-
Efficient Energy Technology GmbH (EET), the Austrian-based pioneer in designing and producing innovative balcony power plants, has selected Efficient Power Conversion Corporation’s (EPC) EPC2204 enhancement-mode gallium nitride (eGaN®) power transistor for its latest SolMate® green solar balcony product.
The EPC2204 strikes an optimal compromise between low RDS(on) and low COSS, critical for demanding hard switching application, while featuring a drain-source breakdown voltage of 100 V in a compact package. This compact design significantly reduces PCB size, keeps current loops small, and minimizes electromagnetic interference (EMI) emissions.
EET has realized multiple benefits following the integration of GaN in its SolMate MPPT charging converter. Efficiency loss has been halved, increasing overall efficiency from 96% to 98%. The converter’s volume has decreased by 70%, the BOM and manufacturing costs have been reduced by 20%, all while lowering cooling requirements. Additionally, the increased switching frequency by a factor of 10 eliminates the need for error-prone electrolytic capacitors, thus increasing the converter’s lifespan.
By reducing power loss, EET’s system can more efficiently convert solar energy, allowing the company to generate several megawatts of additional green solar power that would otherwise dissipate as heat on a large scale. The reduced cooling requirements are particularly significant in scenarios without access to fresh air, where a water-resistant case is employed.
EET’s SolMate has won many awards for its technical innovation, for the high technical standards and the innovative design, including the James Dyson Award, Living Standards Austria, the German Sustainability Award (Design), the SolarPower Summit Award, and a finalist in the Intersolar EES Award.
Commenting on the development, Jan Senn, CMO & Sales at EET stated, “Our vision is to make renewable energy simple, safe and reliable for everyone. We accomplish this by enabling individuals to use green energy where it is most crucial – in their own homes.
SolMate combines the highest quality, excellent user experience, and design into one user-friendly lifestyle product for every home. Transitioning to GaN helps us realize this vision, and we are currently exploring the integration of GaN transistors from EPC in other power converters as well.”
Stefan Werkstetter, VP of EMEA Sales at EPC, stated, “We are delighted that EET has chosen our EPC2204 eGaN FET for their SolMate green solar balcony product. Our commitment to delivering high-performance and efficient power conversion solutions aligns perfectly with EET’s mission to make renewable energy accessible and reliable for all. We look forward to continuing our partnership with EET and contributing to the advancement of sustainable energy solutions.”
Original – Efficient Power Conversion
-
Infineon Technologies AG launches its new CoolMOS™ S7T product family with an integrated temperature sensor to improve the accuracy of junction temperature sensing. The integration of these products has a positive impact on the durability, safety, and efficiency of many electronic applications. The CoolMOS S7T is best suited for solid-state relay (SSR) applications for enhanced performance and reliability due to its superior R DS(on) and the highly accurate, embedded sensor.
Since SSRs are fundamental components in various electronic devices, customers can benefit in many ways from a superjunction MOSFET with an integrated sensor in the same package. Infineon’s innovative approach improves the relay’s performance and ensures reliable operation even under overload conditions. The integrated temperature sensor provides up to 40 percent greater accuracy and ten times faster response time than a standard independent on-board sensor located at the drain. Additionally, the monitoring process can be performed individually within a multi-device system for improved reliability.
The CoolMOS S7T enables optimal utilization of the power transistor, resulting in enhanced performance and precise control of the output stage. Compared to electromechanical relays, the total power dissipation can be improved up to two times, while current solid state triac solutions are more than 5 times less efficient. Improved efficiency and the ability to handle higher loads help in reducing power consumption and energy costs.
Unique output stage performance, coupled with a significant overcurrent threshold, bolster relay reliability and minimizes the risk of failure and downtime. The rugged switching solution also ensures safer operation. As a result of the MOSFETs increased robustness, the life of the relay is improved, leading to less frequent replacement. Ultimately, all of these benefits translate into lower maintenance costs.
Original – Infineon Technologies
-
Efficiency is a big deal for heat pumps and HVAC systems that require higher power from a smaller footprint. The new Vincotech power module 1200V PIM+PFC resolves that contradiction by taking efficiency to a whole other level. Featuring a 3-phase ANPFC and an inverter stage, it enables your engineers to design more deeply integrated systems that drive costs down.
Main Benefits
- All-in-one solution: 3-phase PFC with inverter stage in a compact flow1 housing allows for more compact designs and higher power density
- AN-PFC with SiC MOSFETs and SiC diodes for up to 200 kHz: remarkably efficient topology brings down system costs
- Thin Al2O3 substrate facilitates overall thermal design
- Inverter stage featuring SiC MOSFETs for high-frequency switching
- Integrated thermal sensor simplifies temperature measurement
Applications
- Embedded Drives
- HVAC, Heatpumps
Original – Vincotech
-
Applied Materials, Inc. and CEA-Leti announced an expansion of their longstanding collaboration to focus on developing differentiated materials engineering solutions for several specialty semiconductor applications.
The joint lab, which represents CEA-Leti’s highest level of collaboration, aims to accelerate device innovations for Applied’s customers serving ICAPS markets (IoT, Communications, Automotive, Power and Sensors). Technology applications in those fields include photonics, image sensors, RF communications components, power devices and heterogeneous integration.
Demand for ICAPS applications and devices is being driven by industrial automation, the Internet of Things (IoT), electric vehicles, green energy and smart grid infrastructure, among other major high-growth markets. Projects at the joint lab will focus on developing solutions for a variety of materials engineering challenges to enable the next wave of ICAPS device innovation. The joint lab features several of Applied Materials’ 200mm and 300mm wafer processing systems and leverages CEA-Leti’s world-class capabilities for evaluating performance of new materials and device validation. Improvements in power consumption, performance and area/cost, along with faster time to market (PPACt™), will be key objectives of the joint team.
“CEA-Leti and Applied Materials aim to accelerate innovation and advance the roadmaps of a wide range of specialty semiconductor technologies,” said Aninda Moitra, corporate vice president and general manager of Applied Materials’ ICAPS business. “Our work at the joint lab builds upon more than a decade of successful collaboration and further strengthens our combined ability to enable faster time to innovation for ICAPS chipmakers.”
“For the past 10 years, Applied Materials and CEA-Leti have collaborated through multiple, specific joint development programs, which have set the stage for establishing our new joint lab,” said Sébastian Dauvé, the institute’s CEO. “Past projects included work in domains such as advanced metrology, materials for memory applications and optical devices, bonding techniques, materials deposition and film growth (PVD, CVD, ECD, Epitaxy) and chemical-mechanical planarization (CMP). Our results brought high value to both partners and to customers around the world, and we look forward to expanding our engagement with this new lab.”
“The joint lab, which is based at CEA-Leti, will host Applied Materials scientists and involve some of its latest-generation equipment,” Dauvé said. “In addition to developing differentiated technological solutions for Applied’s customers, the work performed at the joint lab will help overcome current technical hurdles in support of CEA-Leti’s internal R&D programs.”
Original – Applied Materials
-
Coherent Corp. announced that it has closed the $1 billion aggregate investment by DENSO CORPORATION and Mitsubishi Electric Corporation in Coherent’s silicon carbide semiconductor business.
Under the terms of the transaction announced on October 10, 2023, DENSO and Mitsubishi Electric each invested $500 million in exchange for a 12.5% non-controlling ownership interest in the Business, with Coherent owning the remaining 75%. Coherent has separated and contributed the Business to a new subsidiary that will operate the Business. Going forward, all operating and capital expenses of the Business will be funded by the Business. Coherent will control and operate the Business, which will continue to be led by Sohail Khan, Executive Vice President, Wide-Bandgap Electronics.
In connection with the transaction, the Business has entered into arm’s-length long-term supply arrangements with DENSO and Mitsubishi Electric that support their demand for 150 mm and 200 mm silicon carbide (SiC) substrates and epitaxial wafers.
“As I mentioned in October, we are excited to expand our strategic relationships with DENSO and Mitsubishi Electric to capitalize on the significant demand for silicon carbide,” said Dr. Vincent D. Mattera, Jr., Chair and CEO, Coherent.
“I believe that such a close relationship with two leaders in SiC power devices and modules is the best path forward to maximize shareholder value and position the Business for long-term growth. The investments from our strategic partners will be used to accelerate our capacity expansion plans and help sustain our leadership position, while ensuring the development of a robust and scalable supply for the rapidly growing market for SiC-based power electronics, largely driven by the explosive growth of the global electric vehicle market.”
“Through this strategic relationship with Coherent, we will secure a stable procurement of SiC wafers, which are critical for battery electric vehicles, and contribute to the realization of a carbon-neutral society by promoting the widespread adoption of BEVs in all regions around the world,” said Shinnosuke Hayashi, President & COO, Representative Member of the Board at DENSO.
Dr. Masayoshi Takemi, Executive Officer, Group President, Semiconductor & Device for Mitsubishi Electric, said, “We are pleased that this investment has been successfully completed. Going forward, we will further strengthen our collaboration with Coherent, leveraging their capabilities in development and manufacturing of SiC substrates, to achieve solid growth of our SiC power device business and contribute to a more sustainable world through decarbonization.”
When incorporated into electric vehicles and industrial infrastructure, SiC-based power electronics have demonstrated the potential to significantly reduce carbon dioxide emissions and accelerate the transition to a cleaner and more energy-efficient world.
Market estimates indicate that the SiC total addressable market will grow from $3 billion in 2022 to $21 billion in 2030, representing a 28% compound annual growth rate.
The transaction builds on Coherent’s more than two decades of demonstrated leadership in SiC materials. In recent years, the Company has aggressively invested to scale its manufacturing of 150 mm and 200 mm substrates to address this underserved market.
Over the past two years, Coherent has invested aggressively in capital and R&D for SiC. The closing of this $1 billion combined investment into the Business will accelerate the Company’s capital plans in the coming years. Specifically, the investment will fund the manufacturing expansion of the Business and, in combination with the concurrent supply agreements, enhance its position in the market.
The transaction enables Coherent to increase its available free cash flow to provide greater financial and operational flexibility to execute its capital allocation priorities, as it expects the aggregate $1 billion investment will be used to fund future capital expenditure requirements of the Business.
Original – Coherent
-
The NXP Foundation, the nonprofit organization associated with NXP Semiconductors, has announced the official opening of the NXP Advanced Manufacturing Lab at Austin Community College.
The NXP Advanced Manufacturing Lab is co-located with the ACC High School Advanced Manufacturing IMPACT Academy at ACC Highland, where students can work toward college credits while they are still in high school.
The lab was announced last year as part of a $250,000 donation to the Austin Community College District (ACC) Foundation in support of the school’s Engineering Technology and Advanced Manufacturing Program. In addition to the lab, NXP’s donation includes scholarship funds targeting candidates from the Advanced Manufacturing Academy.
The NXP Advanced Manufacturing Lab demonstrates NXP’s ongoing commitment to promote and improve science, technology, engineering and math (STEM) education in the local Austin community.
The training tools provided at the lab will help support and extend educational curriculum and resources for both adult and high school students entering the semiconductor industry and other advanced manufacturing occupations. Tools and support will address education in Industry 4.0 components, fully factory automation, reading schematics and navigating feedback control systems.
Original – NXP Semiconductors
