C

Cambridge GaN Devices

Designs energy-efficient GaN power devices

Overview

Cambridge GaN Devices designs GaN-based power semiconductors and outsources manufacturing as a fabless company. Its ICeGaN family uses enhancement-mode GaN transistors that run with standard silicon gate drivers and include on-chip logic and protection, delivering a single-chip solution with up to 50% lower power losses than silicon; the H2 series adds an on-chip circuit for better light-load and no-load efficiency. It stands out by prioritizing easy integration (no special circuitry or negative voltages) and offering a product roadmap from consumer electronics to data centers and EV powertrains, with Combo ICeGaN modules that pair GaN HEMTs with traditional IGBTs for high-power needs. The goal is to enable more energy-efficient power conversion to reduce energy use and CO2 emissions across electronics, data centers, industry, and mobility.

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About Cambridge GaN Devices

Simplify's Rating
Why Cambridge GaN Devices is rated
B-
Rated B on Competitive Edge
Rated B on Growth Potential
Rated C on Differentiation

Industries

Automotive & TransportationHardwareIndustrial & ManufacturingEnergy

Company Size

51-200

Company Stage

Series C

Total Funding

$64.6M

Headquarters

Cambridge, United Kingdom

Founded

2016

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Simplify's take

What believers are saying

  • CGD launched a 650V, 9mΩ automotive ICeGaN chip in June 2026.
  • November 2026 Project SUITE places CGD inside a Nissan-led traction-inverter program.
  • The February 2025 $32 million Series C funded broader UK, Taiwan, Europe, and North America expansion.

What critics are saying

  • NXP and GlobalFoundries partnerships still depend on actual design wins and volume shipments.
  • Project SUITE remains pre-production; Nissan and Ricardo have not disclosed commercialization timelines.
  • SiC incumbents and larger GaN rivals can outspend CGD before automotive ramp validation.

What makes Cambridge GaN Devices unique

  • ICeGaN integrates protection and drive features, enabling standard MOSFET gate-driver compatibility.
  • CGD’s fabless CMOS approach lets it shift production across foundries like GlobalFoundries.
  • Fabio Necco’s onsemi background adds commercialization discipline to deep-tech GaN execution.

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Funding

Total Funding

$64.6M

Below

Industry Average

Funded Over

6 Rounds

Series C funding is usually for startups that are doing well and are looking for more money to fuel major growth, such as acquiring other companies, expanding into global markets, or launching new product lines. Investors typically include larger venture capital firms and private equity.
Series C Funding Comparison
Below Average

Industry standards

$50M
$40M
$50M
$62M
$100M

Benefits

  • Health Insurance
  • Life Insurance
  • Stock Options
  • Flexible Work Hours
  • Hybrid Work Options
  • Paid Vacation
  • Training Programs
  • Professional Development Budget
  • IP bonus scheme
  • Cycle to Work Scheme
  • Employee Referral Bonus

Growth & Insights and Company News

6 month growth

-1%

1 year growth

0%

2 year growth

0%
2b Publishing
Nov 11th, 2026
Cambridge GaN Devices joins traction inverter project.

Cambridge GaN Devices joins traction inverter project. November 11, 2026 Cambridge GaN Devices is joining a UK traction inverter project. Its ICeGaN technology will support Ricardo's work within Nissan-led Project SUITE, which is developing more efficient electric vehicle power electronics and integrated charging systems. Cambridge GaN Devices (CGD) is working with engineering consultancy Ricardo on a gallium nitride traction inverter being developed within Nissan-led Project SUITE, a £10 million UK government-backed research programme focused on electric vehicle efficiency and energy integration. The Cambridge semiconductor company will supply ICeGaN integrated power device technology and engineering expertise for Ricardo's propulsion inverter design. Nissan leads the wider programme, combining work on conversion hardware with intelligent charging and renewable energy technologies. The collaboration remains in design and development, with prototype measurements and industrial production plans still to be reported. Project SUITE is supported through the government's DRIVE35 automotive programme and involves ten industry and academic partners. Nissan Technical Centre Europe in Cranfield is coordinating development, with the resulting technologies intended to be integrated into the British-built Nissan LEAF platform for testing. Its wider work also includes vehicle-integrated solar panels, an automated bidirectional charger, charging management software and forecasting tools. A traction inverter sits between an electric vehicle's high-voltage battery and its drive motor. It converts the battery's direct current into controlled alternating-current waveforms, adjusting the electrical supply to deliver the torque and speed requested by the vehicle control system. The semiconductor switches inside the inverter determine how efficiently the converter can perform that task, while the surrounding design must handle current, heat, electrical noise and fault conditions. Gallium nitride devices can operate at high switching speeds with comparatively low switching losses, potentially reducing converter energy dissipation and the size of associated passive components. A useful traction inverter nevertheless requires the switching strategy, electrical current, motor characteristics, semiconductor packaging, cooling and electromagnetic compatibility to be engineered together. Higher switching frequencies can increase electrical interference and complicate thermal management if those constraints are not addressed. CGD's ICeGaN technology combines a gallium nitride transistor with integrated control and protection functions designed to allow conventional gate-driver arrangements. The integration can reduce external circuitry while supporting the connection of multiple devices in parallel. That configuration is relevant where traction inverter current requirements exceed what can be handled economically or thermally by a single switching package. Parallel operation makes consistent current sharing essential. When devices switch at slightly different times or carry unequal currents, one component can experience a greater electrical and thermal load than its neighbours, reducing the safe operating margin of the whole assembly. CGD claims its architecture supports balanced operation with five or more devices connected in parallel. The consortium has not yet reported the selected device configuration or measured efficiency and thermal characteristics of its inverter. Ricardo contributes propulsion system design, integration and validation expertise. Temoc Rodriguez, Ricardo's global technical expert in electric propulsion systems, has associated the work with five years of the consultancy's research into high-power gallium nitride applications. The next engineering tasks will include translating the device-level approach into a manufacturable inverter, assessing thermal behaviour under load and validating performance with the chosen motor and battery architecture. Nissan described the wider programme when it began in June as an effort to combine on-board energy generation, charging controls and more efficient conversion hardware in one vehicle. Its approach includes a charging system designed to coordinate electricity use and an automated device for bidirectional vehicle-to-grid connection. The inverter is one part of that architecture rather than a standalone solution to the project's full charging and energy objectives. In a vehicle-to-grid arrangement, energy can be transferred from a battery to an external electrical system when the hardware, connection and control strategy permit. Integration raises additional design questions, including protection, communication with charging equipment, battery operating limits and the way different energy conversion stages interact. The research programme is intended to explore these relationships in a combined demonstrator, but no commercial release date has been specified. The programme also brings together specialists in power modules, photovoltaic technology, controller design, electrical networks and digital systems. Those interfaces are relevant to automotive industrialisation because a laboratory semiconductor design must ultimately be translated into a component that can be packaged, cooled, assembled, tested and serviced in a vehicle application. Repeatable electrical characteristics and manufacturing quality become as important as the peak performance observed in a prototype. As the project advances, prototype measurements will establish the inverter's switching losses, temperature distribution, electromagnetic performance and reliability through operating cycles. Those tests, followed by integration with Nissan's demonstrator vehicles, will determine the suitability of the design for further automotive development. No production launch schedule has been disclosed. Stories for you. * Safran launches FleetLife aircraft equipment monitoring service Safran has introduced FleetLife for predictive aircraft equipment maintenance management. 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Automation Update
Nov 10th, 2026
CGD partners with Ricardo bringing the benefits of Integrated gallium Nitride technology to next generation traction inverters for Nissan led venture.

CGD partners with Ricardo bringing the benefits of Integrated gallium Nitride technology to next generation traction inverters for Nissan led venture. UK Government backed Project SUITE will realise smarter, more efficient and convenient EVs and help speed widespread adoption Cambridge GaN Devices (CGD), a global leader in innovative GaN (Gallium Nitride)-based power devices, has announced that it is working with Ricardo on their development of a high-efficiency GaN-based traction inverter. Project SUITE (Sustainable Use of Integrated Technology for EVs) is a Nissan-led consortium and is a £10 million, UK Government backed research initiative aimed at fundamentally changing how EVs are charged, powered, and experienced. The project was awarded funding as part of the UK Government's £4 billion DRIVE35 programme, delivered by the Department for Business, Innovation, Science and Trade in partnership with the Advanced Propulsion Centre UK (APC) and Innovate UK. CGD's advanced ICeGaN[â] integrated circuit will be used in the inverter design to help deliver high efficiency, cost-effective, faster, low loss switching and reduced energy consumption versus power semiconductor solutions currently adopted in EVs. ICeGaN overcomes the difficulties normally associated with incorporating and operating GaN as, due to a wide range of integrated features, it requires fewer additional components and operates using standard gate drivers. Furthermore, ICeGaN is the only GaN technology that has achieved optimal current sharing when five or more devices are connected in parallel. CGD's engineering expertise in GaN technology will complement Ricardo's extensive in-house automotive experience and capabilities to help achieve the objective of designing and developing an advanced high-efficiency traction inverter. As well as utilising GaN for an efficient, optimised traction inverter design, Project SUITE will also see the incorporation of intelligent technologies around the vehicle that will bring benefits such as reduced and automated charging, longer range, and reduced energy bills. Dan Murphy | Senior Director Product Management, CGD "This is an exciting project for CGD to be involved with and underlines the value and importance of practical, easily adoptable GaN technologies to the necessary, continued evolution of EVs, and in this instance specifically next generation traction inverters. The expertise and resource of the consortium members, UK government backing, and Nissan as the lead are all constituent parts that will drive a highly valuable and useable outcome." Temoc Rodriguez | Global Technical Expert in Electric Propulsion Systems, Ricardo "Ricardo is a pioneer in the use of GaN semiconductor technology in high-power applications, and this project is the culmination of our R&D efforts over the last five years. This new product will be the first-of-a-kind for next-generation traction inverters that will operate at high efficiency at a reduced cost." About ICeGaN(R) CGD's proprietary monolithic ICeGaN(R) technology, brings higher efficiency and greater ease of use as ICeGaN devices are driven the same way as a conventional silicon or silicon carbide device. Unlike conventional GaN, this makes paralleling easily achievable as it eliminates the challenges of balancing the gate drive voltages and generating the correct negative voltage to turn the device off. The integrated ICeGaN circuit also ensures high gate robustness up to 80V and can also include other valuable features such as slew rate control and DESAT protection. About Cambridge GaN Devices Cambridge GaN Devices (CGD) designs, develops and commercialises GaN transistors and ICs enabling a radical step in energy efficiency and compactness. Its mission is to bring innovation into everyday life by delivering effortless energy-efficientGaN solutions. CGD's ICeGaN(R) technology is proven suitable for high-volume production, and the company is rapidly scaling up with manufacturing and customer partnerships in place. A fabless enterprise under the leadership of CEO Fabio Necco, a power semiconductor industry veteran, CGD was spun out from Cambridge University. Its founders, CMO Dr. Giorgia Longobardi, and CTO Professor Florin Udrea, still retain strong links with the world-renowned High Voltage Microelectronics and Sensors group (HVMS) at the University. CGD's ICeGaN HEMT technology is protected by a strong and constantly growing IP portfolio, resulting from the company's commitment to innovation. The technical and commercial expertise of the CGD team, combined with an extensive track record in the power electronics market, has been fundamental to the market acceptance of its proprietary technology.

Power Electronics News
Jun 25th, 2026
PCIM 2026: CGD's Fabio Necco on monolithic GaN integration and the startup advantage.

PCIM 2026: CGD's Fabio Necco on monolithic GaN integration and the startup advantage. CGD's Fabio Necco discusses monolithic GaN integration, fab-agnostic CMOS, and how large players are validating the GaN market. Description. In this interview from PCIM Europe 2026, Power Electronics News sits down with Fabio Necco, CEO of Cambridge GaN Devices (CGD), to discuss his new role as CEO of CGD, his background at onsemi, what ICeGaN was designed to solve, the monolithic integration of gate drive features on the GaN die, the advantages of a fab-agnostic CMOS process, and how CGD plans to compete as larger players double down on GaN. Transcript. AS: Fabio, how's the show been so far? FN: It's been very good. Powerelectronicsnews has a lot of traffic at the booth, a lot of very interesting questions from customers, and a lot of interest from customers in its technology. AS: Thank you for sitting down with me and for being willing to answer my questions. If you're happy, I'll just dive in. Partner Content FN: Please do. AS: So I understand you took over Cambridge GaN Devices after serving as VP and Division GM at onsemi. How does that experience shape your approach to market expansion at Cambridge GaN Devices? FN: Yeah, definitely - I've learned a lot over 26 years in power semiconductors, and so it's really going to help me be successful in taking this company to the next level. I have been able to grow many business units, really from conception to become big, so I think my experience is going to really help CGD. AS: Thank you. So what was the specific design problem that CGD set out to solve with ICeGaN, and how is that different from what other GaN vendors have done? FN: Yeah, it's a very good question. So the main thing that ICeGaN was trying to solve is the ease of use of GaN in new applications. When the concept was conceived, GaN was very new, and there were a lot of concerns about how to use GaN. The initial devices with GaN were very difficult to use, so if you don't know how to control the gate well, the device will really fail in the application. So that was the primary problem they wanted to solve. But then, in addition to that, as Powerelectronicsnews started adding features to the product to address that, Powerelectronicsnews also realized Powerelectronicsnews can do a lot more with GaN. And so that evolved to what ICeGaN is today, which is really a monolithic approach to GaN that integrates some of the key features like the Miller clamp, the gate drives, that really address the ease of use - but also other functionalities like sensing, slew rate control, current sense, temperature sense, DESAT, that really enhance how Powerelectronicsnews can use GaN in real applications. AS: Thank you. Just from what I understand, ICeGaN integrates interface circuitry, as you said, monolithically - a low-voltage auxiliary HEMT, a current source, a voltage limiter, and a Miller clamp on the same die as the power HEMT. So, it can work with a standard external silicon MOSFET driver. How significant is that in practice? FN: Correct. It's very significant because today there are still a limited number of GaN drivers in the market. So, as you design a power stage, knowing that you can choose from any driver really gives you a lot more flexibility. And if you look, the overall market for drivers for MOSFET or for silicon carbide is very big, while the GaN driver market is still somewhat limited. So it really opens up a lot more options for designers to do more advanced things, because there is just a much broader set of drivers out there. AS: Thank you. So, can you describe the benefits of using a standard CMOS process flow with ICeGaN? FN: Yes, so the main advantage is that Powerelectronicsnews can move this process basically to any foundry that offers a CMOS process. So really, that's the main advantage, Powerelectronicsnews is truly fab-agnostic. Of course, Powerelectronicsnews design around this process, and Powerelectronicsnews has IP around how Powerelectronicsnews implement the ICeGaN. But the beauty is that you can take it to any foundry, as long as they have a CMOS process. AS: Last question: major players - large IDMs and well-funded fabless firms - are all doubling down on GaN. How does CGD compete as the market gets more crowded? FN: It's a very good question. Of course, Powerelectronicsnews need to be clever - Powerelectronicsnews need to continue to find new ways to solve problems. I think the nice thing is that having a lot of bigger companies working on GaN is really going to help create the momentum and really create the market, because many customers still have questions around how reliable GaN is, how available GaN is. So Powerelectronicsnews need more than just a few startups to do this. Having the big guys really helps with that. But then, the advantage Powerelectronicsnews has being small is that Powerelectronicsnews can move very fast and Powerelectronicsnews can develop products very quickly, because Powerelectronicsnews is very agile, and Powerelectronicsnews has to make sure Powerelectronicsnews continue to keep that as a way to differentiate and be the first ones with innovative solutions, and that's really ultimately how Powerelectronicsnews plan to win. AS: Well, thank you for meeting with me, Fabio. Did you have any last thoughts, final comments, or any news here at PCIM that you wanted to talk about? FN: Yesterday, Powerelectronicsnews announced a partnership - for Powerelectronicsnews, it's very important - with NXP. It's definitely key for Powerelectronicsnews to continue to work with partners, because the main challenge Powerelectronicsnews has as a smaller company is that people and companies don't know Powerelectronicsnews yet, and so having partners that are more established would really give Powerelectronicsnews a lot more credibility and the ability to be more successful. And my last thought is I really believe that the time for GaN is prime right now, so Powerelectronicsnews is going to see a lot more growth, and I'm very, very excited to be part of this. AS: Thank you so much. FN: Thank you, my pleasure. Suggested content from its partner Arrow: * Whitepaper:Real-Time Quality Monitoring Through Machine Vision * Whitepaper: Motor Control Inverters: An Overview of Architecture and Control Algorithms * Explore: Machine Vision and Motor Control for Scalable Factory Automation Selected for you: * Access: A Pre-validated AMR Reference Platform for Faster Industrial Robotics Development * Register: Power Considerations in Advancing Compact Medical Equipment Design * Webinar: Secure Your Supply, Accelerate Your Designs: A Practical Guide to the Memory Super Cycle Aalyia Shaukat has been the associate editor at EDN magazine since 2022 and is now the interim editor-in-chief at Power Electronics News. She started as an IC layout designer, then moved into RF test and engineering roles, and later into the electronics publishing industry. She has been writing for the electronics industry since 2016, with publications in several magazines, including EE Times, Power Electronics News, Embedded.com, EDN, Electronics360, and more, as well as journals such as IEEE Xplore and ACS Applied Materials & Interfaces for her work with carbon nanotubes (CNTs). She holds a Bachelor's in Electrical and Electronic Engineering.

Fusion Components
Jun 9th, 2026
New 650V GaN power chip boosts electric vehicle range and efficiency.

New 650V GaN power chip boosts electric vehicle range and efficiency. 2026-06-09 10:29:12 A breakthrough in power electronics is poised to accelerate the adoption of electric vehicles. Cambridge GaN Devices (CGD), a fabless semiconductor company, has unveiled a new 650-volt integrated circuit based on Gallium Nitride (GaN) technology, specifically engineered for automotive applications. This innovation, centered on their proprietary ICeGaN technology, directly tackles a key challenge for automakers: improving the efficiency of the vehicle's inverter to maximize driving range. Extending EV range through smarter power conversion. The heart of an electric vehicle's performance lies in its powertrain, where the inverter converts battery DC power to AC power for the motor. CGD's new device enables designers to create smaller and lighter inverters. This weight and size reduction is a critical factor in extending EV range, a primary concern for consumers considering the switch from traditional internal combustion engine (ICE) vehicles. By making EVs more efficient and practical, this technology helps sustain the global momentum toward electrified transportation. Solving a major engineering hurdle: parallel device operation. Designing high-power systems often requires connecting multiple power chips in parallel. A significant challenge for engineers has been ensuring these devices operate in a balanced manner, which typically involves meticulous component selection and added circuit complexity. The ICeGaN interface provides an elegant solution. It inherently balances the operation of multiple GaN devices, eliminating the need for matching components with nearly identical performance or adding extra circuitry. This simplifies the design process significantly, reducing development time and cost. Lower losses and higher performance for the EV powertrain. The new chip boasts a remarkably low on-resistance of just 9 milliohms (9mΩ). This characteristic translates to significantly lower power losses throughout the electric vehicle's powertrain. Reduced energy loss as heat means less demand for complex and heavy thermal management systems. Furthermore, the device's capability for higher-frequency switching allows for the downsizing of other components in the propulsion system, such as magnetics and filters. This leads to additional weight savings, which directly contributes to boosting the vehicle's range. Enhanced reliability and simplified design integration. Beyond raw performance, the ICeGaN device brings robustness and ease of use to automotive inverter design. It simplifies the connection to the gate driver integrated circuits within the inverter and facilitates straightforward parallel operation. A key feature is an integrated auxiliary transistor that filters out parasitic electrical noise from the gate driver circuits, granting the device a built-in immunity to noise and enhancing system stability. The interface also incorporates integrated temperature sensing, providing vital data for system control and advanced diagnostics, thereby improving the overall reliability of the EV powertrain. Meeting automotive industry demands. "This technology clearly showcases the benefits of GaN and our unique ICeGaN interface for next-generation inverter designs," stated Dan Murphy, Senior Director of Product Management at CGD. "It delivers precisely what automotive developers are seeking: lower losses, a more compact size, and reduced costs. We are addressing the core needs of the industry to make electric vehicles more efficient and affordable." Proven technology for high-power applications. CGD has a strong track record in high-power GaN solutions. The company has previously demonstrated a multi-level GaN inverter capable of handling an 800V DC link. This inverter can deliver over 100kW of peak power and 75kW of continuous power to electric motors, showcasing the technology's suitability for a broad range of high-voltage electrification and motor-drive applications beyond passenger cars, including commercial and industrial vehicles. Strengthening the global supply chain. To ensure robust and scalable manufacturing, CGD announced a strategic partnership in October with GlobalFoundries (GF). GF, a U.S.-based pure-play semiconductor foundry with a global manufacturing presence spanning the USA, Europe, and Singapore, will produce these innovative ICeGaN devices. This collaboration strengthens CGD's fabless strategy and significantly expands its supply chain capabilities, ensuring reliable production of ICeGaN and other advanced power devices for the global market. Sampling and industry collaboration underway. The development and commercialization of this technology are progressing rapidly. A prototype of the 9mΩ IC is currently available for sampling to qualified interested parties. CGD is actively engaged with several automotive OEMs and tier-one suppliers, working collaboratively to integrate ICeGaN devices into their future EV powertrain designs. This close collaboration with industry leaders is a key step in bringing this efficiency-boosting technology to market.

Components in Electronics
Jan 5th, 2026
New CEO appointed at Cambridge GaN Devices

New CEO appointed at cambridge GaN Devices. Appointment kickstarts next phase of growth for CGD in key markets. Cambridge GaN Devices (CGD), the fabless semiconductor company, dedicated to developing a range of energy-efficient GaN-based power devices to make sustainable electronics possible, has appointed Fabio Necco as chief executive officer. The move is designed to drive forward CGD's entry into key markets. Necco takes over as CEO from CGD co-founder, Giorgia Longobardi, who made the announcement, saying: "I am delighted to welcome Fabio to CGD and hand over the day-to-day leadership of the company while I channel my energy into my passion for bringing advanced, sustainable and energy-efficient power electronics solutions to market. Fabio, is the right person with the right skill set to take CGD into its next growth phase, and I shall do all I can to support his initiatives as I transition into my new role as CMO at CGD." Necco comes to CGD from onsemi, the US-based semiconductor company specialised in delivering industry-leading intelligent power and intelligent sensing solutions where he was vice president and division general manager with more than 25 years' experience in power electronics, application engineering, vehicle electrification, and data centres, all primary market focus points of CGD. Necco said: "CGD is at an exciting juncture in its history. I have known CGD and Giorgia for years and have long been impressed with its success under her leadership. I am very excited about CGD's unique technology and to have been chosen to lead our entire team to the next stages of product development as well as substantially increasing our presence in key markets." CGD's energy-efficient GaN devices enable power electronic designers to develop sustainable, energy-efficient systems. These inherent benefits, coupled with the flexibility of the proven fabless model, make CGD uniquely positioned to exploit rapidly growing markets, which can already be seen in the exponential demand for GaN technology. Unlike many other GaN solutions, CGD's ICeGaN technology uses a monolithic, single-chip approach that integrates all necessary components onto a single die, which substantially improves efficiency and performance. That monolithic design means that CGD delivers compact, engineer-led GaN power devices that combine next-generation design and innovation, making it ideal for the market specific requirements of Traction/Aux inverters for electric vehicle (EV) and industrial power conversion solutions. The company's focus on bare die, ease of use, robust gate, and parallel operation make it suitable for a wide range of power applications. As for CGD co-founder, Giorgia Longobardi, in addition to her continuing role as CMO at CGD, she will continue to serve as a director on CGD's Board and on the Advisory Board of the International Semiconductor Industry Group (I.S.I.G.).

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