Key Takeaways  Global semiconductor materials revenue reached $73.2 billion in 2025, up 6.8% year over year. Packaging materials grew 9.3%, faster than wafer fabrication materials at 5.4%. Taiwan, Mainland China and South Korea together represented approximately 66.3% of global materials revenue. AI, high-performance computing, HBM and advanced packaging are increasing material intensity and process complexity. The trend raises requirements for precision, reliability, automation and traceability in packaging and testing equipment.   The global semiconductor materials market reached a new record of $73.2 billion in 2025, representing year-over-year growth of 6.8%. According to SEMI’s Materials Market Data Subscription, both wafer fabrication materials and packaging materials expanded as manufacturers increased investment in advanced processes, high-performance computing and high-bandwidth memory production. The headline number is important, but the market structure provides a more useful signal for equipment manufacturers and semiconductor production companies. Packaging materials grew materially faster than wafer fabrication materials, while the leading Asian manufacturing regions continued to account for most global consumption. These changes point to greater demand for advanced substrates, reliable interconnects, tighter process control and more capable packaging and testing systems.        1. 2025 Semiconductor Materials Market at a Glance     Market Segment 2025 Revenue YoY Growth Share of Total Total Semiconductor Materials $73.2 billion 6.80% 100% Wafer Fabrication Materials $45.8 billion 5.40% 62.60% Packaging Materials $27.4 billion 9.30% 37.40% *Source: SEMI. Segment shares calculated by HYRNUS based on reported 2025 revenue.         2. Wafer Fabrication Materials Continued to Expand Wafer fabrication materials revenue increased 5.4% to $45.8 billion in 2025. SEMI reported strong double-digit growth in lithography-related materials, including photomasks, photoresists and ancillary materials, as well as wet chemicals. The result reflects a broader increase in process intensity. Advanced manufacturing nodes require tighter lithography control, more demanding cleaning and surface preparation steps, and strict management of material purity and consistency. As the number and complexity of process steps increase, material consumption can rise even when wafer starts do not grow at the same rate. For semiconductor manufacturers, this means that material selection and equipment capability must be evaluated together. Stable chemical delivery, contamination control, process repeatability and data traceability all become more important as process windows narrow.         3. Packaging Materials Outpaced Wafer Fab Materials Packaging materials revenue grew 9.3% to $27.4 billion, accounting for approximately 37.4% of the total semiconductor materials market. Substrates and bonding wire were the leading contributors to growth. Advanced substrate demand supported the increase, while higher gold prices also lifted bonding wire revenue. The growth of advanced packaging is increasing demand for high-density routing, fine-pitch interconnection, thermal management and reliable multi-die integration. Technologies such as 2.5D and 3D integration, chiplet-based architectures and HBM place greater emphasis on substrates, interposers, bonding interfaces, underfill materials and heat dissipation solutions. As packaging structures become more complex, production equipment must maintain accuracy across more variables. Die placement, bonding energy, wire-loop consistency, surface condition, molding quality and test coverage can all affect final device yield and reliability.       4. Regional Semiconductor Materials Market Landscape Taiwan remained the world’s largest semiconductor materials market for the 16th consecutive year, generating $21.7 billion in revenue in 2025. Mainland China ranked second at $15.6 billion, supported by double-digit growth, followed by South Korea at $11.2 billion. All major regions except Europe recorded year-over-year growth, with Mainland China and North America posting the strongest increases.   Region 2025 Revenue Estimated Global Share Taiwan $21.7 billion 29.60% Mainland China $15.6 billion 21.30% South Korea $11.2 billion 15.30% Top Three Combined $48.5 billion 66.30% *Regional shares calculated by HYRNUS from SEMI’s reported global and regional revenue figures.     The regional concentration reflects the scale of foundry, memory, packaging and testing operations in Asia. At the same time, growth in Mainland China and North America suggests that material suppliers and equipment manufacturers will need flexible service, localization and technical-support strategies across multiple production regions.       5. Key Drivers Behind Market Growth   1) AI, High-Performance Computing and HBM AI accelerators and high-performance computing platforms require more advanced logic, greater memory bandwidth and increasingly sophisticated packaging. HBM production and integration add process steps and place strict requirements on stacking, interconnection, thermal control and testing. This supports demand for both front-end materials and packaging-related materials.   2) Advanced and Heterogeneous Packaging As conventional transistor scaling becomes more difficult and expensive, system performance is increasingly supported by package-level integration. Chiplets, 2.5D and 3D structures, fan-out packaging and hybrid bonding create new requirements for alignment accuracy, substrate quality, interconnect density, surface preparation and package reliability.   3) Automotive and Power Semiconductor Applications Vehicle electrification, power conversion, industrial automation and data-center power management continue to expand the need for power devices and modules. These applications require packaging materials and processes that can withstand high current, temperature cycling, mechanical stress and long operating lifetimes.   4) Supply Chain Localization Regional capacity expansion and supply-chain security programs are encouraging manufacturers to qualify additional material sources and establish local production capabilities. This may create opportunities for equipment that can support multiple package types, adaptable process recipes and standardized production-data interfaces.       6. What the Materials Trend Means for Packaging and Testing Equipment Materials growth is not only a purchasing trend. It is a signal that semiconductor production is becoming more process-intensive and that back-end manufacturing must manage more complex structures, materials and quality requirements. Higher Die Placement Accuracy: Multi-die and chiplet packages require accurate vision alignment, controlled placement force and stable repeatability across small process windows. More Demanding Interconnect Processes: Fine-pitch wire bonding, heavy aluminum wire bonding, ribbon bonding and other interconnect methods require precise control of bonding force, ultrasonic energy, temperature and loop geometry. Stricter Surface and Contamination Control: Plasma surface treatment and cleaning processes become more important when adhesion, wire-bond quality, molding integrity and long-term reliability depend on surface condition. Improved Molding and Material Handling: Advanced package structures require consistent material flow, pressure, temperature and curing control while minimizing voids, delamination and package damage. Broader Inspection and Test Coverage: More complex packages increase the need for visual inspection, electrical testing, test handlers, binning, traceability and integration with factory data systems. Greater Automation and Recipe Flexibility: Manufacturers need faster changeovers, programmable process recipes, production-data collection and compatibility with MES or other factory automation systems.       7. Market Outlook The semiconductor materials market is likely to remain supported by advanced-node production, AI infrastructure, HBM capacity expansion and continued development of advanced packaging. However, growth rates may vary by material category, region and pricing environment. Bonding-wire revenue, for example, can be affected by metal prices as well as actual consumption volume. For manufacturers planning new packaging or testing capacity, the most useful approach is to translate market trends into process requirements. Package format, material combination, accuracy, throughput, temperature range, test time, automation level and factory-interface requirements should be assessed together before equipment selection.       8. Conclusion The record $73.2 billion semiconductor materials market in 2025 confirms that manufacturing complexity is increasing across both wafer fabrication and packaging. Packaging materials grew faster than the overall market, highlighting the rising importance of substrates, interconnects and package-level integration. For semiconductor manufacturers, the trend creates a clear need for equipment that can deliver stable process control, high precision, flexible automation and reliable quality data. The most effective equipment strategy should be based on the actual device package, process flow, capacity target and factory conditions rather than on a single machine specification.       Need Equipment Matched to Your Packaging or Testing Process? HYRNUS provides semiconductor packaging and testing equipment and can recommend a suitable configuration based on package type, production capacity, process requirements and factory automation needs. Contact Us        FAQs   How larger was the global semiconductor materials market in 2025? The market reached $73.2 billion in revenue, an increase of 6.8% compared with 2024. Which semiconductor materials segment grew faster in 2025? Packaging materials grew 9.3%, compared with 5.4% growth for wafer fabrication materials. Why are advanced packaging materials becoming more important? AI, HBM and chiplet-based systems require higher-density interconnects, advanced substrates, improved thermal management and more complex package integration. How do material trends affect semiconductor equipment selsction? More complex materials and package structures increase requirements for placement accuracy, bonding control, surface treatment, molding consistency, inspection, test coverage and production-data traceability.

SEMICON China 2026 was held from March 25 to 27, 2026, at the Shanghai New International Expo Centre. During the event, the Hyrnus team explored the latest developments in advanced packaging, semiconductor manufacturing equipment, AI-driven production, and compound semiconductor technologies.       Ⅰ. SEMICON China 2026 at a Glance Held from March 25 to 27 at the Shanghai New International Expo Centre, SEMICON China 2026 covered more than 100,000 square meters and brought together around 1,500 exhibiting companies across more than 5,000 booths. The official post-show report recorded 200,068 cumulative attendee entries, including 142,281 visitor entries and 57,787 exhibitor entries.The exhibition covered the extended electronics supply chain, including chip design, wafer manufacturing, assembly and packaging, testing, equipment, materials, photovoltaics and display technologies. For equipment suppliers and manufacturers, the scale of the event provided a clear view of where investment and process development are moving next.   Ⅱ. Advanced Packaging Is Moving Toward Broader Production Advanced packaging and heterogeneous integration were among the most visible topics at SEMICON China 2026. Industry discussions focused on technologies that support AI computing and high-bandwidth data transfer, including 2.5D and 3D integration, Chiplet architectures, HBM, hybrid bonding and co-packaged optics. These technologies place higher demands on manufacturing equipment. As package structures become denser and more complex, manufacturers require tighter placement and bonding accuracy, more stable process control, better inspection capability and stronger data traceability. The trend is not limited to a single packaging step; it affects die bonding, wire bonding, molding, inspection, testing and material handling throughout the production flow.   Ⅲ. AI Is Changing Semiconductor Manufacturing, Not Only Chip Design AI was discussed not only as a driver of chip demand, but also as a practical tool for semiconductor production. The Smart Manufacturing Forum and related sessions highlighted the growing role of connected equipment, production data, automated analysis and intelligent process control in the factory of the future. For semiconductor equipment, this means that mechanical performance alone is no longer enough. Manufacturers increasingly expect machines to support recipe management, process monitoring, alarm records, MES connectivity and data-based quality analysis. Predictive maintenance and closed-loop process optimization are also becoming more important as factories work to improve yield and reduce unplanned downtime.   Ⅳ. Wafer Processing, Materials and Compound Semiconductors Remain Critical The event also featured dedicated discussions on wafer processes and equipment, advanced materials, and compound semiconductor technologies. Sessions covered SiC, GaN and III-V materials and devices, reflecting continued demand from power electronics, automotive, communications and AI infrastructure applications. These developments create opportunities across both front-end and back-end manufacturing. New substrates, materials and device structures often require changes in cleaning, bonding, dispensing, thermal processing, inspection and testing. Equipment flexibility and process compatibility will therefore remain important for manufacturers serving multiple device types and packaging formats.   Ⅴ. What the Hyrnus Team Took Away from the Exhibition Through on-site visits and technical exchanges, the Hyrnus team gained a more direct understanding of current equipment requirements and customer priorities. Three points were especially clear: Precision and stability remain fundamental. Higher-density packaging requires accurate motion control, repeatable bonding and consistent process results. Equipment integration is becoming essential. Customers increasingly need machines that can exchange data with MES systems and support traceable production. Flexible solutions have greater long-term value. Equipment must adapt to changing package types, materials, production volumes and process requirements.   Ⅵ. Continuing to Support Semiconductor Manufacturing Projects SEMICON China 2026 showed that semiconductor manufacturing is moving toward greater integration, intelligence and process control. Advanced packaging, AI-enabled factories and new semiconductor materials will continue to raise the requirements placed on production equipment. Hyrnus will continue to follow these industry developments and support customers with equipment and process solutions for wafer processing, die bonding, wire bonding, molding, trim and form, inspection and testing, and test handling. Our focus remains on practical equipment configurations, stable production performance and technical support matched to each customer’s application.   Explore Hyrnus semiconductor equipment solutions or contact our team to discuss your process and production requirements.  

Worldwide silicon wafer shipments reached 3,275 million square inches (MSI) in Q1 2026, up 13.1% from 2,896 MSI a year earlier. The increase shows that AI-related demand remains strong, while recovery is gradually extending to industrial and power semiconductor applications.    Q1 2026 Market at a Glance Q1 2026 Q1 2025 YoY Q4 2025 QoQ 3,275 MSI 2,896 MSI 13.10% 3,437 MSI -4.70% *The 4.7% sequential decline was consistent with typical seasonality and does not reverse the year-on-year recovery.     AI and HBM Remain the Main Growth Drivers AI data centers continue to support demand for advanced logic and memory wafers, especially those used in high-performance processors and high-bandwidth memory (HBM). As server computing density rises, demand is also expanding into power management devices that regulate power across data-center infrastructure.     Recovery Is Broadening, but It Remains Uneven The improvement is no longer limited to leading-edge AI applications. Some manufacturers are seeing better demand in industrial semiconductors as excess inventories are gradually absorbed. However, smartphone and PC demand remained relatively soft in the first quarter, while the prioritization of HBM production may have tightened supply in some conventional memory segments.     What the Trend Means for Semiconductor Manufacturing Silicon wafer shipments are an early indicator of fab activity and future chip output. Rising volumes can support higher downstream demand for wafer dicing and grinding, die bonding, wire bonding, plasma surface treatment, molding, inspection and test handling. Even so, manufacturers should not plan equipment investment from headline growth alone. Wafer size, package type, process accuracy, throughput, automation level and product mix remain the key factors in equipment selection.     HYRNUS Equipment and Solution Support HYRNUS provides wafer processing and IC packaging and testing equipment for a range of semiconductor manufacturing applications. For projects with specific package formats, production capacity or automation requirements, our engineering team can support equipment selection and customized process planning.     Overall, the Q1 2026 data point to an AI-led but increasingly broad semiconductor recovery, with mixed end-market conditions still requiring careful capacity planning.

Electric vehicles, renewable energy, energy storage and industrial automation are increasing demand for IGBTs, MOSFETs and silicon carbide (SiC) power devices. As these applications expand, packaging must provide reliable electrical interconnection, efficient heat dissipation and stable performance under demanding operating conditions.   2025 Semiconductor Equipment Market Context   Global Billings YoY Growth Assembly & Packaging Test Equipment $135.1B +15% +21% +55% *These figures describe the broader semiconductor equipment market. They indicate rising investment in packaging and test capacity, rather than growth from power semiconductors alone.     Why Packaging Is Critical for Power Devices Power semiconductors operate at higher currents, voltages and temperatures than many conventional ICs. Their packages must therefore control thermal resistance, maintain electrical insulation and withstand repeated temperature and power cycles. Poor die attachment, unstable interconnections or voids can directly affect efficiency and long-term reliability.     Key Processes in Power Semiconductor Packaging Wafer Processing: Accurate grinding, dicing and handling help protect die strength and reduce edge damage, especially for brittle SiC wafers. Die Bonding: Stable placement, controlled bond-line thickness and low-void attachment support heat transfer and mechanical reliability. Wire and Ribbon Bonding: Heavy aluminum wire, ribbon and other interconnect methods provide the current-carrying capability required by power packages and modules. Surface Treatment, Molding and Test: Clean surfaces, consistent encapsulation and complete electrical testing help improve adhesion, protection and product traceability.       SiC Creates Higher Process Requirements SiC devices enable higher switching frequencies, lower power loss and operation at elevated temperatures. These advantages also place greater emphasis on wafer handling, die-attach quality, interconnection stability and package thermal design. Equipment must deliver repeatable accuracy and process control rather than only higher production speed.     Implications for Packaging Equipment Traditional processes such as wafer dicing, die bonding and wire bonding remain widely used in automotive electronics, industrial control, energy storage and power management. Manufacturers selecting equipment should consider device structure, package type, bonding material, required accuracy, throughput, reliability targets and factory automation interfaces.     HYRNUS Equipment and Solution Support HYRNUS provides semiconductor wafer processing, die bonding, wire bonding, plasma surface treatment, molding, inspection and test-handling equipment. For power semiconductor projects with specific package formats, production capacity or process requirements, our engineering team can support equipment selection and customized production planning.       As electrification continues, packaging technology will remain a key link between power-device performance and reliable mass production.