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Oxford Instruments, a leading provider of advanced plasma processing solutions, today announced a plasma equipment supply agreement with Applied Optoelectronics Inc. (AOI) (Nasdaq: AAOI), a leading provider of advanced optical and hybrid fibre-coaxial networking products that power the internet, for several etch and deposition cluster systems at their facility in Sugar Land, Texas.

The agreement will support AOI’s transformative expansion and technological advancements in indium phosphide (InP) for optoelectronic device manufacturing, as the company rapidly scales to increase production capacity within the U.S.

As AOI undergoes a significant growth phase, the company is upgrading its production capabilities to meet increasing demand for high-performance InP optoelectronic devices. Oxford Instruments’ advanced plasma etch and deposition processing systems will play a key role in this transformation by supporting AOI with fully automated 3-4-6-inch capable production systems for InP processes.

“AOI is expanding its U.S. manufacturing capacity in Texas to support demand for our optical transceivers in AI datacentres, and key suppliers like Oxford Instruments will help us continue to upgrade our fully automated production line,” said Fred Chang, Senior Vice President and North American General Manager at AOI. “With our combined technology, we can speed the processing of multiple wafer sizes, ranging from 3 to 6 inches, while improving overall quality and reducing costs.”

“AOI has been a valued long-term partner, and we are thrilled to have earned their trust as the chosen supplier for their production expansion and technology upgrades. Our unique high-temperature Electrostatic Chuck (ESC) design, which enables advanced processing capabilities, was a key factor in their decision. AOI also conducted an extensive vendor qualification process, including a visit to our brand-new purpose-built manufacturing facility in Bristol, UK, where we received high praise for our technology and production capabilities,” said Emiel Thijssen, Vice President of Sales and Business Development USA, Oxford Instruments Plasma Technology. “We are also investing significantly to ensure we continue to deliver world-class service capability in the Texas region, focusing on the availability of spares and expanding our field service and process engineering teams, to support the rapid expansion of leading manufacturers in the region such as AOI.”

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For media enquiries, please contact:
Grant Baldwin, Head of Marketing
Oxford Instruments Plasma Technology
E: [email protected]
About Oxford Instruments plc
Oxford Instruments provides academic and commercial organisations worldwide with market-leading scientific technology and expertise across its key market segments: Materials Analysis, Healthcare & Life Science and Semiconductors. Innovation is the driving force behind Oxford Instruments' growth and success, supporting its core purpose to accelerate the breakthroughs that create a brighter future for our world. The vigorous search for new ways to make our world greener, healthier and more productive is driving unprecedented levels of R&D investment in new materials and techniques to support productivity and decarbonisation worldwide, creating a significant opportunity for Oxford Instruments to grow.

Oxford Instruments holds a unique position to anticipate global drivers and connect academic researchers with commercial applications engineers, acting as a catalyst that powers real world progress. Founded in 1959 as the first technology business to be spun out from Oxford University, Oxford Instruments is now a global company listed on the FTSE250 index of the London Stock Exchange (OXIG).

For more information, visit www.oxinst.com

About AOI 
Applied Optoelectronics, Inc. (AOI) is a leading developer and manufacturer of advanced optical and HFC networking products that are the building blocks for AI datacentres, CATV and broadband fibre access networks around the world. AOI supplies this critical infrastructure to tier-one customers across cloud computing, CATV broadband, telecom, and FTTH markets. The company has R&D facilities in Atlanta, GA, and engineering and manufacturing facilities at its corporate headquarters in Sugar Land, TX, as well as in Taipei, Taiwan and Ningbo, China. For additional information, visit www.ao-inc.com. 

Advancing Thermal Scanning Probe Lithography

Zurich, Switzerland — Following the successful introduction of the modular NanoFrazor nanolithography system in 2024, Heidelberg Instruments is proud to announce the installation of the newest NanoFrazor. The system is equipped with the recent modules, enabling parallelized thermal scanning probe lithography (t-SPL). The beta site is hosted by the research partner EPFL, the Swiss Federal Institute of Technology in Lausanne, Switzerland. The installation marks a significant step forward in joint efforts to bring next-generation nanofabrication technologies into practice, promising advances in nanoscale research and applications.

Designed for high-resolution lithography down to 20 nm, with application flexibility and increased throughput, the system features parallelized t-SPL with ten heated tips writing simultaneously, Direct Laser Sublimation (DLS), and advanced automation. “Parallelizing t-SPL was the logical next step in advancing thermal nanolithography. The implementation, however, was far from trivial.” states Dr. Emine Cagin, CTO of Heidelberg Instruments Nano AG. “Parallelization required a decade of development, culminating in a new and scalable framework for electronics and software that now powers the new NanoFrazor.”

The new module, named the Decapede, increases the throughput up to tenfold, without compromising on high-resolution capabilities. “With improved throughput, we are considering upscaling grayscale nano surfaces that enable deterministic and localized strain engineering of 2D materials from chip-level to wafer-scale for potential industrial integration”, says Berke Erbas, Postdoctoral Researcher in the Microsystems Laboratory at EPFL. “We also aim to upscale grayscale nanoimprint lithography stamps fabricated through t-SPL and dry-etching approaches.”

EPFL — A Hub for Innovation
EPFL’s expertise in t-SPL and broad nanofabrication capabilities make it an ideal beta site and mark the continuation of a long-standing, trusted partnership with Heidelberg Instruments. The consortium of research groups involved brings together a combination of deep knowledge in t-SPL and diverse nanofabrication techniques, along with fresh ideas and challenging applications. The generous commitment to providing continuous feedback will help Heidelberg Instruments further validate the system performance and refine user interfaces.

From Nanoelectronics to Quantum Devices, a Look Ahead
The EPFL beta site is not only a testing and validation site for the system’s capabilities but first and foremost a catalyst for innovation in nanolithography. Applications at the EPFL beta site span nanoelectronics, plasmonics, quantum devices, and bio-nano-sensors. Jürgen Brugger, Professor in Microengineering and Materials Science at EPFL, highlights: “t-SPL has proven to be an excellent tool for educating junior researchers due to its capabilities for fast prototyping with a low threshold to create nano-patterns in short time scales. We are excited to expand towards parallel writing capabilities.” For example, the Laboratory of Nanoscience for Energy Technologies (LNET), Professor Giulia Tagliabue, is exploring the use of its gray-scale functionalities for realizing advanced metasurfaces that can strongly confine light at nanoscale dimensions for energy conversion and probing of interfacial processes.

We are looking forward to seeing how the beta site will accelerate discoveries and enable new possibilities in nanoscale science, both in research and educational use of the NanoFrazor system.

Further information: https://heidelberg-instruments.com/product/nanofrazor/

High-tech systems developer Demcon has established a local presence in North America by opening a new office in San Jose, California. The Dutch contract engineering company brings decades of expertise and know-how in hardware research, design and development to the heart of Silicon Valley, where software and AI are the main focus areas.

Hardware-centric development and engineering

The brand-new office will function as a local point of contact for US customers, delivering direct project management and system architecting support. The full Demcon engineering power in the Netherlands is available for early-phase concept development, engineering, prototyping and testing, with manufacturing as an optional service. Demcon has over 30 years of experience in systems engineering for high-tech solutions, in amongst others semiconductors, photonics and quantum technology.

Demcon’s capabilities range from fundamental and essential domains such as mechanics, mechatronics, software and electronics, to crucial additional competences in multiphysics simulation, thermal management, optics & vision, and data science & AI. "With our extensive group of engineers and specialists, we have the critical mass necessary to uphold an extremely high level in all these domains", says Amir Bar, general manager at Demcon USA. "For every customer project and every challenge they bring, we pick and choose the best possible team to find the optimal solution for our customers."

As a decades-long engineering professional in the American semiconductor industry, with leading roles at Applied Materials and KLA Tencor, Bar knows firsthand what Demcon has to offer: "With the focus on software and AI, there is a shortage in hardware engineers in the US. The Netherlands, home to some of the world’s leading hardware-centric semiconductor companies, have a much stronger base in that area. Through Demcon’s US office, American customers can tap into that potential."

Expanding horizons in the American market
For Demcon, the expansion in North America is very much a strategic decision. The company is already active in the US market for 20 years. "But we see ample room for growth", says Eric Slakhorst, Vice President Demcon high-tech systems. "The country is home to many potential large customers that prefer to keep their research and development close by. Often, they are challenged by time-to-market demands and capacity constraints. We set ourselves apart by offering the possibility to outsource part of their R&D, without the obligation to give away IP, and by our fast development cycle, from feasibility study to functional prototype in 12-15 months."

As our engineers are deeply embedded in the research process with our customers, proximity is key. "To ensure an optimal result, we need to be close, as regular face-to-face interaction is vital," says Slakhorst. "That’s why we are building an engineering hub in the US to support local partners with project management and system architecting. Detailed engineering can take place in the Netherlands."

Lansdale, PA – Greene Tweed, a global leader in advanced materials and high-performance solutions, is supporting customers who have ambitions to transition away from per- and polyfluoroalkyl substances (PFAS) with a robust portfolio of high-performance materials for critical applications. This expanding portfolio reinforces Greene Tweed’s commitment to its role as a material innovator and trusted partner in helping customers navigate the use of PFAS-free products.

As companies look to reduce PFAS throughout their operations, Greene Tweed's extensive portfolio of PFAS-free and/or non-fluorosurfactant (NFS) polymer-based products, including elastomers, thermoplastics, and composites, delivers exceptional performance and reliability. Key product lines such as Arlon®, Xycomp DLF®, Orthtek®, WR®, Fusion®, and Seal Connect® are designed to support challenging applications across industries ranging from aerospace and energy to semiconductor manufacturing.

"With the fluoropolymer industry at a critical juncture, we are seeing the demand for PFAS-free products grow significantly,” said Bret Neese, PhD, Director of Advanced Technology at Greene Tweed. "Our role is clear: Greene Tweed is an innovative solutions provider and collaborative partner for customers navigating this complex transition. By using PFAS-free and NFS polymers in our products, where possible, we’re helping our customers meet their PFAS reduction goals.”

Greene Tweed takes a holistic approach to PFAS-free innovation, grounded in regulatory readiness, supplier collaboration and diversification, and industry education. The company collaborates with customers to design surfactant-free and NFS polymer-based engineered solutions that offer exceptional durability, chemical resistance, and performance in extreme conditions. Its forward-looking technical roadmap ensures customers can use PFAS-free and/or NFS solutions without sacrificing quality or performance.

To further support customers, Greene Tweed is hosting a webinar, Innovating Beyond PFAS: High-Performance Solutions in the Evolving Fluoropolymers Landscape, on March 5, 2026. The presentation will provide insights into how the company is tackling PFAS changes through supplier collaboration, product diversification, and portfolio innovation.

For over 160 years, Greene Tweed has built a legacy of delivering high-performance solutions that empower customers to thrive in the most challenging environments. The introduction of its PFAS-free portfolio is another step forward in its mission to drive innovation for a better tomorrow. For a full list of Greene Tweed’s PFAS-free solutions, please visit the PFAS-Free Portfolio.

About Greene Tweed
Greene Tweed is a leading global manufacturer of high-performance thermoplastics, composites, seals, and engineered components. For 160 years, we have served clients in semiconductor, oil and gas, aerospace, defense, chemical and pharmaceutical processing, and other industries where failure is not an option. Greene Tweed products are sold and distributed worldwide. For additional information, call +1.215.256.9521, or visit our website at https://www.gtweed.com.

Media Contact
Sofia Doss
Communications & Public Relations Manager
Greene Tweed
[email protected]

Priya Sharma
Senior Account Manager
BCM Public Relations Ltd.
+44 (0) 20 3965 7415
[email protected]

Ball Wave Inc., a pioneer in advanced chemical sensing technology, today announced that its FT-450WT online trace moisture analyzer has received full certification from Taiwan's most advanced semiconductor manufacturer following rigorous validation testing. This milestone validates Ball Wave's proprietary ball SAW sensor technology and establishes the company as a strategic supplier in the critical semiconductor manufacturing equipment sector. The certification comes at a pivotal time as semiconductor manufacturers worldwide face increasing pressure to improve yield rates and reduce contamination in advanced node production. Ball Wave's technology addresses a critical pain point in fab operations, where even parts-per-billion levels of moisture can compromise chip quality and manufacturing efficiency. The successful certification demonstrates the analyzer's reliability in the most demanding production environments and opens significant commercial opportunities for specialty gas manufacturers who are the key players plagued with trace moisture contamination. 

Ball Wave President Shingo Akao stated, "This certification validates our core technology platform and demonstrates our ability to meet the stringent requirements of the world's most sophisticated semiconductor fabs to help them avoid unplanned shutdowns due to trace moisture contamination. Ball Wave's patented ball SAW sensor represents a fundamental breakthrough in trace moisture detection, offering speed and precision unmatched by legacy technologies. With proven performance in production environments and a robust IP portfolio, we are well-positioned to capture significant market share in the rapidly growing semiconductor manufacturing equipment sector, which is projected to exceed $156 billion by 20271."

Business Impact: For advanced semiconductor fabs operating at 3nm and below, moisture contamination can cost $5-10 million per incident2 in scrapped wafers and production delays. Industry data shows that facilities with inadequate moisture monitoring experience maintenance ratios below 1.0, where unplanned repairs consume over 50% of total downtime. Ball Wave's real-time detection capability enables preventive action before contamination reaches critical levels, helping customers avoid these costly failures and maintain the operational stability (M-ratio >4.0) essential for profitable advanced node production. This value proposition has resonated strongly with leading fabs, creating a clear path to rapid customer adoption.

About the FT-450WT and Ball Wave's Technology Platform: The FalconTrace ultra-trace moisture meter uses a proprietary ball SAW sensor to quantitatively measure the trace amounts of water molecules contained in industrial gases and natural gases. Its extremely fast response time allows for real-time monitoring of changes in moisture content, and it is also capable of measuring both moisture content and background gas composition. It can accurately measure moisture concentrations in gases down to the 1 ppbv (parts per billion) level, representing 10-100x improvement over competing technologies. The FT-450WT is a high-end model that maintains its fast response time while prioritizing integration into equipment, and the separation of the sensor unit and main body allows for greater layout flexibility in fab retrofits and new tool installations. 

Ball Wave's technology platform extends beyond moisture analysis to a broader range of chemical sensing applications, creating multiple revenue streams and cross-selling opportunities within semiconductor fabs and adjacent industries, including pharmaceuticals, aerospace, and industrial gases. 

Market Opportunity and Strategic Position: Ball Wave has established relationships with leading semiconductor manufacturers in Taiwan, with active discussions underway in South Korea, Japan, and the United States 

  • The company's technology addresses a growing market as advanced node production (5nm and below) requires increasingly stringent contamination control
  • Ball Wave holds key patents in ball SAW sensor technology with additional applications pending in major semiconductor manufacturing regions
  • The company's university origins provide access to cutting-edge MEMS research and ongoing innovation pipeline

About Ball Wave Inc.: Ball Wave Inc. is a technology company specializing in advanced chemical sensing solutions for critical industrial applications. Founded as a spin-out from Tohoku University, a global center of excellence in MEMS technology, Ball Wave leverages proprietary ball SAW sensor technology to deliver breakthrough performance in trace contamination detection. The company serves semiconductor manufacturers, industrial gas suppliers, and other industries requiring ultra-precise gas analysis. Ball Wave is headquartered in Sendai, Japan.

For inquiries regarding this matter, please contact: Ball Wave Inc., Corporate Strategy Division, Yusuke Tsukahara 

[email protected] 

Telephone: +81-3-5979-2357 

https://www.ballwave.jp/ 

1. https://www.semi.org/en/semi-press-release/global-semiconductor-equipment-sales-projected-to-reach-a-record-of-156-billion-dollars-in-2027-semi-reports 

2. https://www.mckinsey.com/industries/semiconductors/our-insights/need-to-boost-semiconductor-fab-efficiency-look-to-maintenance

Gütenbach, Germany – December 16, 2025 – RENA Technologies is proud to be a key industrial partner in a new 1.3 million Euro Government-funded project led by the National Physical Laboratory (NPL) and supported by the Department for Science, Innovation and Technology (DSIT). The initiative will establish critical new metrology capabilities to strengthen the UK’s semiconductor innovation infrastructure and accelerate the development and adoption of next-generation semiconductor materials and processes.

This strategic investment underlines the UK’s commitment to maintaining global competitiveness in semiconductors, helping to attract private investment, strengthen supply chains, and support long-term economic growth. As advanced semiconductor materials become central to technologies such as electric vehicles, renewable energy, 5G communications and advanced electronics, robust measurement, verification and standards are increasingly essential.

The project brings together a broad consortium spanning industry and academia. Together, the partners cover the full innovation landscape, from materials research and process development to device fabrication and performance verification.

“At RENA, we develop advanced wet processing and surface treatment solutions that are critical in manufacturing of compound semiconductors and emerging materials. Through this collaboration, RENA will contribute industrial insight and process expertise to ensure that new measurement and testing capabilities are closely aligned with real manufacturing challenges.” States Peter Schneidewind, CEO of RENA Technologies.

While silicon remains the foundation of much of today’s semiconductor industry, many high-growth applications increasingly depend on advanced materials such as gallium arsenide (GaAs), gallium nitride (GaN), silicon carbide (SiC), and indium phosphide (InP). These materials offer superior performance in high-power, high-frequency and optoelectronic applications, but they also introduce new complexities in processing, characterization and quality assurance. Reliable standards and independent measurement methods are therefore essential to derisk innovation and support scale-up.

Through this project, consortium partners will work with NPL to:
• Develop new UK measurement and test capabilities for advanced semiconductor materials by combining academic research excellence with world-leading metrology expertise.
• Apply these capabilities to critical industry challenges, including assessing material integrity, verifying RF performance, and testing device reliability under demanding operating conditions.
• Share the resulting capabilities openly with industry, helping to build national consensus and strengthen the UK’s influence in international standards development for novel semiconductor technologies.

Following extensive consultation the consortium has identified three priority application areas where the UK can have the greatest global impact: power electronics, RF-communications, and optoelectronics. These areas align closely with RENA’s customer base and technology roadmap, particularly in power and compound semiconductor manufacturing.
By participating in this program, RENA reinforces its commitment to supporting the UK semiconductor ecosystem with industrially relevant innovation, enabling customers to adopt advanced materials with confidence, and helping position the UK as a global leader in next-generation semiconductor technologies.

About NPL
The National Physical Laboratory (NPL) is the UK's National Metrology Institute (NMI), developing and maintaining the national primary measurement standards, as well as collaborating with other NMIs to maintain the international system of measurement. As a public sector research establishment, it delivers extraordinary impact by providing the measurement capability that underpins the UK's prosperity and quality of life. NPL develops the metrology required to ensure the timely and successful deployment of new technologies and work with organizations as they develop and test new products and processes.

About RENA Technologies GmbH
RENA Technologies is a leading global supplier of production machines for wet chemical surface preparation. RENA products are used in path-breaking application fields such as semiconductors, MedTech, renewable energies, and the glass industry. RENA equipment is used to treat or modify surfaces of, for example, semiconductor wafers, solar cells, glass, optical substrates or other high-tech products using wet chemical processes. RENA offers proven standard machines as well as customer-specific solutions and process support.

SEOUL, SOUTH KOREA, November 18, 2025 — As the semiconductor industry accelerates global collaboration and complex supply chain operations, sensitive design and process data are increasingly exposed, not just through files, but through screens. Fasoo, the leader in data-centric security, warns that unsecured screens have become a blind spot in protecting semiconductor intellectual property (IP) and operational integrity.

“Hybrid work has blurred the traditional security boundaries. For semiconductor supply chains, visibility and accountability are essential more than ever,” said Jason Sohn, Executive Managing Director at Fasoo. “Design layouts, calibration dashboards, or live engineering sessions often contain proprietary information that can be captured, photographed, or recorded within seconds. Enhancing user security awareness and maintaining auditable activity logs are key to building a trusted and resilient ecosystem.”

While traditional security tools protect stored or shared files, the industry continues to face growing data from exposed screens. Engineers viewing CAD/EDA layouts, operators monitoring yield dashboards, and suppliers accessing systems remotely all create potential breach points. Once sensitive visuals appear on a screen, they can be lost through screenshots, photos, or unauthorized screen sharing, often without detection or traceability.

Fasoo’s screen security solutions address these challenges by blocking unauthorized screen capture, applying persistent watermarks, and maintaining detailed activity logs that record viewing and capture attempts. These capabilities provide visibility and accountability across both on-premise and remote environments, ensuring that any attempt to capture or redistribute sensitive visual information is prevented or immediately traceable.

By extending protection from files to the screens, Fasoo is strengthening its leadership in data-centric security and driving broader adoption across the semiconductor ecosystem. This expansion reinforces the company’s commitment to enabling secure innovation across the value chain, protecting high-value IP assets, enhancing compliance readiness, and supporting the industry’s digital resilience.

For more information, visit https://en.fasoo.com/products/fasoo-smart-screen/.

 

About Fasoo

Fasoo provides unstructured data security, privacy, and enterprise content platforms that securely protect, control, trace, analyze, and share critical business information while enhancing productivity. Fasoo's continuous focus on customer innovation and creativity provides market-leading solutions to the challenges faced by organizations of all sizes and industries. For more information, visit https://en.fasoo.com/.

Second-generation platform delivers advanced control, in-cycle annealing, and high-throughput performance for Wide Bandgap power and RF device manufacturing

Espoo, Finland, November 24, 2025 – Beneq introduces the Beneq Transform® XP, a second-generation ALD platform developed to meet the performance demands of Wide Bandgap (WBG) power and RF device technology development and manufacturing. Building on the proven Beneq Transform® platform, the new system adds advanced ALD control, faster cycle times, and greater process capabilities in a high-throughput format.

The Beneq Transform® XP features a second-generation, flow-optimized 25-wafer mini-batch thermal ALD reactor that achieves breakthrough deposition rates with single-digit-second cycle times for common ALD oxides and nitrides. Refined flow and pressure dynamics ensure exceptional within-wafer and wafer-to-wafer uniformity – even at a few nm film thicknesses – while precise dwell-time control delivers excellent conformality on high-aspect-ratio structures.

Transform® XP also introduces advanced PEALD process control to precisely manage low-energy ions. This enables optimized plasma pre-cleaning and deposition, resulting in improved interface quality, tunable passivation, and enhanced device performance and reliability. The system integrates in-cycle annealing, a proprietary step that densifies and purifies films to achieve stoichiometric, low-impurity materials and crystalline alignment, such as AlN lattice orientation.

“Transform® XP is our response to the next wave of device challenges in power and RF manufacturing,” said Dr. Mikko Söderlund, Head of Sales, Semiconductor ALD at Beneq. “Customers value the original Transform® for its versatility and reliability. With XP, we introduce capabilities they specifically asked for – improved ion control, faster cycles, and in-cycle film densification – all in a versatile platform.”

With over a dozen Beneq Transform® clusters installed globally for WBG pilot and production use, and more than 100 process modules shipped, Beneq continues to support leading IDMs, foundries, and RTOs advancing More-than-Moore technologies.

About Beneq

Beneq pioneered industrial production of Atomic Layer Deposition (ALD) with the introduction of the first commercial ALD equipment in 1984. Today, Beneq advances ALD adoption and validation with a portfolio that includes the Beneq Transform®, Transform XP, Transform 300, Transmute™, and Prodigy™ for specialty semiconductor device fabrication; TFS 200 and TFS 500 for R&D; the P400A, P800, and P1500 batch systems for coating critical semiconductor chamber components and complex part geometries; and spatial ALD platforms such as the C2R™ and Genesis for roll-to-roll processing. Headquartered in Espoo, Finland, Beneq enables ALD integration from lab to fab for semiconductors, optics, and functional coatings.

Press Contact
Charlotte Bärlund
Event and Communications Lead
[email protected]

Breker Verification Systems today confirmed its RISC-V functional verification solutions were pivotal for verification of the NOEL-V, one of Frontgrade Gaisler’s fault-tolerant RISC-V processor IP cores.

“The development of Frontgrade Gaisler’s IP cores is guided by a philosophy that does not tolerate design issues,” notes Jan Andersson, Director of Engineering at Frontgrade Gaisler. “This demands the most robust verification environment, something Breker’s verification solution has contributed to improve, with its broad range of tests and in-depth corner case coverage.”

The ultra-high verification coverage afforded by Breker’s RISC-V SystemVIP and Test Suite Synthesis products make it a key technology in Frontgrade Gaisler’s development program. Breker provides test suites for the complete verification of RISC-V cores and SoCs from detailed microarchitectural analysis to advanced system integrity validation.

The NOEL-V processor by Frontgrade Gaisler, targets high-reliability applications, with its high-performance and fault-tolerant design. Built on the RISC-V architecture, NOEL-V offers customization options, allowing SoC designers to create solutions tailored to their specific needs. The processor is at the heart of the GR765, Frontgrade’s next-generation radiation-hardened space microprocessor.

“We are delighted to work with Frontgrade Gaisler to achieve their extreme coverage goals and eliminate unpredictable corner cases, both of which are necessary given the extreme environments in which their devices are deployed,” says David Kelf, Breker’s CEO. “Our RISC-V test suites have become an essential component in the development flows of over 20 commercial entities and other organizations, providing us with unique experience with the numerous unusual verification issues inherent in these processors.”

Breker extended testing to target advanced, system-level integrity, in addition to its existing test suites and generators focused on instruction set architecture testing, included in its RISC-V SystemVIP. It provides coverage by driving cross functional stress verification and unpredictable corner case discovery with its test suite synthesis technology applied across the verification flow from simulation, through emulation and prototyping to post silicon validation.

About Frontgrade Gaisler
Frontgrade Gaisler, a Frontgrade company, is a leading provider of radiation-hardened microprocessors and IP cores for critical applications, particularly in the space industry. The company’s processors are ideal for any space mission or other high-reliability application due to their reliability, fault tolerance, and radiation tolerance. Frontgrade Gaisler microprocessors can be found all over the solar system, from Mercury to Neptune. www.gaisler.com

About Breker Verification Systems
Breker Verification Systems solves complex semiconductor challenges across the functional verification process from streamlining UVM-based testbench composition to execution for IP block verification, significantly enhancing SoC integration and firmware verification with automated solutions that provide test content portability and reuse. Breker’s solutions include a SystemVIP library of scenarios for RISC-V and Arm, core and SoC testing, coherency, security and other critical areas. Breker solutions easily layer into existing environments and operate across simulation, emulation, prototyping, and post-silicon execution platforms. Its Trek family is production-proven at leading semiconductor companies worldwide and enables design managers and verification engineers to realize measurable productivity gains, speed coverage closure and easy verification knowledge reuse. As a leader in the development of the Accellera Portable Stimulus Standard (PSS), privately held Breker has a reputation for dramatically reducing verification schedules in advanced development environments. Case studies that feature Analog Devices, Broadcom, IBM and other companies leveraging Breker’s solutions are available on the Breker website.

Engage with Breker at:
Website: www.brekersystems.com
Twitter: @BrekerSystems
LinkedIn: https://www.linkedin.com/company/breker-verification-systems/

New platform delivers ALD film quality at production throughput for Wide Bandgap and other specialty device manufacturing

Espoo, Finland, November 19, 2025 – Beneq, a global leader in Atomic Layer Deposition (ALD) equipment and solutions, today announced Beneq Transmute™, a next-generation ALD platform designed for high-volume semiconductor manufacturing. Engineered for high volume production of Wide Bandgap (WBG) power electronics, advanced RF devices, μLED and other specialty devices, Beneq Transmute™ combines performance, scalability, and cost efficiency in one system.

Atomic precision at manufacturing speed

Beneq Transmute™ extends the performance of the Beneq Transform® XP platform into production environments with Beneq’s proprietary 3-step ALD architecture. By combining plasma pre-treatment, plasma-enhanced ALD (PEALD), and thermal batch ALD, the platform delivers conformal, high-performance dielectric stacks with atomic-level interface control – now at high throughput.

Its flow-uniform 25-wafer chambers, paired with advanced precursor dosing technology, enable rapid cycle times, optimized wafer coverage, and reduced precursor waste – resulting in a low cost of ownership across a broad range of semiconductor applications.

“Beneq Transmute™ represents a major leap forward in making ALD a truly high-volume manufacturing solution,” said Lucas Monteiro, Head of Product at Beneq. “By combining the precision of ALD with throughput and scalability that match production demands, we are giving our customers the ability to produce next-generation Wide Bandgap and RF devices at high throughput and low cost of ownership – with the uncompromised film quality that Beneq is known for.”

Designed for dedicated production requirements

Beneq Transmute™ supports both thermal and plasma-enhanced ALD within a modular cluster architecture that enables dedicated configurations. With up to two transfer chambers and eleven process module slots – including PEALD, Thermal, Buffer, and Preheater – each system can be tailored to match specific customer applications and fab roadmaps while ensuring long-term scalability.

Enabling the next wave of electronics

Beneq Transmute™ directly supports key semiconductor market trends – including the electrification of transport, adoption of renewable energy, 5G and RF communications, data centers and next-generation displays. Its combination of atomic precision and production throughput positions Beneq as a technology enabler for a more efficient, connected, and sustainable future.

About Beneq

Beneq pioneered industrial Atomic Layer Deposition (ALD) with the introduction of the first commercial ALD equipment in 1984. Today, Beneq advances ALD technology adoption and validation with a portfolio that includes Transform®, Transform® 300, and Prodigy™ for specialty semiconductor device fabrication; TFS 200 and TFS 500 for R&D; and innovative spatial ALD platforms such as the C2R™ and Genesis for rolltoroll processing. Beneq’s systems support process innovation from lab to fab, enabling integration of ALD in advanced manufacturing. Headquartered in Espoo, Finland, Beneq operates globally to help customers scale ALD solutions for the future of semiconductors, optics, and functional coatings.

Press Contact:
Charlotte Bärlund
Event and Communications Lead
[email protected]