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Tuesday 8 September 2026
Shining a Light on the Precision Behind AI and Data Infrastructure
Discussion around advances in AI will often focus on model performance, chip launches, and compute scale. In practice, however, progress increasingly depends on something more fundamental: the ability to build faster, more reliable infrastructure for moving, processing, and managing data
Tuesday 8 September 2026
Shining a Light on the Precision Behind AI and Data Infrastructure
Discussion around advances in AI will often focus on model performance, chip launches, and compute scale. In practice, however, progress increasingly depends on something more fundamental: the ability to build faster, more reliable infrastructure for moving, processing, and managing data.That challenge starts well before systems reach the data center. It begins in the fabAs demand rises for accelerated computing infrastructure, advanced memory, and high-performance packaging, semiconductor manufacturers are being pushed to deliver devices capable of supporting a far more data-intensive economy. For fabs, the task is no longer limited to making smaller or faster chips. It is about sustaining the precision required to manufacture the hardware foundation of higher-throughput digital infrastructure.That shift is making the modern fab more dependent on a broader precision ecosystem.Better computing performance now depends on better data infrastructureWhat the market often labels as AI progress is increasingly tied to data infrastructure performance. Training and inference systems require more than advanced processors. They depend on moving massive volumes of data quickly, reliably, and efficiently across increasingly complex hardware environments.That demand is reshaping what fabs are being asked to produce. Growth is rising not only for leading-edge logic, but also for high-bandwidth memory, advanced interconnects, co-packaged optics, and sophisticated packaging approaches that support higher throughput with lower latency and better power efficiency. In effect, semiconductor manufacturers are being asked to fabricate the physical backbone of a faster data infrastructure layer.For fabs, this has direct consequences. As the value of each chip and subsystem rises, so does the cost of variation. More complex devices leave less room for process instability, optical inconsistency, or dimensional drift. Yield and repeatability become more important when end markets depend on that hardware to sustain reliable data flow at scale.The pressure on fabs is becoming more systemicPrecision is therefore becoming a system-level issue inside semiconductor manufacturing. Performance is no longer defined only by the nominal capability of an individual tool. It is increasingly shaped by how well the full production environment supports stability over time.Thermal behavior, structural integrity, optical quality, and light management all influence whether advanced tools can hold the tolerances required for next-generation devices. As process windows narrow, even small variations can affect overlay, imaging, inspection sensitivity, and ultimately throughput and yield.This has important implications for the ecosystem around the fab. Equipment makers need stable structures for alignment and imaging. Inspection systems need consistent optical performance and signal integrity. Metrology platforms need materials that can maintain dimensional integrity in highly controlled environments. In each case, enabling materials become part of the fab's performance infrastructure.That is why advanced material platforms are drawing more attention in semiconductor manufacturing. Leading ultra-low expansion and high-purity optical materials are already being used in precision-critical semiconductor environments where stability, optical quality, and repeatability matter. These materials may sit deeper in the stack than the tools themselves, but their contribution can be seen in long-term equipment performance and process consistency inside the fab."General industry analysis tends to focus on the most visible layers of semiconductor innovation, but the enabling materials behind tool stability and precision are becoming increasingly important as infrastructure requirements continue to rise,” said Jason Cho, business director of Semiconductor Technologies & Solutions, Corning. “As fabs are asked to support faster and more reliable data-centric systems, there is greater recognition that performance starts with the quality of the materials that help tools maintain repeatability, optical integrity, and dimensional stability over time."Inspection matters more when every chip supports data throughputAs accelerated computing infrastructure scales, the role of inspection is also changing. It is no longer only about detecting defects in support of incremental yield improvement. It is also about protecting the performance of devices that fabs are producing for systems built around continuous, high-volume data movement.That makes inspection and optical performance more strategically important inside semiconductor manufacturing. The ability to manage light effectively, maintain image quality, and reduce optical noise can influence how well fabs identify process deviations before they affect downstream device performance.This also helps explain renewed interest in some long-established optical materials. For example, Corning has reported recent increased interest in the company's Corning Polarcor glass polarizer, first brought to market around 1985. Although it is not a new product, companies developing optical components for for high-speed datacenters and communications systems have shown fresh interest in its polarization and light-control properties. That reflects a wider market realization: building fast, stable, and reliable infrastructure for data throughput depends not only on compute performance, but also on how well underlying optical systems control and optimize light propagation.For fabs, that same principle has direct relevance in inspection and imaging environments. As optical subsystems become more central to process control and yield protection, materials that improve contrast, reduce unwanted light effects, and support signal integrity can take on greater value. In a tighter manufacturing environment, foundational optical materials are being reassessed not as background inputs, but as contributors to overall fab capability.The fab is producing more than chips — it is producing the hardware foundation of data infrastructureOne of the most important shifts now underway is that semiconductor fabs are no longer just manufacturing devices in isolation. They are producing the hardware foundation for the next generation of data infrastructure.That includes processors, memory, photonic and optical components, and advanced packages designed to move, store, and process data more effectively. As a result, the quality of fab output is increasingly tied to the quality of the enabling infrastructure within the fab itself.This is leading to a broader reassessment of what matters in semiconductor manufacturing. Materials suppliers, optics providers, and component makers are not simply supporting production in the background. They are helping define the precision environment that advanced manufacturing now requires.As scaling becomes harder, process integration becomes more difficult, and end-market expectations continue to rise, that foundation matters more. Companies building the next generation of data-centric systems are beginning to recognize that reliable throughput starts with reliable manufacturing — and reliable manufacturing depends on the quality of the materials embedded throughout the fab ecosystem.A broader precision ecosystem will shape the next phase of growthAs the semiconductor industry expands capacity to support accelerated computing and next-generation data center infrastructure, competitiveness will depend on more than access to advanced tools or leading-edge process nodes. It will also depend on the strength of the precision ecosystem around the fab.That includes the materials that help equipment stay stable, the optical platforms that support inspection and imaging, and the component technologies that reduce variability in increasingly complex production environments. For fabs, OEMs, and supply-chain partners, the message is becoming clearer: better data infrastructure begins with better manufacturing infrastructure, and better manufacturing infrastructure depends on the materials selected to support it.The modern fab remains the center of semiconductor innovation. But as demand grows for faster and more reliable data throughput, its success will be shaped increasingly by the precision ecosystem built beneath it.
Wednesday 2 September 2026
World Diamond Technology accelerates mass production of 300 mm diamond wafers
As AI, high-performance computing (HPC), and advanced packaging continue to move toward higher levels of power integration, chip power consumption is rising rapidly. Thermal management has therefore become a critical factor affecting performance, reliability, and system design. World Diamond Technology is advancing its large-area diamond growth technology and accelerating the mass production of 300 mm diamond wafers to address the thermal management needs of AI chips and advanced packaging. Five Key Priorities for Mass ProductionThe 300 mm wafer is currently the mainstream format in advanced semiconductor manufacturing. Scaling diamond materials from conventional smaller sizes to 300 mm involves far more than simply increasing the surface area. It also presents multiple technical challenges related to large-area material processing, uniformity, thickness, flatness, internal stress, and surface quality. World Diamond Technology has continued to advance its large-area diamond growth technology and has secured a Taiwan patent (TW Patent: I840846). Its mass-production strategy focuses on five key priorities:(1)Optimizing the diamond growth process through proprietary WDCVDTM diamond growth technology to ensure consistency across large-area wafers.(2)Precisely controlling wafer thickness and uniformity to meet the stringent requirements of advanced packaging thermal management modules.(3)Strengthening flatness and internal stress management to improve yield and reliability.(4)Optimizing surface quality and process consistency to minimize defects.(5)Continuously improving production yield and capacity while establishing a stable supply chain to support customers' volume-production requirements. By advancing toward the 300 mm format, World Diamond Technology aims to increase the potential for integrating diamond materials with existing semiconductor processes and wafer-level application platforms, enabling diamond to progress from a specialty material toward large-scale adoption across the semiconductor industry. Advantages of Diamond MaterialsDiamond offers multiple advantages as a thermal management material. Its thermal conductivity can exceed 1,500 W/(m·K), significantly outperforming conventional heat-dissipation materials. Diamond also features an extremely low coefficient of thermal expansion, helping substantially improve device reliability.In addition, diamond delivers exceptional hardness, wear resistance, high-temperature durability, and chemical stability. These properties enable it to resist corrosion, operate reliably in high-temperature environments, extend product service life, and reduce the total cost of ownership. Targeting AI Chips and Advanced Packaging ApplicationsWorld Diamond Technology's  300 mm diamond wafers will focus on high-power, high-heat-flux semiconductor applications, including:(1)AI GPUs and HPC systems(2)Data centers and servers(3)2.5D and 3D advanced packaging(4)High-power laser devices(5)Automotive electronics and power modules As advanced packaging architectures become increasingly complex, thermal management is evolving from conventional system-level cooling toward package-level, device-level, and even wafer-level solutions. Consequently, the importance of high-thermal-conductivity materials will continue to grow. Diamond Technology Powering a High-Efficiency FutureWorld Diamond Technology stated that the 300 mm diamond wafer represents an important milestone in the company's efforts to industrialize large-area diamond materials. In the next phase, the company will continue to focus on process stabilization, yield improvement, specification standardization, customer validation, and the establishment of volume-production capabilities. It will also actively pursue collaboration with semiconductor manufacturers, advanced packaging companies, thermal module suppliers, and end-system providers. To meet the rapidly growing thermal management demands of the AI era, World Diamond Technology will continue to advance diamond materials from material development to practical semiconductor applications. The company is accelerating the establishment of a comprehensive technology portfolio spanning diamond wafers, diamond lids, diamond heat spreaders, and system-level thermal management solutions, positioning itself to capture opportunities in the next generation of high-power chips and advanced packaging. Discover the latest developments in diamond wafer technology at SEMICON Taiwan 2026. We cordially invite you to visit World Diamond Technology at Booth S7546 on the 4th floor of Taipei Nangang Exhibition Center, Hall 2.
Wednesday 2 September 2026
Beyond Language: Indonesian Engineers Bridging Cultures in Taiwan's Semiconductor Industry
Taiwan is home to the world's most advanced semiconductor ecosystem. The island produces over 60% of global contract chip manufacturing and dominates key segments from IC design to advanced packaging. For international engineers, joining this ecosystem represents an opportunity to work at the frontier of chip technology - but succeeding here requires more than technical brilliance. It demands the ability to navigate a workplace culture shaped by decades of uniquely Taiwanese management practices, communication norms, and collaborative traditions.When Indonesian engineer Fabrice first arrived in Taiwan eight years ago, he assumed that technical expertise would determine his career trajectory in the semiconductor industry. Instead, he discovered that communication - not engineering - would become his steepest learning curve. Today, working as a Facilities (FAC) engineer at ASE Technology Holding (ASE), the world's largest semiconductor packaging and testing services provider, Fabrice sees himself not just as an engineer but as a bridge connecting Taiwanese managers with multinational teams.His experience is echoed by two younger Indonesian interns - IOSIF and Regina - both working in Sigurd Microelectronics Corp as  packaging and testing sector. Together, their stories suggest that Taiwan's systematic efforts to cultivate international talent are beginning to yield tangible results - and that the cross-cultural skills they have gained are becoming as valuable as their technical expertise.The transformation did not happen by chance. Through cross-cultural communication programs supported by Taiwan's Industrial Development Administration (IDA) under the Ministry of Economic Affairs, combined with on-the-job training from their employers and academic support from institutions such as Cheng Shiu University and Lunghwa University of Science and Technology, these young engineers learned that overcoming cultural barriers requires more than mastering Mandarin. It demands active listening, empathy, and the ability to interpret what is left unsaid.Navigating Taiwan's Communication Culture: Efficiency Meets HarmonyFor international professionals entering Taiwan's semiconductor workforce, one of the first adjustments involves understanding how Taiwanese colleagues communicate - a style that blends directness in pursuit of efficiency with a deep-seated respect for interpersonal harmony.For Fabrice, this was one of his earliest revelations. Growing up in Indonesia, conversations were often slower and more indirect in order to preserve social harmony. In Taiwan, colleagues spoke much more directly in pursuit of operational efficiency. At first, he interpreted their straightforwardness as unfriendly, only to realize later that it reflected a different communication culture rather than personal intent. Living in southern Taiwan added another layer of complexity, where meetings occasionally shifted into Taiwanese Hokkien - a regional dialect distinct from Mandarin - requiring him to ask follow-up questions after discussions.Those experiences shaped a simple but effective strategy: listen first, pause, and ask questions before making assumptions. Over four years at ASE, he says those habits have significantly strengthened both his emotional intelligence and his confidence in negotiating with Taiwanese vendors and multinational colleagues.IOSIF ( Chinese name: Li Zhongdi), who will join Sigurd Microelectronics Corp. as an engineer in Hukou while completing his Electrical Engineering degree at Lunghwa University, encountered a different dimension of the same communication culture. "Taiwanese colleagues, he discovered, rarely reject proposals outright. Instead, phrases such as "We'll think about it" or "Let's discuss it later" often serve as polite signals of disagreement - a reflection of the cultural importance placed on preserving "face" (miànzi) for all parties. Learning to read between the lines became essential for avoiding misunderstandings. Rather than viewing these indirect responses as obstacles, Joseph learned to probe gently with clarifying questions, allowing discussions to move forward without causing either side to lose face.Regina, another Indonesian student from Lunghwa University, will join Sigurd Microelectronics Corp. as a packaging and testing engineer in Hsinchu - Taiwan's semiconductor heartland, recalls that her biggest obstacle was not technical terminology but everyday workplace language. Local idioms such as mòmíng qímiào ( roughly "That doesn't make any sense") and heavily abbreviated Taiwanese expressions initially left her confused, though local colleagues often helped explain their meaning. Over time, she adopted an important communication habit: paraphrasing what others had said before responding. By repeating instructions or discussions in her own words, she created opportunities for teammates to correct misunderstandings immediately, preventing small communication gaps from escalating into costly engineering errors.Where Cultural Differences Become Innovation: Complementary Strengths in ActionBeyond communication, cultural diversity directly influences how engineering problems get solved in Taiwan's semiconductor fabs and testing facilities. Rather than creating friction, the interviewees found that different working styles often produce stronger outcomes when combined effectively.Joseph experienced this firsthand during a project where competing cultural priorities threatened progress. Taiwanese engineers tended to prioritize process discipline, quality assurance, and long-term reliability - hallmarks of the island's manufacturing excellence that have earned global customers' trust. Meanwhile, many international teammates focused on speed and meeting tight deadlines. Rather than allowing either approach to dominate, Joseph proposed building a small beta version. The prototype allowed the Taiwanese team to verify quality while enabling the project to stay on schedule-demonstrating that innovation often emerges from combining different approaches rather than choosing one over the other. He credits active listening and empathy for helping him recognize that workplace conflicts usually stem from differing assumptions rather than someone simply being wrong.Regina believes cultural diversity ultimately strengthens engineering teams. In her experience, Taiwanese colleagues excel at maintaining stability, following standard operating procedures, and pursuing perfection, while international teammates often contribute greater flexibility, speed, and creative thinking. Rather than viewing these traits as competing strengths, she sees them as complementary. She also applies empathy during negotiations, consciously asking why a colleague's perspective makes sense within their cultural context before searching for solutions that satisfy all parties involved.Drawing on his multicultural experience, Fabrice believes different nationalities bring complementary strengths that mirror the semiconductor industry's own need for both precision and adaptability. He describes Indonesians as practical and quick to solve problems, while Taiwanese colleagues tend to be more structured, rule-oriented, and focused on long-term solutions. In one recent project, he acted as the bridge between a Taiwanese manager and a Filipino engineering team, translating complex technical concepts into simpler language and helping each side understand the other's working style. By combining flexibility with discipline, the team completed the project ahead of schedule - reinforcing his belief that cultural diversity creates stronger teams.A Family-Like Workplace Culture: With Room to GrowFor international engineers considering a move to Taiwan, workplace culture is often a deciding factor. All three engineers praise Taiwanese companies for creating a welcoming, family-like environment that sets them apart from many multinational corporations. Managers and colleagues frequently check whether employees have eaten or how they are adapting to life in Taiwan, making foreign workers feel genuinely supported on both professional and personal levels.Yet they also identify one area for improvement: hierarchical organizational structures can discourage international employees from openly challenging managers or expressing dissenting opinions during meetings. Fabrice takes this observation further, arguing that Taiwan's semiconductor industry would benefit from promoting more international professionals into leadership positions. Greater diversity among managers, he believes, would not only improve inclusion but also enable companies to better serve their increasingly global customers and workforces.What International Engineers Gain from Taiwan's Semiconductor EcosystemDespite coming from different companies and career stages, Fabrice, Joseph, and Regina arrived at remarkably similar conclusions. Technical expertise may open the door to Taiwan's world-leading semiconductor industry, but long-term success depends on the ability to bridge cultures. The communication training provided through government initiatives, universities, and employers has equipped them with practical tools - active listening, clarifying questions, paraphrasing, empathy, and cultural awareness - that extend far beyond the classroom and are transferable to any global workplace.As Taiwan seeks to attract and retain more international semiconductor talent, these young engineers demonstrate that the industry's next competitive advantage may not come from faster chips alone, but from people capable of connecting diverse teams across cultures. For engineers worldwide considering where to build their semiconductor careers, Taiwan offers not just cutting-edge technology but a unique environment where cross-cultural competence becomes a career-defining skill.