductor front-end and back-end equipment, Powertrim Technologies combines precision engineering with scalable automation to unlock markets such as automotive, energy and industrial power applications. At Semicon Taiwan 2025, Powertrim aims to work together with Taiwanese customers to create new opportunities.

HITEC Power Protection develops, manufactures, and provides dynamic uninterruptible power (UPS) solutions to support the most vital of manufacturing and business critical applications. Founded in 1956, its products are widely used in industries with high power reliability requirements, such as semiconductor fabs, banking, aviation, healthcare, and government defense, to ensure that critical missions and processes receive uninterrupted and stable power supply. HITEC Power Protection provides equipment to ensure safe, reliable, and adjustable power to support the operational needs of businesses and critical government facilities. Taking ESG and sustainability into consideration, HITEC Power Protection provides customers with solutions to meet the demanding and complex operational needs of the high-tech industries by providing immediate, reliable backup power and voltage regulation during outages.The company has accumulated over 60 years of experience in industries requiring high power stability, primarily using flywheel energy storage technology. This technology stores energy in a mechanical flywheel to ensure immediate emergency response and stable power supply in the event of power anomalies. Once an emergency power outage is detected, the flywheel energy storage system will be activated to deliver stored instantly, and within 5 seconds transfers smoothly to an integrated diesel generator to provide long term emergency power. HITEC Power Protection was introduced to the Taiwanese market in 1985 and has successfully installed over 200 units. Its customers primarily include well-known semiconductor manufacturing fabs and the display panel makers. As Taiwan's industrial demand for power stability continues to rise, the business opportunities of HITEC Power Protection continue to grow.The current product line provides a continuous power generation capacity of approximately 2,880 kW at 60 Hz per unit. And the features include power safety and protection functions, such harmonic filtration, surge protection, load stabilization, and short-circuit current protection, which outperform typical static UPS systems. HITEC Power Protection provides 100% emergency power to all manufacturing and supporting equipment, implementing precise UPS capacity design to ensure a stable power supply to customer's power loads. This not only reduces unstable power risks but also overall lowers installation and ongoing maintenance costs. After engaging the market with Taiwanese industrial clients, HITEC Power Protection is now further targeting the needs of reliable backup power systems for major government critical public facilities, such as disaster prevention and instant response systems for critical infrastructure like tunnels and airports, with the ultimate goals of improving public service quality, bolstering private sector disaster preparedness, and significantly enhancing the overall resilience of Taiwanese society.

Fonontech B.V. is a device solution provider and startup company based on Impulse Printing technology. Impulse printing technology can be described as a novel additive manufacturing technology that allows for parallel transfers high-resolution conductive patterns to enable the rapid and precise printing of micrometer scale interconnections. This technology offers high-speed low-cost manufacturing, is well suited for process equipment to create complex 3D structures and achieve further miniaturization of electronic devices. The rapidly growing opportunities in AI-driven electronics push the technology forward. These unique solutions have considerable potential, and on May 16, 2025, Fonontech received the good news of a $9.5 million seed round investment.Currently, Fonontech equipment is being used to address wire bonding speed issues in chip packaging. Wire bonding is a viable solution for connecting chips to external pins or for silicon interlayer structures in advanced packaging. This process is typically used in back-end chip manufacturing, particularly flip-chip bonding. Fonontech equipment offers higher pin density, optimized electrical performance, and smaller package sizes.While conventional wire bonders can only print one line at a time, Fonontech Impulse Printing technology is much faster. Because its parallel printing solution can transfer contacts covering an entire area at a time, the speed increase is astonishing. According to on-site testing and monitoring, Fonontech Impulse Printing technology can achieve speeds up to 100 times faster than wire bonders.Currently, Fonontech equipment can successfully bonding with a minimum size of 20 micrometers, and in the future it will further achieve a dimensional accuracy down to a few micrometers. In the booth of Fonontech showcased the Impulse Printing demo kit, a scaled down version of the industrial equipment. In addition to selling the equipment itself, the company also integrates Impulse Printing print head modules into customers' production lines for special tailored applications.The equipment can be used for transfer printing onto wafers, PCBs, or other manufacturing processes, such as connecting signal pins on the side of a display chip to the signal contacts on the back side of the display panel. The bestselling point of this equipment is speed and cost effectiveness to reduce material waste and carbon emissions. The company's product is marketed as a replacement for wire bonding machines. Furthermore, the company currently is developing Taiwan market and running ongoing collaborative projects through testing and verification with potential clients.

Founded in 1987, Boschman Technologies B.V. is a manufacturer of sintering equipment and transfer molding technology for advanced packaging of automotive and industrial power modules, MEMS sensors. In addition to its headquarters in the Netherlands, the company has operations in Singapore and China Suzhou. The key technologies of Boschman are silver sintering and Film Assisted Molding (FAM). Boschman uses a pressurized silver sintering process in module packaging to address the stringent challenges and difficulties of power module interconnect technology. The power module market is experiencing substantial growth in Europe and China, driven by the accelerating adoption of electric vehicles (EVs), expansion of renewable energy systems, and increased demand for energy-efficient industrial and consumer electronics. The power modules require sophisticated packaging for high-temperature, high-power, and high-reliability connections. The FAM technologies for protection against harsh environments like high humidity and vibration, as well as to manage thermal and electrical stress. On the other hand, silver sintering offers superior thermal and electrical conductivity compared to traditional soldering process, while FAM with its vacuum-assisted films prevents voids during molding, leading to more reliable and high-performing power modules with better thermal management.Boschman began its journey by developing and manufacturing module packaging molds, then expanded into the research and development of silver sintering packaging equipment. And the company continues to invest in and develop advanced packaging technologies. Boschman specializes in serving the global electronics assembly and semiconductor back-end packaging industries, providing advanced sintering equipment using advanced high-pressure sintering technology. Specifically tailored to the needs of customers of varying sizes and production scales, Boschman's sintering equipment offers a variety of solutions suitable for R&D doing small batches, small- to medium-volume pilot production, and large volume manufacturing environments.Boschman has many years of experience in cooperation with Taiwanese industries, especially in power electronics and components manufacturing service vendors that provide power management, power electronics, and thermal solutions. Among the new business opportunities, OSAT (Outsourced Semiconductor Assembly and Test) companies serve a broad range of semiconductor clients, is one of the key types of customers in Taiwan for Boschman. OSAT customers are providing back-end packaging services such as Tire Pressure Monitor Sensors (TPMS) and other automotive sensors for customers, which has enabled Boschman to gain the benefits.Talking about the business model, Boschman provides customers with packaging design and development, as well as silver sintering process equipment to meet the needs of the automotive supply chains and power system industries. It also provides design proofing and small-batch assembly production services to customers. One more thing, Boschman and Powertrim Technologies, another Dutch company exhibiting at the Netherlands Pavilion, have a collaborative upstream and downstream relationship. These two companies collaborate in the manufacturing of automotive and power module systems in Europe, jointly serving leading Auto and industrial customers.

HQ Pack is a global leader in high-tech packaging solutions. The company is expert at designing, producing, (precision) cleaning, and making packaging solutions reusable again after use, as well as manage the packaging logistics of high-quality industrial products. They do so for clients in the semiconductor and other high-tech industries.The process procedures and packaging solutions ensure the parts, modules or components of highly sophisticated equipment are fully protected during transportation and logistical arrangements. And at the same time, the system will meet the customer demand for protection of valuable products during transit while adhering to environmental, social, and governance (ESG) principles. The packaging design incorporates features like sustainable materials, waste reduction strategies, and carbon footprint minimization, alongside ensuring the integrity of high-value goods through robust physical protection.The company provides complete packaging solutions, starting with the development and sourcing of customized packaging materials. HQ Pack's regional Service Centers ensure that reusable packaging materials are ready to use again by cleaning and repairing them to like-new condition. They can also support reuse of parts by harvesting them before scrapping for new build packaging. If there is material destined for waste management, HQ Pack supports this at the same time. Because most of its high-tech clients operate on a global scale, HQ Pack operates not only at its headquarters in Eindhoven, the Netherlands, but also in Johor and Penang in Malaysia, Taiwan, Singapore, Germany, and in the United States (locations in Brookfield (CT), Newark (CA), and San Diego (CA)) providing the same quality and service at each location. With their Service Centers they support both their customers' sustainability goals as well as their own.Their slogan "We Create to Protect" is exactly what they do. The high-quality packaging solutions ensure that valuable and fragile products, modules, components and/or parts can be safely transported worldwide. With over 40 years of experience and global presence, no compromission on quality, flexibility at the heart of our organization, they are a full-service provider with fast, reliable and sustainable packaging solutions.

Artificial intelligence (AI) is reshaping the semiconductor landscape-both as a fast-growing end market and as a catalyst for innovation across mobile, automotive, networking, industrial and beyond. Taiwan's industry leaders are at the forefront of this transformation, proactively developing next-generation packaging technologies critical to AI semiconductor content.AI workloads are driving demand for specialized chip architectures that can process massive amounts of data quickly and efficiently. In data centers, high-performance AI chips-such as GPUs or AI accelerators-support large-scale model training and inference for applications like AI chatbots. At the edge, devices rely on high-efficiency chips like NPUs to enable real-time decision-making in applications such as autonomous vehicles, smart cameras and mobile devices.This shift in computing architecture depends on advanced packaging. By enabling higher performance and power efficiency through a tighter integration of compute and memory, advanced packaging supports the sophistication and scale of modern AI chips. Taiwan's expertise in advanced packaging and its expansive semiconductor supply chain are accelerating this shift.Why Heterogeneous Integration is Key to PerformanceMoore's Law scaling is becoming more expensive due to the complexity needed to keep increasing transistor counts. As a result, innovation is diversifying. Technologies like high numerical aperture extreme ultraviolet (high-NA EUV) lithography and new transistor designs such as gate all around (GAA) continue to push traditional scaling. Developments with backside power delivery (BPDN) are improving overall raw performance by providing a more stable power supply. Breakthroughs in semiconductor packaging are now playing an increasingly pivotal role.Semiconductor packaging has evolved beyond protecting and connecting chips to powering device performance. At the heart of this shift is heterogeneous integration-the ability to combine multiple chips or chiplets in a single package. This modular approach offers a flexible, cost-effective way to integrate diverse functions in packaging instead of on a single chip, to meet requirements without relying solely on traditional scaling.Advanced Packaging Technologies Enabling AIAI chips are growing in complexity, with some expected to contain up to a trillion transistors per package by the end of the decade. Advanced packaging supports this growth through system-level integration of compute and memory.High bandwidth memory (HBM) plays a key role. By stacking memory vertically and placing it close to the GPU, HBM reduces latency and boosts data transfer speeds while lowering power consumption. Interposers and substrates facilitate efficient communication between components. In many modern AI designs, hundreds of logic and memory chips are integrated into a single high-value package to meet specifications.Credit: KLATo support the growing architectural demands and evolving semiconductor chip requirements, the industry is advancing 2D, 2.5D and 3D packaging architectures-where 2D places chips side-by-side on a substrate, 2.5D arranges them on an interposer and 3D stacks them vertically. Technologies like hybrid bonding, embedded bridges, wafer- and panel-level interposers, glass core substrates and co-packaged optics help to increase interconnect density and improve system performance. These innovations provide new ways to shorten signal paths to increase bandwidth and reduce power loss-critical for AI workloads.Advanced Packaging Innovation Brings Manufacturing ChallengesAs packaging complexity increases, so do manufacturing challenges. More chip designs per package, larger die sizes, smaller features, denser interconnects and new materials all raise the bar for packaging yield management.Credit: KLAWith more components and interconnects placed into a single package, the number of potential failure points increases. A single chip or interconnect defect can compromise the entire multi-die package-resulting in costly yield loss. In this environment, tighter process control becomes essential to ensure high yield and reliability.Heterogeneous integration brings challenges similar to those found in front end semiconductor manufacturing, demanding greater defect sensitivity and tighter metrology precision. KLA addresses these challenges with a comprehensive portfolio of advanced packaging process control and process-enabling solutions-for wafers, panels and components – designed to scale advanced packaging complexity without compromising quality.Evolving 2.5D and 3D packaging architectures create new yield challenges that need improved process and process control solutions.Credit: KLAAI Needs Intelligent IntegrationThe semiconductor industry is anticipated to reach US$1 trillion globally by 2030, according to PwC in November 2024, driven by a wide range of applications-including the rapid growth of AI from data centers to edge devices. AI demands high compute capacity with optimized power use, pushing the boundaries of semiconductor chip design and integration. Taiwan’s semiconductor manufacturers welcome these opportunities.It's widely recognized that 90% of the world's advanced semiconductors are produced in Taiwan, contributing to a combined semiconductor output value that exceeded NT$5 trillion in 2024, up 22.4% from 2023, according to statistics released by the Industrial Technology Research Institute (ITRI). Global demand for AI chips is surging.AI is also driving a diversification of semiconductor content. Wide band gap semiconductors such as silicon carbide (SiC) and gallium nitride (GaN) provide higher power density, faster switching, and better thermal efficiency than silicon, making them increasingly important for efficient power delivery in AI systems.In data center and HPC environments, AI growth is also pushing development in photonics and co-packaged optics for network switches to improve data transfer speeds and energy efficiency. Quantum computing, still in early stages, could eventually reshape how complex AI workloads are processed.Across these domains, advanced packaging serves as the foundation for uniting diverse technologies into compact, high-efficiency systems. Taiwan technology leaders are driving this advanced packaging innovation, and KLA is proud to serve as their collaborative partner.2025 marks the 35th anniversary of KLA's operations in Taiwan. Headquartered in the United States, KLA is a global leader in semiconductor inspection and metrology, with over 15,000 employees worldwide. The expertise and insights cultivated at KLA Taiwan over three decades, in partnership with our valued customers, underscore a commitment to technical excellence in the AI era-when chip manufacturing requirements are more complex and challenging than ever before.The future of semiconductors isn't just about smaller transistors – it's about smarter integration. Packaging has become essential to performance. At the boundaries of Moore's Law, advanced packaging has emerged as the key to meeting next-generation semiconductor device requirements.With deep expertise in process, process control and customer collaboration, KLA is helping the semiconductor industry build what comes next. As AI redefines what's possible, the technologies that support it must evolve just as rapidly. KLA's dedicated team of engineers, physicists and data scientists embraces the scale and significance of this transformation, helping shape the future of semiconductor innovation in the AI age-where advanced packaging plays a pivotal role.

As AI models and computing demands continue to grow exponentially, the biggest challenge in chip design is no longer pure processing power, but the bandwidth gap between processors and memory. Even with continuous improvements in processor performance, if data cannot be delivered in real time, overall system efficiency remains limited.To overcome this bottleneck, Die-to-Die high-speed interconnect and HBM4/PHY IP integration have emerged as critical technologies for next-generation AI and HPC chip designs.Progate Group Corporation(PGC), a member of the TSMC Design Center Alliance (DCA), leverages its ASIC turnkey expertise and participation in the Synopsys IP OEM Program to deliver advanced design capabilities comparable to leading international players-while offering a more cost-effective, high-value service model that helps global customers accelerate AI and HPC deployment and mass production.Technical Highlights: Comprehensive Support from Design to ProductionPGC provides one-stop technical services, supporting clients from chip design to production. The coverage includes high-speed interconnects, memory integration, foundry certifications, and AI/HPC application-oriented designs, helping clients shorten time-to-market efficiently.Die-to-Die Interconnect and Chiplet ArchitecturePGC offers advanced expertise in Die-to-Die interconnect and Chiplet-based system design, supporting 2.5D and 3D integration technologies to enable high-speed, low-latency, and low-power chip-to-chip communication. All solutions are compliant with the Universal Chiplet Interconnect Express (UCIe) standard, ensuring interoperability and scalability across heterogeneous and cross-supply-chain environments.This capability addresses the growing demand for high-bandwidth and flexible multi-die integration, empowering customers to build next-generation Chiplet-based systems with enhanced performance and modularity.HBM4 / PHY IP IntegrationLeveraging Synopsys-certified IP, PGC enables rapid integration of HBM4 memory and PHY interfaces to shorten design cycles while strengthening design reliability. These high-bandwidth memory solutions help design teams overcome data transfer bottlenecks and achieve terabyte-per-second (TB/s) throughput, meeting the stringent performance requirements of AI and high-performance computing (HPC) applications.TSMC DCA Certification AdvantageAs a certified member of TSMC's Design Center Alliance (DCA), PGC provides end-to-end design-to-tape-out support within the TSMC's ecosystem. Customers can leverage TSMC's CyberShuttle multi-project wafer (MPW) program to conduct rapid prototyping and design validation, followed by seamless transition to mass production through PGC's ASIC turnkey services. All designs are fully compatible with advanced packaging technologies such as Wafer-on-Wafer (WoW) and 2.5D/3D integration architectures within major foundry ecosystems, ensuring a smooth and efficient path from prototype to production.AI / HPC Application FocusPGC's dedicated ASIC designs are optimized for AI and high-performance computing (HPC) applications, spanning AI accelerators, data center chips, and high-speed network switch devices. These designs support AI training, HPC simulation, and large-scale data processing workloads, meeting the performance, power, and scalability requirements of next-generation computing environments.Ecosystem IntegrationPGC's services are closely aligned with TSMC's advanced foundry ecosystem, combined with Synopsys-certified EDA and IP solutions, to deliver a complete ASIC turnkey flow covering: High-speed interface IP - ASIC design service - process support - packaging service - verification - testing - mass production.In addition to its own testing equipment and validation capabilities, PGC maintains long-term partnerships with multiple advanced test houses, enabling precise analysis for high-frequency, high-speed interface and advanced-node devices.This level of integration significantly reduces design risk and accelerates time-to-market, while ensuring that the design results are fully compatible with mainstream advanced packaging technologies - such as 2.5D/3D integration and wafer-on-wafer architectures within major foundry ecosystems - as well as international standards including UCIe.PGC delivers high reliability, low risk, and accelerated time-to-production through its comprehensive ASIC turnkey services, allowing customers to focus on differentiated design and market innovation. By leveraging its proven engineering expertise and established partnerships across the semiconductor supply chain, PGC helps customers reduce overall design and ASIC development costs, enhance design success rates, and improve product stability.In addition, PGC provides cross-regional engineering and project management support spanning Taiwan, Japan, China, and the United States - empowering global deployment strategies for AI and HPC applications with consistent quality and technical alignment.PGC provides complete ASIC turnkey services supporting 2.5D/3D advanced packaging technologies.Credit:PGC

As artificial intelligence (AI) continues to reshape industries worldwide, the demand for smarter, faster, and more efficient electronic systems has never been greater. AI-enabled applications-from data center accelerators to compact edge devices-require processing systems with exceptional computational power, high performance, and access to large memory storage.To meet these demands, the semiconductor industry is making rapid strides in advanced packaging technologies. These innovations are now central to system integration and architectural breakthroughs-yet they also introduce new challenges in reliability, thermal management, and multi-chip assembly.Material companies are transforming their offerings to meet the stringent purity, precision, and performance requirements of the evolving semiconductor industry, while also creating more sustainable and environmentally friendly products. In this exclusive interview with Mr. Kenji Kuriyama, Director of Electronics for Japan & Taiwan at Henkel Adhesive Technologies, we explore how Henkel is helping semiconductor leaders overcome these challenges through materials innovation, strategic collaboration, and a deep commitment to Taiwan's ecosystem.Mr. Kuriyama shares his optimistic outlook on the explosive growth of the advanced packaging market. In particular, Taiwan's semiconductor industry stands out as a global leader in advanced node manufacturing, producing the majority of the world's most sophisticated chips. Henkel looks forward to working closely with customers in Taiwan to accelerate the development of high-performance chips that drive AI innovation.Mr. Kenji Kuriyama Director, Japan & Taiwan, Henkel Adhesive Technologies Electronics.Credit: HenkelHenkel Adhesive Technologies' Electronics division maintains a strong and deliberate focus on both the semiconductor and consumer electronics sectors, supplying advanced materials for electronics assembly, semiconductor packaging, and thermal management. Its product portfolio includes solutions for die attach, underfills, encapsulants, lid attach adhesives, and thermal interface materials—essential components that enable the high performance, miniaturization, and reliability of modern electronic devices.Showcasing Material Solutions for AI-Enabling Advanced Packaging at SEMICON Taiwan 2025Taiwan remains a global hub for advanced packaging innovation, and at SEMICON Taiwan 2025, the spotlight is on technologies that are rapidly evolving to become the backbone of system integration and architectural breakthroughs.Henkel Adhesive Technologies Showcases a portfolio of high-performance materials, and offers tailored solutions aligned with the industry's most critical technologies. The company presents encapsulation, underfill, and adhesive materials that support high-end AI accelerators in data centers, as well as compact Edge AI chips. These devices rely on packaging architectures such as 2.5D and 3D designs, chiplet designs and heterogeneous integration to meet the demands of next-generation computing.Advanced data center AI accelerator chips and smartphone application processors require large dies and large-body packages that consume significant power during operation. As a result, they are susceptible to high stress, warpage, and thermo-mechanical challenges that can impact reliability and performance.Henkel Adhesives has developed semiconductor underfill technologies-including pre-applied pastes and films, capillary materials, and liquid molded solutions-that have set the benchmark for both performance and processability.Henkel's encapsulation technology plays a critical role in protecting large, thin dies from warpage. It also enables high-density 2.5D fan-out wafer-level packaging (WLP) and supports emerging panel-level packaging (PLP) formats-making it one of Henkel's flagship innovations.In the automotive electronics sector, Henkel offers die attach pastes and encapsulants which are widely used across the ecosystem. Its pressure-less and pressure-assisted sintering materials are instrumental in enabling high-performance wide band gap power devices that are critical for modern electric vehicles. Henkel showcases a broad range of sintering technologies, including its latest copper-based pressure-assisted sintering material. This innovation delivers exceptional thermal conductivity, requires lower processing pressure and temperature compared to silver-based alternatives, and offers a lower total cost of ownership.Mr. Kenji Kuriyama presenting at Henkel seminar and panel talk in SEMICON Taiwan 2025.New Release: Loctite Eccobond LCM 1000AG-1 -Liquid Mold Material for Warpage Control in WLP and PLP ProcessesFurthermore, as heterogeneous integration and photonic convergence become increasingly prevalent, advanced packaging technologies such as panel-level packaging (PLP) and co-packaged optics are gaining significant attention. PLP, for example, enables larger AI-enabling IC packages by improving scalability and manufacturing efficiency. However, these advancements introduce new challenges in managing the thermal demands of heterogeneously integrated devices-particularly in data center and smartphone applications-as well as in optimizing materials that interface directly with IC chips. A range of advanced materials-including liquid molded underfills (LMUF), first-level thermal interface materials (TIMs), and capillary underfills-are being developed to effectively distribute and extract heat, thereby enhancing device performance and reliability. Notably, the rise of advanced AI processors with stacked memory architectures has driven strong demand for molded underfill materials that address key challenges in 3D stacking and assembly, such as manufacturing throughput, process complexity, and overall cost.Meanwhile, Henkel is introducing new innovations in fine-filler liquid compression molding (LCM) and molded underfill materials to support both near-term and long-term roadmaps for 2.5D and 3D packaging. These materials are designed to mitigate warpage while demonstrating excellent flowability and void-free filling capabilities at the wafer level, even in fine-pitch (<30 µm) and narrow-gap (<20 µm) configurations.At SEMICON Taiwan 2025, Henkel launches Loctite Eccobond LCM 1000AG-1 , a new anhydride-free, ultra-low warpage liquid molding material designed for wafer-level packaging (WLP) and panel-level packaging (PLP) processes. This new product delivers stable warpage control throughout redistribution layer (RDL) processing, enabling high-yield, reliable advanced packaging solutions.Working with Customers to Enable Materials for Next-Gen Semiconductor DevicesAdvanced packaging is rapidly emerging as a key driver of innovation in semiconductor technology, enabling breakthroughs in system integration, performance, and sustainability. As an innovator in the advanced packaging materials space, Henkel is actively collaborating with Taiwan's leading industrial customers across critical areas-including new material design, customer support, green energy, and sustainable development.This type of collaboration facilitates the sharing of knowledge, resources, and technology, accelerates global competitiveness, and ultimately achieves a win-win for more markets-helping to grow the global semiconductor industry. Henkel is committed to investing resources in solution design tailored to specific functions and maintaining long-term relationships with its customers.Mr. Kuriyama shares two use cases that demonstrate strong momentum in customer collaborations in Taiwan. The first example is thermal cycle reliability for application processor chips. A customer approached Henkel to help pass thermal cycle reliability testing for an end customer's application processor. The challenge extended beyond reliability-it required enhanced processability for high-throughput production. Henkel responded by investing resources and developing new materials to meet the target and support the customer's goals.Among the two cases, the second example focuses on underfill flow speed optimization. In this case, a customer was facing production bottlenecks due to the slow flow speed of their existing underfill material. Henkel stepped in to assess the specific requirements and engineered a faster-flowing underfill solution to replace the legacy product. This not only resolved the throughput issue but also significantly improved overall production efficiency. The case is well-articulated, outcome-driven, and demonstrates Henkel's ability to deliver tailored, high-performance solutions in advanced packaging.The timelines for joint development projects vary significantly depending on the scope of work. Projects involving complex advancements-such as new process development or complete material replacement-can take two to three years. In contrast, initiatives focused on optimizing existing processes within current specifications are much faster, with development cycles of just three to six months.In Taiwan, IC design houses, semiconductor foundries, and Outsourced Semiconductor Assembly and Test (OSAT) providers represent the three major customer types. Design houses focus on delivering new products with innovative IC chips, foundries explore novel materials for advanced packaging solutions, and OSATs emphasize manufacturing capabilities. Once a new material is introduced, Henkel's Taiwan-based application engineering and sales teams work closely with all customer types to ensure the material's functionality meets their specific requirements.Henkel Provides Next-Level Support to Build Strategic Partnerships with Taiwan CustomersAs semiconductor advanced packaging technologies continue to evolve, new opportunities are emerging across Co-Packaged Optics (CPO), panel-level packaging (PLP), and other next-generation formats. These innovations are reshaping how chips are integrated, aligned, and scaled for high-performance applications.Taking CPO as an example, Mr. Kuriyama highlights it as a rising application in advanced semiconductor packaging. Henkel is developing light-pass adhesive materials to address the challenge of precise active alignment for optical components. These light-curing adhesives enable accurate alignment, supporting the assembly of complex optical systems within the CPO process.Henkel Adhesives continues to invest heavily in material innovation and deepen its understanding of the evolving needs of the semiconductor and electronic materials markets. It is aligning its solutions with customers' technology roadmaps and contributing to the development of next-generation products. To fulfill these needs, the Henkel Taiwan Electronics Adhesives Technical Center in Zhubei City provides prompt technical support and fosters collaboration with Taiwan customers to accelerate prototyping and development. This Technical Center is dedicated to supporting innovation and product development through faster application simulation, data generation, and analysis—ultimately speeding up time-to-market for advanced packaging technologies.As the industry shifts from a linear supply chain to a more integrated and collaborative ecosystem, Henkel Adhesives plans to strengthen its local support for Taiwan's semiconductor sector. This includes expanding beyond its application center by establishing local R&D resources and a satellite R&D office in Taiwan to provide direct, localized support. This strategic move will strengthen customer partnerships and accelerate the development of packaging technologies critical for AI chip innovation and the broader semiconductor ecosystem."Taiwan is a leading global center for advanced semiconductor process nodes and packaging innovations," Mr. Kuriyama concludes. "Through Henkel's dedicated support teams and close partnerships with customers, Henkel Adhesives is strongly committed to the Taiwan market and will contribute to technical breakthroughs that open a new frontier in advanced semiconductor packaging."To learn more about Henkel and its advanced packaging solutions, visit the official Henkel website or official LinkedIn for more information.