2026 Semiconductor Scale Expansion: Equipment Leader's Performance Surges
In 2026, the global semiconductor equipment industry is undergoing a profound non-cyclical structural transformation. Driven by massive investments in AI computing infrastructure, the total revenue of the global semiconductor industry is expected to climb to $1.29 trillion, with the industry scale continuing to expand. Previously, global front-end semiconductor equipment orders reached $135.1 billion in 2025. This growth momentum has extended into this year, with equipment orders in the first quarter of 2026 rising 14% year-on-year to $36.55 billion. Advanced logic chips, high-end DRAM, and advanced packaging sectors account for over 80% of the year-on-year increase in wafer fabrication equipment for the entire year. This growth trend is likely to continue until 2027. Industry leader Applied Materials has seized the industry boom to complete its full-track layout. Its performance in the second quarter of fiscal 2026 hit a record high, with revenue growing 11% year-on-year to $7.91 billion. The non-GAAP gross margin rose to 50%, reaching a 25-year peak. Meanwhile, Applied Materials has raised its full-year growth expectation for the semiconductor equipment business to over 30%, far exceeding the initial target. This indirectly confirms that major tech companies and chip manufacturers are accelerating capacity expansion to facilitate the implementation of various AI computing industries. Among them, DRAM has become the core driving force for equipment demand. Coupled with the rapid iteration of HBM (High Bandwidth Memory) technology, the global DRAM market size is expected to increase to $418.6 billion in 2026, nearly doubling. The high production yield attribute of HBM and the upgrade of multi-layer stacking technology have significantly boosted the demand for high-end equipment such as deposition and etching tools. Applied Materials' DRAM business has also achieved a simultaneous 18% year-on-year revenue growth. In addition, the mass production of 2nm and below GAA (Gate-All-Around) advanced logic processes is accelerating. The addition of multiple complex processes further opens up the equipment market space. As a leader in advanced process equipment, Applied Materials continues to focus on core areas such as GAA processes and backside power delivery, striving to capture over half of the market share. Coupled with the strong growth expectations across all business lines in the third quarter, the overall high-prosperity development trend of the industry is very clear.
Heterogeneous Integration Becomes Mainstream: Applied Materials Expands Its Footprint Across Advanced Packaging In the post-Moore era, chip miniaturization processes are gradually hitting physical and cost boundaries. The industry has reached a consensus that heterogeneous integration technology, represented by 3D multi-chiplet stacking, is the core path to meet the performance requirements of next-generation AI accelerator chips. The hybrid bonding track is also ushering in a period of rapid development. The global market size will grow from $168.85 million in 2025 to $1.258 billion in 2035, with a compound annual growth rate of 22.4%.
As the packaging integration and interconnect density of high-end chips increase significantly, traditional packaging technologies can hardly meet the demand. Copper-copper direct hybrid bonding, which boasts the advantages of low power consumption, low latency, and ultra-high interconnect density, has become the mainstream direction in the industry. However, this technology still faces many challenges such as low mass production yield and difficult process control. Against this backdrop, Applied Materials has comprehensively laid out the entire industrial chain of hybrid bonding and advanced packaging. First, it joined hands with BESI to create the industry's first Kinex die-to-wafer hybrid bonding platform capable of large-scale mass production. In 2026, it launched upgraded equipment again, compressing the alignment accuracy to within 50nm, balancing interconnect requirements and mass production efficiency. At the same time, it partnered with Europe's EV Group to delve into wafer-to-wafer bonding processes, building a complete and mature process system to achieve ultra-high yield production. Relying on the industry boom, the electron beam precision inspection equipment business will also usher in doubled growth. Meanwhile, Applied Materials has invested heavily to enter the panel-level advanced packaging field, filling in its business map and comprehensively improving the advanced packaging product layout. With the support of multiple layouts, the revenue growth rate of its advanced packaging business is expected to exceed 50% in 2026, firmly seizing the development dividends of the advanced packaging industry.
Raw Material Shortages and Capacity Constraints: Exploring Breakthrough Paths for Semiconductor Equipment Enterprises In 2026, the supply and demand pattern of the global semiconductor equipment industry is becoming tight, and the industry development faces multiple operational pressures. The shortage of cleanroom resources restricts the pace of equipment commissioning. Coupled with a tight supply chain, frequent geopolitical trade conflicts, and a shortage of special raw materials such as helium, the orderly advancement of core processes such as lithography and etching is directly affected. To stabilize profitability and ensure the stable delivery of orders, Applied Materials has accordingly introduced a comprehensive operational response strategy: At the demand end, the company has implemented an eight-quarter rolling demand forecasting mechanism for core major customers, coordinating capacity planning and material reserves in advance, and synchronizing with upstream and downstream supporting enterprises for reasonable production scheduling and stockpiling, effectively alleviating the hidden danger of unstable supply chain supply. In terms of capacity layout, Applied Materials has completed global capacity expansion. Relying on the upgrade of European and American bases and the landing of a new manufacturing center in Singapore, it has doubled its capacity. It relies on diversified regional layouts to adapt to local industrial policies and disperse logistics risks. At the same time, it has invested heavily to build the Silicon Valley Equipment Process Innovation Commercialization Center, attracting global leading wafer fabs for joint research and development, accelerating the commercialization of cutting-edge processes, and efficiently revitalizing cleanroom resources.
In terms of business operations, Applied Materials has completed the adjustment of its internal business architecture, optimized the business division of 200mm process equipment, and enabled the global service business to focus on high-end operation and maintenance and long-term subscription services, promoting steady growth in this segment relying on existing equipment. In addition, Applied Materials has comprehensively popularized its self-developed AI (Artificial Intelligence) operation and maintenance system, connecting tens of thousands of process chambers to achieve real-time monitoring of equipment status. It can predict component failures in advance, significantly reducing production line downtime and improving production yield. Relying on multi-dimensional layout, it calmly copes with the problem of industry supply and demand imbalance and consolidates the foundation of its own operational development.
Technical Barriers Build Competitive Defense Lines: Track Differentiation in the Semiconductor Equipment Industry Intensifies Currently, the global wafer fabrication equipment industry presents a highly concentrated competitive landscape. Leading enterprises firmly control the core process equipment market. Applied Materials, as the industry leader, forms a distinct technical contrast and market differentiated competition situation with overseas giants and domestic local equipment manufacturers. Compared with ASML's model of forming an exclusive monopoly relying on EUV (Extreme Ultraviolet) lithography equipment, Applied Materials abandons single-product dependence. Its core advantages focus on the layout of full-category material process equipment and integrated process solutions. It can integrate multiple core processes such as deposition, etching, polishing, and cleaning, deeply empowering the mass production of GAA (Gate-All-Around) advanced chips. Many of its high-end equipment possess top-tier technical capabilities such as angstrom-level process control and precise thin-film deposition. In the mainstream track, Applied Materials competes head-on with Lam Research in the etching field, successfully entering the mainstream market for high-end logic and memory chip etching, breaking the original monopoly pattern.
Facing TEL's (Tokyo Electron Limited) absolute advantage in coating and developing equipment, it relies on a full range of thin-film deposition products to achieve differentiated competition, optimizing chip performance and iterating traditional manufacturing solutions with new deposition processes. In the precision inspection track, it steers clear of KLA Corporation’s core strongholds, promotes the deep integration of self-developed inspection equipment and process equipment, and shortens the mass production cycle of advanced processes with real-time process feedback. At the level of domestic market competition, relying on the development trend of independent and controllable technology and the external export control environment, domestic equipment enterprises such as NAURA and AMEC have grown rapidly. Their global market share has achieved a significant increase, accelerating the realization of domestic supporting in the mature process field of 28nm and above. However, domestic manufacturers still have obvious shortcomings in top lithography equipment, high-end integrated deposition equipment, and atomic-level precision process technologies, making it difficult to catch up with the technical barriers built by Applied Materials in the short term. Applied Materials, on the other hand, focuses on high-barrier tracks such as advanced logic below 3nm, HBM storage, and high-end advanced packaging to consolidate its advantages. At the same time, external control policies also have a certain impact on its business.
Summary In 2026, the semiconductor industry is undergoing a non-cyclical structural transformation driven by AI infrastructure. Global revenue is expected to exceed $1.29 trillion. The core growth engines of the industry have switched to three major fields: advanced processes (GAA/below 2nm), HBM (High Bandwidth Memory), and advanced packaging (hybrid bonding). Relying on its dominance in GAA metal gate and advanced wiring technologies, Applied Materials is expected to lock in a greater market share in core tracks.