Global Semiconductor Equipment Billings Increased 23% Year-Over-Year in Q2 2026, SEMI Reports

semiconductor-digest.com Sep 4, 2026

Global Semiconductor Equipment Billings Increased 23% Year-Over-Year in Q2 2026, SEMI Reports

Curated by Shubham · TechCapsules · Sep 4, 2026

AI-summarised brief · reviewed before publication

SEMI’s Worldwide Semiconductor Equipment Market Statistics report shows global semiconductor equipment billings rose 23% year‑over‑year to US$40.53 billion in Q2 2026, marking the second consecutive record quarter. Billings grew 11% quarter‑over‑quarter, driven by heightened demand for AI‑related technology and capacity solutions. The surge reflects sustained investment in advanced manufacturing across Asia, North America, and Europe, underscoring the critical role of semiconductor production in supporting the expanding AI computing infrastructure.

💡 Why It Matters

· The record billings signal a deepening commitment to AI‑driven innovation, reinforcing the semiconductor sector’s pivotal position in powering next‑generation technologies worldwide.

Capsules Semiconductors

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NanoBridge Semiconductor Adopts Siemens’ Precision FPGA Synthesis for Low-Power and Harsh-Environment Semiconductor…

Siemens announced that NanoBridge Semiconductor, a Japanese firm focused on low‑power, harsh‑environment FPGAs, will use Siemens’ Precision FPGA Synthesis under an OEM agreement. The partnership tailors the synthesis tool for NanoBridge’s NBS6503H and NBS1201 device families, aiming to improve synthesis quality and streamline design workflows. NanoBridge’s proprietary NanoBridge technology underpins non‑volatile FPGA and memory solutions for aerospace, automotive, and critical infrastructure. The collaboration promises faster, more reliable FPGA development for demanding applications.

💡 By integrating Precision FPGA Synthesis, NanoBridge can accelerate time‑to‑market for high‑reliability chips, positioning its products at the forefront of aerospace and automotive safety standards.

semiconductor-digest.com · Sep 4

Solvay Expands Electronic Grade Hydrogen Peroxide Capacity in Taiwan

Solvay announced that its joint venture, Shinsol Advanced Chemicals, will more than double the annual production of electronic‑grade hydrogen peroxide in Taiwan by the end of 2026. The expansion builds on the 2023 launch of the facility and targets the semiconductor sector, where ultra‑pure hydrogen peroxide cleans wafers to prevent microscopic impurities that can degrade chip performance. The new capacity will be locally qualified, matching Solvay’s global quality standards, and aims to secure a reliable supply for Taiwan’s advanced chip manufacturers.

💡 The move strengthens Taiwan’s position as a critical hub for high‑precision semiconductor manufacturing, ensuring that local fabs can meet the escalating purity demands of next‑generation chips.

semiconductor-digest.com · Sep 4

New Device Design Could Miniaturize Photonics, Quantum Technologies

Researchers at Harvard’s John A. Paulson School of Engineering and Applied Sciences, with collaborators at the University of Texas Austin and UC Irvine, have built a semiconductor device that improves nonlinear frequency conversion. The structure pairs gallium arsenide‑based multi‑quantum‑well layers with a metasurface of nanopillars, aligning electronic states, optical fields and geometry to raise light‑mixing efficiency by three orders of magnitude in the near‑infrared range used by fiber‑optic networks. By tailoring quantum‑well thicknesses and using an electronic transition, the team achieved strong light‑matter interaction at shorter wavelengths than conventional crystals. The metasurface concentrates and orients the field, preventing cancellation and further amplifying conversion. The platform uses compound‑semiconductor materials and nanofabrication, fitting manufacturing and enabling components for telecommunications, communication and sensing.

💡 This approach demonstrates that high‑performance photonic functions can be integrated with current semiconductor fabs

therobotreport.com · Sep 4

How FPGAs become the gatekeepers of physical AI security

Episode 260 of The Robot Report Podcast featured Eric Sivertson, vice‑president of the security business at Lattice Semiconductor, discussing how field‑programmable gate arrays (FPGAs) are becoming central to physical AI security. Sivertson, who brings more than three decades of experience in embedded‑system trust, wireless connectivity and reconfigurable computing, explained Lattice’s strategy to embed cryptographic and safety functions directly into FPGA fabrics used in robots and autonomous machines. He highlighted recent advances that allow developers to lock down AI models, enforce runtime integrity checks, and isolate critical control loops without sacrificing performance. The conversation also touched on market trends, including growing demand for secure AI hardware in agriculture, manufacturing and logistics, and Lattice’s plans to expand its security‑focused product line portfolio.

💡 Embedding security in the silicon that runs AI workloads stops tampering at the hardware level, a protection software updates alone cannot provide.

semiconductor-digest.com · Sep 4

KAIST Tames a Semiconductor Greenhouse Gas 6,000 Times More Potent than CO₂…

A KAIST research team, collaborating with Samsung Electronics, has developed a novel catalyst to efficiently remove tetrafluoromethane (CF₄), a greenhouse gas 6,000 times more potent than CO₂, from semiconductor manufacturing processes. Led by Professor Minkee Choi, the team utilized entropy stabilization to create an entropy-stabilized aluminate catalyst incorporating aluminum, zinc, gallium, nickel, and cobalt. This disordered atomic structure prevents particle aggregation and structural deformation under harsh high-temperature, moist, and fluorine-rich conditions that typically degrade conventional catalysts. In accelerated tests at 800°C, the new catalyst maintained 92% CF₄ conversion after 150 hours, significantly outperforming conventional alumina catalysts, which dropped to 48%. The research also experimentally confirmed the decomposition mechanism, showing the catalyst uses internal oxygen replenished by steam. This breakthrough addresses the critical challenge of CF₄ persistence, which lasts roughly 50,000 years in the atmosphere, offering a durable solution for reducing emissions from dry etching processes in fine semiconductor circuit fabrication.

💡 Semiconductor manufacturers can now mitigate the extreme climate impact of CF₄ without sacrificing catalyst longevity. This entropy-stabilized approach directly counters the corrosive degradation that has historically limited emission control efficiency in chip production facilities.

scmp.com · Sep 4

India’s push to secure place in global chip supply has ‘secret weapon’:…

India has launched the second phase of its semiconductor mission with a US$13 billion budget, aiming to build a comprehensive industrial ecosystem spanning chip design to manufacturing. This initiative expands upon the first phase, which focused on foundational infrastructure, by prioritizing the development of a large manpower pool. The government seeks to leverage its human capital as a strategic advantage, shifting the national narrative from “Make in India” to “Engineer in India.” Currently, twelve manufacturing projects have been approved across six states, with three facilities already in commercial production. These existing plants primarily handle assembly, testing, and packaging rather than advanced wafer fabrication. The move aligns with regional efforts by Japan and Singapore to reduce dependency on East Asian manufacturers following pandemic-era supply chain disruptions. By mobilizing its talent pool, New Delhi aims to secure a higher position in the global value chain, reducing import reliance while strengthening domestic capabilities in critical electronics powering AI and automotive sectors.

💡 India’s pivot toward engineering talent challenges the traditional manufacturing-centric model of emerging semiconductor hubs. This strategy positions the country to capture higher-margin design work rather than remaining confined to lower-value assembly tasks.