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Orbray Co., Ltd. and MIRISE Technologies Corporation have begun collaborating on vertical diamond power devices that will contribute to carbon neutrality.
Over the three-year period of this project, Orbray and MIRISE Technologies will use their respective technologies, resources, and expertise in diamond substrates and power devices to develop the technologies needed to deploy vertical diamond power devices in a wide range of electric vehicles in the future.
In this research collaboration, Orbray will be responsible for developing a p-type conductive diamond substrate, while MIRISE Technologies will take charge of developing a high-voltage operating device structure to demonstrate the feasibility of a vertical diamond power device. At the end of this project, the companies are planning to discuss the next stage of collaboration, such as further research and development.
As the automobile industry increasingly shifts to electric vehicles worldwide to achieve carbon neutrality, the development of next-generation automotive semiconductors is essential to improve the fuel efficiency and power consumption of electric vehicles, and reduce battery costs. Compared with current mainstream semiconductor materials such as Si (silicon), SiC (silicon carbide), and GaN (gallium nitride), diamond is known as the “ultimate semiconductor material” because it has higher voltage operating capability and superior thermal conductivity (heat dissipation). In the future, the development and mass production of next-generation automotive semiconductors using diamond is expected to improve the fuel efficiency and power consumption of electric vehicles, and reduce battery costs.
Orbray and MIRISE Technologies will leverage their respective strengths to develop next-generation in-vehicle semiconductors through vertical power devices, and thereby contribute to carbon neutrality.
Original – Orbray
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Infineon Technologies AG, the global leader in automotive semiconductors, and Hon Hai Technology Group (“Foxconn”), the world’s largest electronics manufacturing services provider, aim to establish a long-term partnership in the field of electric vehicles (EV) to jointly develop advanced electromobility with efficient and intelligent features. The Memorandum of Understanding (MoU) focuses on silicon carbide (SiC) development, leveraging Infineon’s automotive SiC innovations and Foxconn’s know-how in automotive systems.
“The automotive industry is evolving. With the rapid growth of the EV market and the associated need for more range and performance, the development of electromobility must continue to advance and innovate,” said Peter Schiefer, President of the Infineon Automotive Division. “Infineon’s commitment and passion for innovation and zero-defect quality has made us the best partner for our customers. We look forward to writing a new chapter in electromobility together with Foxconn.”
“We are pleased to be working with Infineon and are confident that this collaboration will result in optimized architecture, product performance, cost competitiveness and high system integration to provide customers with the most competitive automotive solutions,” said Jun Seki, Foxconn’s Chief Strategy Officer for EVs.
According to the MoU, the two companies will collaborate on the implementation of SiC technology in automotive high-power applications like traction inverters, onboard chargers, and DC-DC converters. Both parties intend to jointly develop EV solutions with outstanding performance and efficiency based on Infineon’s automotive system understanding, technical support and SiC product offerings combined with Foxconn’s electronics design and manufacturing expertise and the capability of system-level integration.
In addition, the two companies plan to establish a system application center in Taiwan to further expand the scope of their cooperation. This center will focus on optimizing vehicle applications, including smart cabin applications, advanced driver assistance systems and autonomous driving applications. It will also address electromobility applications such as battery management systems and traction inverters. The collaboration covers a wide range of Infineon’s automotive products, including sensors, microcontrollers, power semiconductors, high-performance memories for specific applications, human machine interface and security solutions. The system application center is expected to be established within 2023.
Original – Infineon Technologies
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onsemi, a leader in intelligent power and sensing technologies, announced the release of the latest generation of 1200 V EliteSiC silicon carbide (SiC) M3S devices, which enable power electronics designers to achieve best-in-class efficiency and lower system cost. The new portfolio includes EliteSiC MOSFETs and modules that facilitate higher switching speeds to support the growing number of 800 V electric vehicle (EV) on-board charger (OBC) and energy infrastructure applications, such as EV charging, solar and energy storage systems.
Also, part of the portfolio, are new EliteSiC M3S devices in half-bridge power integrated modules (PIMs) with industry leading lowest Rds(on) in a standard F2 package. Targeting industrial applications, the modules are ideally suited for DC-AC, AC-DC and DC-DC high power conversion stages. They provide higher levels of integration with optimized direct bonded copper designs to enable balanced current sharing and thermal distribution between parallel switches. The PIMs are designed to deliver high power density in energy infrastructure, EV DC fast charging and uninterruptible power supplies (UPS).
“onsemi’s latest generation of automotive and industrial EliteSiC M3S products will allow designers to reduce their application footprint and system cooling requirements,” said Asif Jakwani, senior vice president and general manager of the Advanced Power Division, onsemi. “This helps designers to develop high power converters with higher levels of efficiency and increased power densities.”
The automotive-qualified 1200 V EliteSiC MOSFETs are tailored for high-power OBCs up to 22 kW and high voltage to low voltage DC-DC converters. M3S technology has been developed specifically for high-speed switching applications and has the best-in-class figure of merits for switching losses.
Original – onsemi
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LATEST NEWS / PRODUCT & TECHNOLOGY / SiC / TOP STORIES / WBGNavitas Launches into High-Power Markets with GeneSiC SiCPAK™ Modules and Accelerates Bare-Die Sales
May 8, 2023
2 Min ReadNavitas Semiconductor, the only pure-play, next-generation power semiconductor company, announced their expanded portfolio into higher power markets with their leading-edge silicon carbide (SiC) power products in SiCPAK™ modules and bare die.
Target applications cover centralized and string solar inverters, energy storage systems (ESS), industrial motion, electric vehicle (EV) on-board chargers, EV roadside fast chargers, wind energy, UPS, bi-directional microgrids, DC-DC converters, and solid-state circuit breakers.
Ranging from 650 V to 6,500 V, Navitas has the widest range of SiC technology. From an original line-up of discrete packages – from 8×8 mm surface-mount QFNs to through-hole TO-247s – the GeneSiC SiCPAK is an initial, direct entry point into higher-power applications. A comprehensive power-module roadmap, with high-voltage SiC MOSFETs and MPS diodes, GaN power ICs, high-speed digital isolators and low-voltage silicon control ICs is being mapped out.
Dr. Ranbir Singh, Navitas EVP for SiC noted, “With a complete portfolio of leading-edge power, control and isolation technology, Navitas will enable customers to accelerate the transition from fossil fuels, and legacy silicon power products to new, renewable energy sources and next-generation semiconductors, with more powerful, more efficient, faster-charging systems.”
SiCPAK™ modules employ ‘press-fit’ technology to offer compact form factors for power circuits and deliver cost-effective, power-dense solutions to end users. The modules are built upon GeneSiC die that have already made a mark in terms of superior performance, reliability, and ruggedness. Examples include a SiCPAK half-bridge module, rated at 6 mOhm, 1,200 V with industry-leading trench-assisted planar-gate SiC MOSFET technology. Multiple configurations of SiC MOSFETs and MPS diodes will be available to create application-specific modules for superior system performance. The initial release will include 1,200 V-rated half-bridge modules in 6, 12, 20, and 30mOhm ratings.
Within the lead-free SiCPAK, each SiC chip is silver (Ag) sintered to the module’s substrate for superior cooling and reliability. The substrate itself is ‘direct-bonded copper’ (DBC) and manufactured using an active-metal brazing (AMB) technique on silicon-nitride (Si3N4) ceramics, ideal for power-cycling applications. This construction delivers excellent strength and flexibility, fracture resistance, and good thermal conductivity for cool, reliable, long-life operation.
For customers who prefer to make their own high-power modules, all GeneSiC MOSFET and MPS diodes are available in bare die format, with gold (Au) and aluminum (Al) top-side metalizations.
Original – Navitas Semiconductor
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As part of their strategic partnership announced earlier this year, ZF Friedrichshafen AG, a leading global technology company of next generation mobility, and Wolfspeed Inc, the global leader in Silicon Carbide technology, announced their plans to establish a joint European R&D center for Silicon Carbide power electronics in the Nuremberg Metropolitan Region.
The new joint research facility is supported by the German federal government and the regional government of Bavaria. Like the planned Wolfspeed Silicon Carbide chip factory in Ensdorf, Saarland, funding for the new center is subject to approval by the European Commission under the EU’s Important Project of Common European Interest (IPCEI) scheme, as well as antitrust authorities. The aim is to develop the two facilities to become the cornerstone of a new European Silicon Carbide technology network.
Construction will begin after IPCEI funding approval has been secured for both projects, which is expected later this year. The goal of the collaboration is to develop breakthrough innovations for Silicon Carbide systems, products, and applications, covering the full value chain from module to complete systems and thus reducing time-to-market significantly. The joint research center will target requirements in all mobility segments including consumer, commercial, agricultural, and industrial vehicles, as well as in the industrial and renewable energy markets. The collaboration aims to drive improvements such as higher efficiency, increased power density and higher performance of electrification solutions. Wolfspeed’s Silicon Carbide expertise and ZF’s access to all mobility segments allows for a fast and seamless transition of new technologies.
ZF and Wolfspeed are partnering with other leading organizations from the scientific and industrial communities to establish a comprehensive European Silicon Carbide technology network. To this end, ZF will use its membership in the European Center of Power Electronics (ECPE) and share key research results at the European level. Over time, the research center is planned to develop into an electronics and semiconductor campus.
“The research center is of outstanding importance for the energy and mobility transition in the EU and supports the strategic goals of Europe,” says Dr Holger Klein, CEO of ZF. “In addition, optimizing Silicon Carbide technology advances industrial transformation and strengthens the independence of European supply chains.”
“This research facility further strengthens our partnership with ZF and underlines our long-term commitment to turn our unique know-how from more than 35 years of experience in Silicon Carbide power electronics into state-of-the-art solutions for our industry partners,” comments Gregg Lowe, CEO of Wolfspeed Inc.
The strategic partnership links ZF, one of the world’s leading suppliers of electric drives, with Wolfspeed, the world’s most recognized specialist in Silicon Carbide technology. “This connection is unique and will lead to enormous advances in Silicon Carbide-based electrical systems and electric drives,” says ZF Board of Management member Stephan von Schuckmann. “This is made possible by the close networking of the research center and production, because fundamentally redesigned Silicon Carbide chips also require new production processes.”
Original – Wolfspeed
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Infineon Technologies AG is diversifying its silicon carbide (SiC) supplier base and has signed a long-term agreement with Chinese SiC supplier TanKeBlue to secure additional competitive SiC sources. TanKeBlue will supply the Germany-based semiconductor manufacturer with competitive and high-quality 150-millimeter SiC wafers and boules for the manufacturing of SiC semiconductors, covering a double-digit share of the forecasted demand in the long term.
The agreement between Infineon and TanKeBlue contributes to general supply chain stability, also with regard to the growing demand for SiC semiconductor products for automotive, solar and EV charging applications and energy storage systems in the Chinese market. It will also support the rapid growth of the emerging semiconductor material SiC. The agreement will focus on 150-millimeter SiC material in the first phase, but TanKeBlue will also provide 200-millimeter SiC material to support Infineon’s transition to 200-millimeter wafer diameter.
“Infineon is significantly expanding its manufacturing capacities at its production sites in Malaysia and Austria to meet the growing demand for SiC. In order to offer the most comprehensive product range possible to our customers, Infineon is currently doubling down on its investments in SiC technology and product portfolio. In this context, we are implementing a multi-supplier and multi-country sourcing strategy to increase resilience to the benefit of our broad customer base,” said Angelique van der Burg, Chief Procurement Officer at Infineon. “TanKeBlue provides excellent material performance and we are pleased to sign a competitive agreement with them.”
“We welcome the opportunity to team up with our customer Infineon, a global leader in power semiconductors. TanKeBlue plans to continuously improve its SiC material and develop its next generation of 200-millimeter wafer technology. We value Infineon as an excellent customer in this regard,” said Yang Jian, CEO of TanKeBlue.
Infineon is currently expanding its SiC manufacturing capacity in order to achieve its target of a 30 percent global market share by the end of the decade. Infineon’s SiC manufacturing capacity will increase tenfold by 2027. A new plant in Kulim, Malaysia is scheduled to start production in 2024, adding to Infineon’s manufacturing capacities in Villach, Austria. Today, Infineon already provides SiC semiconductors to more than 3,600 automotive and industrial customers worldwide.
Original – Infineon Technologies
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Infineon Technologies AG has signed an agreement with Chinese silicon carbide (SiC) supplier SICC to diversify Infineon’s SiC material supplier base and to secure additional competitive SiC sources. Under the agreement, SICC will supply the Germany-based semiconductor manufacturer with competitive and high-quality 150-millimeter wafers and boules for the manufacturing of SiC semiconductors, covering a double-digit share of the forecasted demand in the long term.
The agreement will focus in the first phase on 150-millimeter SiC material, but SICC SiC material supply will also support Infineon’s transition to 200-millimeter wafer diameter. This will generally contribute to supply chain stability, in particular with regard to the growing demand for SiC semiconductor products for automotive, solar and EV charging applications as well as energy storage systems in the Chinese market, and will generally support the rapid growth of the emerging semiconductor material SiC.
“Infineon is significantly expanding its manufacturing capacities at its production sites in Malaysia and Austria in order to serve the growing SiC demand. In this context, we are implementing a multi-supplier and multi-country sourcing strategy to increase resilience for the benefit of our broad customer base and are securing new competitive top-quality sources globally, matching the highest standards in the market,” said Angelique van der Burg, Chief Procurement Officer at Infineon.
“SICC’s substrates are widely used in the Power SiC field. We are pleased to team up with Infineon as our customer, a global leader in power semiconductors. SICC will continuously expand capacity to add more value for its global customers. We value Infineon as an excellent leading strategic customer and we look forward to jointly enhancing SiC industry development and promoting global digitalization, low-carbonization, and sustainable development,” said Zong Yanmin, CEO of SICC.
Infineon is currently expanding its SiC manufacturing capacity in order to achieve its target of a 30 percent global market share by the end of the decade. Infineon’s SiC manufacturing capacity will increase tenfold by 2027. A new plant in Kulim, Malaysia is scheduled to start production in 2024, adding to Infineon’s manufacturing capacities in Villach, Austria. Today, Infineon already provides SiC semiconductors to more than 3,600 automotive and industrial customers worldwide.
Original – Infineon Technologies
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Infineon Technologies AG launched a new automotive power module: The HybridPACK™ Drive G2. It builds on the well-established HybridPACK Drive G1 concept of an integrated B6 package, offering scalability within the same footprint and extending it to higher power and ease-of-use. The HybridPACK Drive G2 will be available with different current ratings, voltage levels (750V and 1200V) and Infineon’s next generation chip technologies EDT3 (Si IGBT) and CoolSiC™ G2 MOSFET.
With a power range of up to 300 kW within the 750 V and 1200 V classes, the HybridPACK Drive G2 provides high ease-of-use and new features, such as an integration option for next-generation phase current sensor and on-chip temperature sensing, which enable system cost improvements. The power module achieves higher performance and power density through improved assembly and interconnect technology. The adoption of new interconnect technology (chip sintering) and of new materials (new black plastic housing) enables higher temperature rating, resulting in higher performance and longer product life.
The first generation (G1) of HybridPACK Drive was introduced in 2017, using silicon EDT2 technology. It offers a power range of 100 kW to 180 kW in the 750 V class. In 2021, Infineon expanded its product family with the first generation of HybridPACK Drive Automotive CoolSiC MOSFETs, which allowed the inverter design to achieve higher power up to 250 kW within the 1200 V class, longer driving range, smaller battery size and optimized system size and cost. With a track record of nearly 3 million units sold in various global electric vehicle platforms, the HybridPACK Drive is now Infineon’s market-leading power module.
The lead products (FS1150R08, FS01MR08, FS02MR12) of the new HybridPACK Drive G2 are in production and will be available starting May 2023, with additional product variants to follow in 2023 and 2024. More information is available at www.infineon.com/hybridpackdrive.
Original – Infineon Technologies
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Bosch is expanding its semiconductor business with silicon carbide chips. The technology company plans to acquire assets of the U.S. chipmaker TSI Semiconductors, based in Roseville, California. With a workforce of 250, the company is a foundry for application-specific integrated circuits, or ASICs. Currently, it mainly develops and produces large volumes of chips on 200-millimeter silicon wafers for applications in the mobility, telecommunications, energy, and life sciences industries. Over the next years, Bosch intends to invest more than 1.5 billion USD in the Roseville site and convert the TSI Semiconductors manufacturing facilities to state-of-the-art processes. Starting in 2026, the first chips will be produced on 200-millimeter wafers based on the innovative material silicon carbide (SiC).
In this way, Bosch is systematically reinforcing its semiconductor business, and will have significantly extended its global portfolio of SiC chips by the end of 2030. Above all, the global boom and ramp-up of electromobility are resulting in huge demand for such special semiconductors. The full scope of the planned investment will be heavily dependent on federal funding opportunities available via the CHIPS and Science Act as well as economic development opportunities within the State of California. Bosch and TSI Semiconductors have reached an agreement to not to disclose any financial details of the transaction, which is subject to regulatory approval.
“With the acquisition of TSI Semiconductors, we are establishing manufacturing capacity for SiC chips in an important sales market while also increasing our semiconductor manufacturing, globally. The existing clean-room facilities and expert personnel in Roseville will allow us to manufacture SiC chips for electromobility on an even larger scale,” says Dr. Stefan Hartung, the chairman of the Bosch board of management. “The location in Roseville has existed since 1984. Over nearly 40 years, the U.S. company has built up vast expertise in semiconductor production. We will now be integrating this expertise into the Bosch semiconductor manufacturing network,” says Dr. Markus Heyn, member of the Bosch board of management and chairman of the Mobility Solutions business sector. “We are pleased to join a globally operating technology company with extensive semiconductor expertise. We are confident that our Roseville location will be a significant addition to Bosch’s SiC chipmaking operations,” says Oded Tal, CEO at TSI Semiconductors.
The new location in Roseville will reinforce Bosch’s international semiconductor manufacturing network. Starting in 2026, following a retooling phase, first SiC chips will be produced on 200-millimeter wafers in a facility offering roughly 10,000 square meters of clean-room space. At an early stage, Bosch invested in the development and production of SiC chips. Since 2021, it has been using its own proprietary, highly complex processes to mass-produce them at its Reutlingen location near Stuttgart. In the future, Reutlingen will also produce them on 200-millimeters wafers. By the end of 2025, the company will have extended its clean-room space in Reutlingen from roughly 35,000 to more than 44,000 square meters. “SiC chips are a key component for electrified mobility. By extending our semiconductor operations internationally, we are strengthening our local presence in an important electric vehicle market,” Heyn says.
Demand for chips for the automotive industry remains high. By 2025, Bosch expects to have an average of 25 of its chips integrated in every new vehicle. The market for SiC chips is also continuing to grow fast – by 30 percent a year on average. The main drivers of this growth are the global boom and ramp-up of electromobility. In electric vehicles, SiC chips enable greater range and more efficient recharging, as they use up to 50 percent less energy. Installed in these vehicles’ power electronics, they ensure that a vehicle can drive a significantly longer distance on one battery charge – on average, the possible range is 6 percent greater than with silicon-based chips.
Semiconductors are key to the success of all Bosch business areas. The company recognized the potential of this technology early on, and has been producing semiconductors for more than 60 years. Bosch is one of the few companies to have not only electronic and software expertise but also a profound understanding of microelectronics. It can combine this decisive competitive advantage with its strength in semiconductor manufacturing. The supplier of technology and services has been manufacturing semiconductors in Reutlingen since 1970. They are used both in the automotive sphere and in consumer electronics. Modern electronics in vehicles is also the basis for reducing traffic emissions, preventing road accidents, and efficient powertrains. Production at the Bosch wafer fab in Dresden (300-millimeter wafers) started in July 2021. At nearly one billion euros, the wafer fab is the biggest single investment in the company’s history.
In its wafer fabs in Reutlingen and Dresden, Bosch has invested more than 2.5 billion euros in total since 200-millimeter technology was introduced in 2010. On top of this, billions of euros have been invested in developing microelectronics. Independently of the investment now planned in the United States, the company announced in summer last year that it will be investing a further 3 billion euros in its semiconductor business in Europe, both as part of its investment planning and with the aid of the EU’s “Important Project of Common European Interest on Microelectronics and Communication Technologies” program.
Original – Bosch
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Infineon Technologies AG and Schweizer Electronic AG are collaborating on an innovative way to further increase the efficiency of chips based on silicon carbide (SiC). Both partners are developing a solution to embed Infineon’s 1200 V CoolSiC™ chips directly onto printed circuit boards (PCB). This will increase the range of electric vehicles and reduce the total system costs.
The two companies have already demonstrated the potential of this new approach: They were able to embed a 48 V MOSFET in the PCB. This resulted in a 35 percent increase in performance. SCHWEIZER contributes to this success with its innovative p²Pack® solution which enables power semiconductors to be embedded in PCBs.
“Our joint goal is to take automotive power electronics to the next level,” said Robert Hermann, Product Line Head Automotive High-Voltage Discretes and Chips, of Infineon. “The low-inductive environment of a PCB allows clean and fast switching. Combined with the leading performance of 1200 V CoolSiC™ devices, chip embedding enables highly integrated and efficient inverters that reduce overall system costs.”
“With Infineon’s 100 percent electrically tested standard cells (S-Cell), we can achieve high overall yields in the p² Pack manufacturing process,” said Thomas Gottwald, Vice President Technology at Schweizer Electronic AG. “The fast-switching characteristics of the CoolSiC chips are optimally supported by the low-inductance interconnection that can be achieved with the p² Pack. This leads to increased efficiency and improved reliability of power conversion units such as traction inverters, DC-DC converters, or on-board chargers.”
Original – Infineon Technologies
