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onsemi announced it has secured $1.95B in long-term supply agreements (LTSAs) for its intelligent power technologies with leading global manufacturers of solar inverters, contributing to onsemi’s position as the number one power semiconductor supplier in this rapidly growing market.
By offering superior die technology with optimized and customized module design and packaging, onsemi enables solar inverter providers to compete on time-to-market, product development, supply resilience and robust quality assurance. With these benefits, the company has signed LTSAs with eight of the top 10 solar inverter suppliers, emphasizing the reputation onsemi has earned as a trusted industry partner.
“Solar power has emerged as one of the fastest growing markets and offers the most cost-competitive source for large-scale renewable energy installations,” said Asif Jakwani senior vice president and general manager, Advanced Power Division, Power Solutions Group, onsemi. “With onsemi’s intelligent power technologies, customers can achieve greater efficiency and power density to capture and save as much energy from the sun as possible to advance our common mission towards a more sustainable future.”
Solar inverters convert Direct Current (DC) electricity generated by solar panels to grid-compatible Alternating Current (AC). In the conversion process, some energy is lost as heat. onsemi’s technology enables solar inverters – ranging from utility to residential – applications to be smaller, lighter, and more efficient, which minimizes energy loss and can reduce the overall system cost.
Original – onsemi
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A small footprint of discrete power MOSFETs plays a critical role in achieving space savings, cost reduction, and easy-to-design applications. Additionally, higher power density can lead to layout routing flexibility and overall system size reduction. By expanding the current PQFN 2×2 portfolio with the new best-in-class OptiMOS™ power MOSFETs, Infineon Technologies AG offers benchmark solutions optimized for efficiency and performance in a small footprint. The new products are ideal for applications like synchronous rectification in switched mode power supplies (SMPS) for servers, telecom, and portable- and wireless chargers. Additional applications also include electric speed controllers for small brushless motors in drones.
The new OptiMOS 6 40 V and OptiMOS 5 25 V and 30 V power MOSFETs further optimize the proven OptiMOS technology for high-performance designs. They offer leading-edge silicon technology, package reliability, and superior thermal resistance (R thJC, max = 3.2 K/W) in the ultra-small PQFN 2×2 mm² package. The new devices combine industry-leading low on-resistance R DS(on) with industry-leading figures of merit (FOMs, Q G and Q OSS) for outstanding dynamic switching performance. As a result, MOSFETs with ultra-low switching and reduced conduction losses ensure optimal energy efficiency and power density, all while simplifying thermal management.
With the compact PQFN 2×2 mm² package outline, the OptiMOS power switches enable an improved system form factor with smaller, more flexible geometric outlines for end-user applications. The MOSFETs facilitate reliable system design with less need for paralleling, significantly reducing space and system cost.
Original – Infineon Technologies
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Qorvo® announced the release of QSPICE™, a new generation of circuit simulation software that provides power and analog designers significantly higher levels of design productivity through improved simulation speed, functionality and reliability.
In addition to advancing the state of the art in analog simulation technology, QSPICE allows designers to simulate complex digital circuits and algorithms. Its unique combination of modern schematic capture and fast mixed-mode simulation make it the ideal tool to solve the increasingly complex hardware and software challenges faced by today’s system designers.
“QSPICE enables an entirely new generation of mixed-mode circuit simulation,” said Jeff Strang, general manager for Qorvo’s Power Management business. “In the past, power designers relied on analog circuits and silicon power switches. Today, digital control and compound semiconductors are common elements of advanced power designs. Whether an engineer is developing AI algorithms for EV battery charging, optimizing a Qorvo pulsed-radar power supply or evaluating the newest silicon carbide FETs, QSPICE is the perfect platform for innovation.”
Qorvo’s QSPICE is available free of charge and offers numerous enhancements over legacy analog modeling tools. These improvements include:
- Complete support for advanced analog and digital system simulations, such as those used in AI and machine-learning applications.
- An upgraded simulation engine that uses advanced numerical methods and is optimized for modern computing hardware, including a GPU-rendered user interface and SSD-aware memory management, to provide dramatically higher speed and accuracy.
- Reduced overall runtimes and a 100% completion rate, based on Qorvo benchmark tests with a suite of challenging test circuits. This compares to a failure rate of up to 15% with these same test circuits using other popular SPICE simulators.
- Availability of a regularly updated QSPICE model library featuring Qorvo’s silicon carbide and advanced power management solutions, making it easy for customers to evaluate and design with Qorvo power.
QSPICE is available now at www.qspice.com and is actively supported by Qorvo as well as a robust user community through Qorvo’s QSPICE forum at forum.qorvo.com.
Original – Qorvo®
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Wide Bandgap (WBG) semiconductors play a strategic role in driving innovation and creating energy efficient and high-performance electronics. Demand for these semiconductors is fueled by sustainability, industry advancements, and advanced connectivity.
However, meeting this demand requires addressing challenges like cost, technology reliability, and geo-politic chaos among others. While the global WBG semiconductor industry is poised for unprecedented growth in the next 10 years, it would be critical to prioritize the opportunities, and effectively tackle the challenges to meet the short-term and long-term demands.
Join Frost & Sullivan for an engaging and thought-provoking Think Tank on “WBG Semiconductors: Overcoming Challenges, Unlocking Potential” on July 28, at 10:00 AM, EDT. The distinguished panel of semiconductor professionals will share their expertise and experiences and will address pressing questions like:
- How can WBG semiconductors play a central role in driving sustainability goals?
- How can WBG semiconductors contribute to improving efficiency in renewable energy systems and energy infrastructure?
- What role would regulations and standards play in driving the adoption of WBG semiconductors?
- Electric vehicles (EVs) have long been strong advocates for WBG semiconductors – What are the current opportunities beyond EV that demand immediate action?
Mark your calendars to engage in discussion with:
- Prabhu Karunakaran, Industry Principal at Frost & Sullivan
- Jonathan Robinson, VP Research, Power and Energy at Frost & Sullivan
- Stephen Oliver, Marketing & Investor Relations at Navitas Semiconductor
- Alexey Cherkasov, Marketing & Sales Director at Leapers Semiconductor
Original – Frost & Sullivan
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The European Commission has approved the “Important Project of Common European Interest on Microelectronics and Communication Technologies” (IPCEI-ME/CT) with the aim of initiating complex and investment-intensive projects that could not otherwise be realized. This involves 68 projects from 14 member states – and two of those comes from Semikron Danfoss.
Semikron Danfoss is planning the further development of diodes based on thin-wafer technology and the development of a new edge structure – as well as the establishment of automotive module production based on Direct Press Die technology in Nuremberg, a continuation of the activities from the IPCEI on Microelectronics project. And in Slovakia, development activities and an expansion of production for industrial modules are planned.
Projects funded under the IPCEI -ME/CT will enable the development of new technologies and products that will make a decisive contribution to the further reduction of CO2 emissions and will secure growth and jobs in Europe. The Semikron Danfoss projects address the objectives of the European Union to strengthen competitiveness and security of supply in key technologies for both the digital and the green transformation process.
Power semiconductors are an important multiplier along the value chain of many products. The projects also aim to expand European cooperation with universities and research institutes as well as suppliers. The member states are now starting the implementation process and will determine the requirements of the projects based on the EU decision. Thanks to the prior approval of the early start of the initiatives, the projects have already been launched. The official funding commitment from the federal government and the state of Bavaria is expected shortly for Germany.
Original – Semikron Danfoss
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In static switching applications, power designs focus on minimizing conduction losses, optimizing thermal behavior, and achieving compact and lightweight systems while ensuring high quality at a low cost. To meet the needs of next-generation solutions, Infineon Technologies AG is expanding its CoolMOS™ S7 family of high-voltage superjunction (SJ) MOSFETs.
The devices are aiming at SMPS, solar energy systems, battery protection, solid-state relays (SSR), motor-starters and solid-state circuit breakers, as well as PLCs, lighting control, HV eFuse/eDisconnect, (H)EV on-board chargers.
The portfolio extension includes innovative QDPAK top-side cooling (TSC) packages and offers a wide range of features in a small footprint. This makes it highly advantageous for low-frequency switching applications while optimizing cost positioning.
Thanks to the novel high-power QDPAK packaging, they offer an R DS(on) of only 10 mΩ, which is the lowest on the market in this voltage class and the lowest in SMD packages. By minimizing conduction losses of the MOSFETs, the CoolMOS S7/S7A solutions contribute to higher overall efficiency and provide an easy and cost-optimized way to improve system performance.
The CoolMOS S7 power switches also effectively manage heat dissipation with improved thermal resistance. Thanks to the innovative and efficient QDPAK packaging, they also reduce or even eliminate the need for heat sinks in solid-state designs, resulting in more compact and lighter systems.
The MOSFETs are available in both top-side and bottom-side variants, and feature high-pulse current capability, enabling them to handle sudden surges of current. In addition, they exhibit body diode robustness to ensure reliable operation during AC line commutation.
With fewer components required, they reduce part count, resulting in flexible system integration, lower BOM costs, and total cost of ownership (TCO). In addition, these MOSFETs enable shorter reaction times, particularly when breaking a current, facilitating smoother and more efficient operation.
Original – Infineon Technologies
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Power semiconductors companies continue to invest heavily in new factories, production capacity expansions, and R&D centers. Thus, recently the total value of the active investment projects launched since 2021 has surpassed 70 billion USD.
Driven by the pandemic and geopolitics, major power semiconductors companies started to invest more in new factories and joint ventures to have more confidence in their own supply chain in the future.
As of today, it is obvious to see the major split of power semiconductors into three geographical regions – the USA, Europe, and Asia. Asia may as well be divided into several regions with China being the leading investor of all.
Despite the ongoing tensions and export restrictions between the US, Europe, and China related to advanced semiconductors, when it comes to power semiconductors European companies continue to invest in the Chinese market expanding their product capacity or establishing new joint ventures like STMicroelectronics and Sanan Optoelectronics did recently.
Even with some delay, Japanese companies like ROHM, Mitsubishi Electric, Fuji Electric, Renesas Electronics, Toshiba, and others, pushed by their US and European competitors, announced their own projects aimed to secure the capacity on the wafer and device level to correspond to the growing demand for Si and SiC based power semiconductors coming from the electric vehicle and charging, photovoltaics, battery energy storage systems, and the other emerging applications.
If we take a closer look at all projects announced, SiC is the leading technology with over 60% of total investment. Over 25 market leaders announced their plans to invest in silicon carbide.
Thus, ROHM is investing in new production to multiply its SiC capacity in the coming years. Mitsubishi Electric teams up with Coherent to scale manufacturing of SiC power devices on a 200 mm SiC technology platform as one of the steps of their 260 billion yen investment project planned till March 2026.
Infineon Technologies continues to bet on both local European and Asian markets investing in their new fab in Dresden and expanding backend operations in Indonesia. STMicroelectronics continues to invest in WBG semiconductors with the ongoing construction of a new wafer fab in Sicily announced in 2022.
With a global total number of new investment projects of over 80, the US companies Wolfspeed, onsemi, and Microchip Technology, similar to their European counterparts, invest locally, in Europe and Asian markets. Totally the US semiconductor companies announced new projects valued at almost 9 billion USD.
With the US and EU Chips Acts, and similar initiatives in China, Japan, South Korea, and some other countries, it is clear that the investment into power semiconductors industry will continue to reach 100 billion USD soon.
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As digitalization, urbanization, and the rise of electro-mobility continue to shape the rapidly evolving world, the demand for power consumption is reaching unprecedented levels. Acknowledging energy efficiency as an important concern, Infineon Technologies AG addresses these megatrends with its silicon carbide (SiC) CoolSiC™ MOSFET 650 V in TO leadless (TOLL) packaging. The new SiC MOSFETs are enhancing Infineon’s comprehensive CoolSiC portfolio and are optimized for the lowest losses, the highest reliability, and ease-of-use in applications such as SMPS for servers, telecom infrastructure as well as energy storage systems and battery formation solutions.
The CoolSiC 650 V high-performance trench-based power SiC MOSFETs are offered in a very granular portfolio to best suit different target applications. The new family comes in a JEDEC-qualified TOLL package featuring a low parasitic inductance, allowing for higher switching frequency, reduced switching losses, good thermal management, and automated assembly. The compact form factor enables efficient and effective usage of the board space, empowering system designers to achieve exceptional power density.
The CoolSiC MOSFETs 650 V showcase remarkable reliability even in harsh environments, making them an ideal choice for topologies with repetitive hard commutation. The inclusion of the innovative .XT interconnect technology further enhances the devices’ thermal performance by reducing the thermal resistance (R th) and thermal impedance (Z th). In addition, the new devices feature a gate threshold voltage (V GS(th)) greater than 4 V for robustness against parasitic turn-on, a robust body diode, and the strongest gate oxide (GOX) in the market resulting in extremely low FIT (failures in time) rates.
While a cut-off voltage (V GS(off)) of 0 V is generally recommended to simplify the driving circuit (unipolar driving), the new portfolio supports a wide driving interval of V GS voltage within the range of -5 V (turn-off) to 23 V (turn-on). This ensures ease-of-use and compatibility with other SiC MOSFETs and standard MOSFET gate-driver ICs. This is paired with higher reliability, reduced system complexity, and the enablement of automated assembly, reducing system and production costs and accelerating time-to-market.
Original – Infineon Technologies
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NoMIS Power has achieved its latest major milestone with an award from the U.S. Air Force Research Laboratory (AFRL) to develop rugged Silicon Carbide (SiC) power devices to support the electrical power systems of aircraft.
NoMIS Power will develop 1200 V SiC power semiconductor devices (PSDs) through the award. The focus will be on metal-oxide-semiconductor field-effect transistors (MOSFETs) with enhanced operational lifetime as well as improved on-state and off-state efficiency at operating temperatures, resulting in lower losses for power electronics engineers to manage.
Solid-state power controllers within aircraft electrical power distribution systems require low on-state losses to enable passive cooling, as well as surge current and voltage overshoot protection during system start-up and fault interrupt. The proposed 1200 V SiC MOSFETs from NoMIS Power will provide airframers and system builders/integrators with the necessary PSD chips capable of high efficiency, long short-circuit withstand time (SCWT), and operational ruggedness for nominal and transient conditions. Moreover, the 1200 V rating will not only support current-generation aircraft utilizing 270 VDC architecture, but also aircraft operating with a +/- 270 VDC (i.e. 540 VDC rail-to-rail) architecture, as well.
NoMIS Power overcomes the limitations of commercial-off-the-shelf (COTS) Si and SiC-based PSDs via a novel SiC device design that is achievable using disruptive manufacturing techniques. As a result, NoMIS SiC devices can withstand higher voltage spikes and current surges during harsh operating conditions, enabling longer power management product lifetime through superior reliability and ruggedness.
Announcing the new award, NoMIS Power CEO Dr. Adam Morgan said, “Our team is very excited to get the opportunity to support strategic groups working to improve the capabilities of our armed forces. We are confident this novel SiC device technology will also have a significant impact on other critical technology markets, such as electric vehicles and grid infrastructure. These efforts will directly support our company’s near-term product launch of next-generation SiC devices.”
Original – NoMIS Power
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Semiconductors are the linchpin to the performance, safety, and customer features of Stellantis vehicles today and in the new state-of-the-art, BEV-centric STLA vehicle and technology platforms arriving soon. As the auto industry’s demand for semiconductors accelerates, Stellantis is implementing a multifaceted strategy designed to manage and secure the long-term supply of vital microchips. Developed by a cross-functional team, the strategy was created through a rigorous assessment of customer desires for advanced technology features and a keen focus on delivering the objectives laid out in the Stellantis Dare Forward 2030 plan.
The robust strategy, which is refined continuously, includes:
- implementation of a semiconductor database to provide full transparency on the semiconductor content;
- systematic risk assessment to avoid and proactively remove legacy parts;
- long-term chip level demand forecasting to support capacity securitization agreements with chip makers and Silicon Foundries;
- implementation and enforcement of a Green List to reduce chip diversity and – in case of future chip shortages – to put Stellantis in control of the allocation; and,
- the purchasing of mission-critical parts at chip makers including a long-term securitization of chip supply.
Stellantis has started to engage with strategic semiconductor providers like Infineon, NXP® Semiconductors, onsemi, and Qualcomm to further improve its all-new, state-of-the-art STLA platforms and technologies. In addition, Stellantis is working with aiMotive and SiliconAuto to develop its own differentiating semiconductors in the future.
“An effective semiconductor strategy requires a deep understanding of semiconductors and the semiconductor industry,” said Maxime Picat, Chief Purchasing and Supply Chain Officer at Stellantis. “We have hundreds of very different semiconductors in our cars.
We have built a comprehensive ecosystem to mitigate the risk that one missing chip can stop our lines. At the same time, key vehicle capabilities directly depend on the innovation and performance of single devices. SiC MOSFETS extend the range of our electric vehicles while the computation performance of a leading-edge SoC is essential for the customer experience and safety.”
To date, Stellantis has entered into direct agreements for semiconductors with a purchasing value of more than €10 billion through 2030. The supply agreements cover a variety of vital microchips, including:
- Silicon Carbide (SiC) MOSFETS, which are fundamental to the range of EVs.
- Microcontroller Unit (MCU), a key part of the computing zones for the STLA Brain electrical architecture.
- System-on-a-chip (SoC), where performance is essential for the high-performance computing (HPC) units that deliver the in-vehicle infotainment and autonomous driving assist functions.
Semiconductors play key roles in the vehicles that are driving the Stellantis transformation into a sustainable mobility tech company, as outlined in Dare Forward 2030. This includes enabling features and functions in the BEV-native STLA global platforms (Small/Medium/Large/Frame) and the seamless connectivity, remote upgradability, and the flexible service-oriented electrical/electronic architecture that underpins the STLA Brain, STLA SmartCockpit, and STLA AutoDrive artificial intelligence-powered platforms.
Original – Stellantis
