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Infineon Technologies AG expands its 7th generation TRENCHSTOP™ IGBT7 product family with the CIPOS™ Maxi Intelligent Power Module (IPM) series for low-power motor drives. The new IM12BxxxC1 series is based on the new TRENCHSTOP IGBT7 1200 V and rapid diode EmCon 7 technology. Thanks to the latest micro-pattern trench design, it offers exceptional control and performance.
This results in significant loss reduction, increased efficiency, and higher power density. The portfolio includes three new products in variants ranging from 10 A to 20 A for power ratings of up to 4.0 kW: IM12B10CC1, IM12B15CC1 and IM12B20EC1.
The IM12BxxxC1 series is packaged in a DIP 36x23D housing. It integrates various power and control components to increase reliability, optimize PCB size and reduce system costs. This makes it the smallest package for 1200 V IPMs with the highest power density and best performance in its class. The IM12BxxxC1 series is particularly suitable for low-power drives in applications such as motors, pumps, fans, heat pumps and outdoor fans for heating, ventilation, and air conditioning.
The new IPM series offers an isolated dual-in-line molded housing for excellent thermal performance and electrical isolation. It also meets the EMI and overload protection requirements of demanding designs. In addition to the protection features, the IPM is equipped with an independent UL-certified temperature thermistor.
The CIPOS™ Maxi integrates a rugged 6-channel SOI gate driver to provide built-in dead time to prevent damage from transients. It features under-voltage lockout at all channels and over-current shutdown. With its multi-function pin, this IPM allows for high design flexibility for various purposes. The low side emitter pins can be accessed for all phase current monitoring making the device easy to control.
Original – Infineon Technologies
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DCDC converters are essential in any electric or hybrid vehicle to connect the high-voltage battery to the low-voltage auxiliary circuits. This includes 12 V power headlights, interior lights, wiper and window motors, fans, and at 48 V, pumps, steering drives, lighting systems, electrical heaters, and air conditioning compressors. In addition, the DCDC converter is important for developing more affordable and energy-efficient vehicles with an increasing number of low voltage functions.
According to TechInsights, the global automotive DC-DC converter market size was valued at USD 4 billion in 2023 and is projected to grow to USD 11 billion by 2030, exhibiting a CAGR of 15 percent during the forecast period. Gallium nitride (GaN) in particular plays a crucial role here, as it can be used to improve the power density in DCDC converters and on-board chargers (OBC).
For this reason, Vitesco Technologies, a leading supplier of modern drive technologies and electrification solutions, has selected GaN to improve the power efficiency of its Gen5+ GaN Air DCDC converter. The CoolGaN™ Transistors 650 V from Infineon Technologies AG significantly improve the overall system performance while minimizing system cost and increasing ease of use. As a result, Vitesco created a new generation of DCDC converters that set new standards in power density (efficiency of over 96%) and sustainability for power grids, power supplies, and OBCs.
The advantages of GaN-based transistors in high-frequency switching applications are considerable, but even more important is the high switching speed, which has been increased from 100 kHz to over 250 kHz. This enables very low switching losses, even in hard-switched half-bridges, with minimized thermal and overall system losses.
In addition, Infineon’s CoolGaN Transistors feature high turn-on and turn-off speeds and are housed in a top-cooled TOLT package. They are air-cooled, eliminating the need for liquid cooling and thereby reducing overall system costs. The 650 V devices also improve power efficiency and density, enabling an output of 800 V. In addition, they feature an ON-resistance (R DS(on)) of 50 mΩ, a transient drain-to-source voltage of 850 V, an I DS,max of 30 A, and an I DSmax,pulse of 60 A.
“We are delighted to see industry leaders like Vitesco Technologies using our GaN devices and innovating with their applications,” said Johannes Schoiswohl, Senior Vice President & General Manager, GaN Systems Business Line Head at Infineon. “The ultimate value of GaN is demonstrated when it changes paradigms, as in this example of moving from a liquid-cooled system to an air-cooled system.”
With GaN Transistors, Vitesco Technologies was able to design its Gen5+ GaN Air DCDC converters with passive cooling, which reduces the system’s overall cost. The GaN devices also allow for simplified converter design and mechanical integration. As a result, the DCDC converters can be flexibly positioned in the vehicle, reducing the workload for manufacturers.
The use of GaN also allows the power of the converters to be scaled up to 3.6 kW and the power density to be increased to over 4.2 kW/l. The Gen5+ GaN Air DCDC converters offer an efficiency of over 96 percent and improved thermal behavior compared to the Gen5 Liquid-Cooled converters. They provide a two-phase output of 248 A at 14.5 V continuous.
The phases can be combined to achieve the maximum output power. Still, it is also possible to switch off one phase under partial load conditions and interleave the switching frequency between the two phases. In addition, by switching the input of two phases in series, the converters based on the CoolGaN power transistors 650 V can be used to implement 800 V architectures without exceeding the maximum blocking voltage of the device. The converters also feature an isolated half-bridge topology consisting of a GaN-based half-bridge, a fully isolated transformer, and an active rectifier unit for each phase.
Original – Infineon Technologies
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MCC Semi introduced two 600V N-channel MOSFETs with superjunction (SJ) technology. Engineered for maximum efficiency, MSJPFR20N60 and MSJPFFR20N60 boast a low on-resistance of 193mΩ, ensuring minimal power losses. Their integrated fast recovery diode ensures rapid recovery times, dramatically optimizing overall switching performance and circuit reliability.
Superjunction MOSFET technology empowers these components to handle high currents while reducing thermal management needs due to minimal heat dissipation, enhancing efficient operation. Available in isolated (TO-220F) and non-isolated (TO-220AB) packages, these MOSFETs are an excellent and seamless upgrade for existing designs, as well as new products.
For meeting the demands of modern electronics design in high-voltage switching applications, including power supplies, AC-DC converters, and motor drives, our new 600V SJ MOSFETs are the obvious solution.
Features & Benefits:
- Advanced superjunction (SJ) MOSFET technology reduces thermal management requirements
- Low on-resistance of 193mΩ enhances efficiency
- Low conduction losses due to minimal heat dissipation
- Low gate charge improves switching speed and efficiency
- Integrated fast recovery diode empowers high-speed switching
- Seamless integration with non-isolated TO-220AB and isolated TO-220F packages
Original – Micro Commercial Components
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Solitron Devices released the SD11740 , 1200V Silicon Carbide (SiC), low RDS(on) MOSFET.
Complimenting a strong offering of high voltage MOSFETs for high reliability/military applications Solitron is expanding its silicon carbide product offering for demanding commercial and industrial applications. Packaged in a SOT-227 the SD11740 offers ultra-low RDS(on) of 8.6mΩ.
The addition of the SOT-227 style package enables higher power applications for Solitron’s SiC based products in EV, power controllers, motor drive, induction heating, solid state circuit breakers and high voltage power supplies. The SD11740 offers 120A of continuous drain current. The SOT-227 features 3kV isolation to a copper heat sink base for outstanding low thermal impedance. The device provides a real Kelvin gate connection for optimal gate control. Either emitter terminal can be used as main or Kelvin emitter.
Designed for use as a power semiconductor switch the SD11740 outperforms silicon based MOSFETs and IGBTs. The standard gate drive characteristics allow for a true drop-in replacement to silicon IGBTS and MOSFETs with far superior performance. Ultra-low gate charge and exceptional reverse recovery characteristics, make them ideal for switching inductive loads and any application requiring standard gate drive.
Original – Solitron Devices
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The reliability and performance of Electric Vehicle (EV) chargers are critical to drive global market adoption. EV manufacturers are focused on delivering the most robust, weather-resistant and user-friendly EV chargers. To accelerate the time to market of an EV charger, Microchip Technology announced three flexible and scalable EV Charger Reference Designs including a Single-Phase AC Residential, a Three-Phase AC Commercial with Open Charge Point Protocol (OCPP) and System-on-Chip (SoC) and a Three-Phase AC Commercial with OCPP and Display.
Most of the active components for the EV charger reference designs are available from Microchip, including the microcontroller (MCU), analog front-end, memory, connectivity and power conversion. This significantly streamlines the integration process, enabling manufacturers to speed time to market for new charging solutions.
“Microchip’s E-Mobility team is focused on developing reference designs that our customers can directly use and benefit from,” said Joe Thomsen, corporate vice president of Microchip’s digital signal controller business unit. “We want to help our customers shorten design cycles by offering complete solutions such as these new EV charger references designs, while also supplying the hardware, software and technical support.”
Microchip’s EV charger reference designs enable manufacturers to scale depending on the target market with a range of solutions to meet the needs of residential and commercial charging applications. These reference designs offer complete hardware design files and source code with software stacks that are tested and compliant to communication protocols, including OCPP. OCPP offers manufacturers a standard protocol to communicate between the charge point or charging station and a central system. This protocol is designed to enable interoperability of the charging applications regardless of the network or vendor.
The Single-Phase AC Residential EV Charger Reference Design offers a cost-effective and convenient solution for home charging, where a single-phase supply is used. The on-board high-performance energy metering device with automatic calibration simplifies the production process. The design has integrated safety protection features including Protective Earth Neutral (PEN) fault detection and Residual Current Device (RCD) detection.
The Three-Phase AC Commercial with OCPP and Wi-Fi® SoC EV Charger Reference Design is intended for high-end residential and commercial charging stations. It features OCPP 1.6 stack integration for communication with charging networks and Wi-Fi SoC for remote management.
The Three-Phase AC Commercial with OCPP and Display EV Charger Reference Design caters to commercial and public charging stations with a focus on robust operation including a completed architecture review according to UL 2231. It is designed to support up to 22 kW with bidirectional charging capabilities and a modular architecture. The design also features a robust Graphical User Interface (GUI) with a Thin-Film Transistor (TFT) screen and touch input designed to withstand harsh environments.
Navigating the global EV charging landscape is complex and fragmented, but Microchip offers the key technologies and solutions to significantly simplify the design process through implementation. Beyond the reference designs, Microchip supplies the hardware, software and global technical support. To learn more about Microchip’s EV, HEV and PHEV solutions, visit the website.
The EV Reference Designs are supported by MPLAB® X Integrated Development Environment (IDE) to help designers minimize development time, as well as MPLAB Harmony v3 and MPLAB Code Configurator.
Original – Microchip Technology
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Nexperia announced that the ongoing expansion of its NextPower 80 V and 100 V MOSFET portfolio is continuing apace with the release of several new LFPAK devices in industry-standard 5×6 mm and 8×8 mm footprints. These new NextPower 80/100 V MOSFETs are optimized for low (RDSon) and low Qrr, to deliver high efficiency and low spiking in applications including servers, power supplies, fast chargers and USB-PD as well as for a wide range of telecommunications, motor control and other industrial equipment. Designers can choose from a range of 80 V and 100 V devices, with (RDSon) from 1.8 mΩ to 15 mΩ.
Many MOSFET manufacturers focus on achieving high efficiency through low QG(tot) and low QGD, when benchmarking the switching performance of their devices against alternative offerings. However, through extensive research, Nexperia has identified Qrr as being even just as important due to its impact on spiking and, in turn, the amount of electromagnetic interference (EMI) generated during device switching.
By focusing on this parameter, Nexperia has considerably reduced the level of spiking produced by its NextPower 80/100 V MOSFETs and hence also lowered the amount of EMI they produce. This brings significant benefits for end users by reducing the probability of a costly late-stage redesign to include additional external components if their application fails electromagnetic compatibility (EMC) testing.
The on-resistance (RDSon) of these new MOSFETs has been reduced by up to 31% compared to currently available devices. Nexperia also plans to further strengthen its NextPower 80/100 V portfolio later this year with the release of an additional LFPAK88 MOSFET offering RDS(on) down to 1.2 mΩ @ 80 V, as well as introducing the power dense CCPAK1212 to the portfolio. To further support design-in and qualification of these devices, Nexperia offers the availability of award-winning interactive datasheets, providing engineers with comprehensive and user-friendly insights into device behavior.
Original – Nexperia
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Many different trends are taking center stage in both consumer electronics and industrial applications, such as portability, electrification, and weight reduction. All of these trends require compact and efficient designs. They also go hand in hand with unconventional PCB designs with severe space constraints that limit the use of external components.
To address these challenges, Infineon Technologies AG expands its GaN portfolio with the CoolGaN™ Drive product family. It consists of the CoolGaN Drive 700 V G5 single switches, integrating one transistor plus gate driver in PQFN 5×6 and PQFN 6×8 packages, as well as the CoolGaN Drive HB 600 V G5 devices, combining two transistors with integrated high- and low-side gate drivers in a LGA 6×8 package. The new product family enables improved efficiency, reduced system size, and overall cost savings. This makes the devices suitable for longer-range e-bikes, portable power tools, and lighter-weight household appliances such as vacuums, fans, and hairdryers.
“For several years, Infineon has been focused on accelerating innovation in GaN to provide targeted solutions for real-world power challenges”, said Johannes Schoiswohl, Senior Vice President & General Manager, GaN Systems Business Line Head at Infineon. “The new CoolGaN Drive product family is another proof point of how we support our customers in developing compact designs with high power density and efficiency through GaN.”
The CoolGaN Drive family offers a wide range of single switches and half bridges with integrated drivers based on the recently announced CoolGaN Transistors 650 V G5. Depending on the product group, the components feature a bootstrap diode and are characterized by loss-free current measurement, and adjustable switch-on and switch-off dV/dt. They also provide OCP/OTP/SCP protection functions. As a result, the devices enable higher switching frequencies, leading to smaller and more efficient system solutions with high power density. At the same time, the bill of materials (BoM) is reduced. This not only results in a lower system weight, but also reduces the carbon footprint.
Samples of the half-bridge solutions are available now. Single-switch samples will be available starting Q4 2024. Further information is available at www.infineon.com/GaN-innovations.
Original – Infineon Technologies
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Navitas Semiconductor extended its new portfolio of Gen-3 ‘Fast’ (G3F) 650 V SiC MOSFETs into a thermally-enhanced, rugged, high-speed, surface-mount TOLL (Transistor Outline Leadless) package designed for demanding, high-power, high-reliability applications.
Combining high-power capability and best-in-class low on-resistance of 20 to 55 mΩ, these 650 V SiC MOSFETs have been optimized for the fastest switching speed, highest efficiency, and increased power density demanded by applications such as AI data center power supplies, EV charging and energy storage and solar solutions (ESS).
Navitas’ GeneSiC products use a proprietary ‘trench-assisted planar’ technology that provides world-leading efficiency performance over the temperature range, with G3F MOSFETs delivering high-speed, cool-running performance that ensures up to 25°C lower case temperatures and up to 3x longer life than alternative SiC products.
Navitas’ latest 4.5 kW AI power system reference design features the G3F45MT60L (650V 40 mΩ, TOLL) G3F SiC MOSFET in an interleaved CCM-TP PFC topology. Complemented by the NV6515 (650V, 35mΩ, TOLL) GaNSafe™ Power IC in the LLC stage, the 4.5 kW solution has a peak efficiency above 97% and, at 137 W/inch3, it is the world’s highest power density AI PSU. For 400 V-rated EV battery systems, G3F in TOLL is an ideal technology for on-board chargers (OBC), DC-DC converters, and traction drives ranging from 6.6 to 22 kW.
The surface-mount TOLL package offers a 9% reduction in junction-to-case thermal resistance (RTH,J-C), 30% smaller PCB footprint, 50% lower height, and 60% smaller size than the traditional D2PAK-7L, enabling highest-power-density solutions, as demonstrated in the 4.5 kW AI solution. Additionally, with a minimal package inductance of only 2 nH, excellent fast-switching performance and lowest dynamic losses are achieved.
The G3F family in TOLL package is released and available for purchase.
Original – Navitas Semiconductor
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Toshiba Electronic Devices & Storage Corporation has expanded its lineup of 600V N-channel power MOSFETs “DTMOSVI series” fabricated with Toshiba’s latest-generation process, with a super junction structure. These new products are suitable for high efficiency switching power supplies used for data centers and power conditioners of photovoltaic generators. Nine products of “TK40N60Z1, TK080N60Z1, TK080A60Z1, TK085V60Z1, TK125N60Z1, TK125A60Z1, TK130V60Z1, TK155A60Z1 and TK165V60Z1” have been added to the lineup in terms of packages and drain-source On-resistance.
By optimizing the gate design and process, 600V DTMOSVI series products have reduced the value of drain-source On-resistance per unit area by approximately 13%, and drain-source On-resistance × gate-drain charge ―the figure of merit for MOSFET performance― by approximately 52% compared to Toshiba’s current generation DTMOSIV-H series products with the same drain-source voltage rating. This means new products have a better trade-off between conduction loss and switching loss than current products. New products of DTMOSVI series will contribute improving efficiency of power supplies.
Toshiba offers tools that support circuit design for switching power supplies. Alongside the G0 SPICE model, which verifies circuit function in a short time, highly accurate G2 SPICE models that accurately reproduce transient characteristics are now available.
Toshiba will continue to expand its DTMOSVI series lineup, and support energy conservation by reducing power loss in switching power supplies.
Original – Toshiba
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According to a survey by Global Market Insights, Super Junction MOSFETs captured over 30% market share in the energy and power sector in 2023. Their applications span multiple domains, including electric vehicle charging stations, server and data center power supplies, LED drivers, solar inverters and home appliance controls.
The global Super Junction MOSFET market is projected to achieve a compound annual growth rate (CAGR) exceeding 11.5% by 2032. Super Junction MOSFETs offers robust assurance to customers seeking exceptional performance and stability backed by WeEn’s well-established reliability standards, comprehensive supply chain systems and continuously evolving technological roadmaps.
WeEn currently offers two series of Super Junction MOSFETs: G1 and G2. G2 Super Junction MOSFETs feature advanced design improvements, such as reduced cell pitch, low-resistance epitaxial layers, and shorter P-column depths. These innovations significantly reduce the device’s on-state resistance.
Simultaneously, WeEn precisely controlled the charge balance of the super junction structure, ensuring excellent avalanche ruggedness and low capacitive losses. This results in a balanced, outstanding performance in both hard and soft-switching applications that demand high efficiency, reliability, and superior thermal management.
The WSJ2M60R065D is one of the flagship products in WeEn’s G2 Super Junction MOSFET lineup. Available in various packages including TO-220, TO-220F, TO-247, and TOLL. It particularly excels in terms of on-state resistance. Compared to competitors’ products, the WSJ2M60R065D maintains more stable on-state resistance across different current densities. Within its maximum continuous current range, the resistance variation does not exceed 10%. This stability provides customers with reliable performance data. Furthermore, the WSJ2M60R065D adapts well to applications with varying power requirements, demonstrating exceptional performance across diverse and complex operating environments.
WeEn’s G2 MOSFETs are at the forefront of performance, with their Figure of Merit (FOM) on par with top global competitors. While ensuring stringent yield and process control, WeEn reserves more breakdown voltage margin for customers. 600V devices approach the standards of 650V devices available on the market, thoroughly safeguarding the reliability of customer applications. Moreover, the G2 MOSFET integrates a finely tuned fast recovery body diode, with a reverse recovery time (Trr) of only 123 ns. The body diode can withstand a commutation speed of 1000 A/μs without damage. This makes the WSJ2M60R065D particularly suitable for Zero Voltage Switching (ZVS) applications in soft-switching topologies, delivering high efficiency while handling irregular operating conditions.
However, the WSJ2M60R065D is not limited to soft-switching applications. It also demonstrates excellent performance in hard-switching applications. The WSJ2M60R065D offers significant advantages in terms of lower capacitive losses (Eoss) compared to top competitors. Additionally, its normalized ruggedness is significantly higher than the industry standard, enabling it to withstand higher overvoltage and oscillation. It also demonstrates stable and safe performance in hard-switching topologies such as Power Factor Correction (PFC) circuits.
WeEn consistently adheres to rigorous and reliable quality assessment practices. In accelerated aging tests, the company maintains a zero-tolerance policy for product failures. WeEn MOSFET products demonstrate excellent consistency in performance during high-temperature stress aging tests at 168, 500, and 1000 hours. Furthermore, WeEn conducts additional reviews of the ESD (Electrostatic Discharge) capability of the device to minimize quality issues during production, packaging, and transportation. The WSJ2M60R065D demonstrates a robust quality level with a CDM (Charged Device Model) capability exceeding 2000V and an HBM (Human Body Model) capability of over 4000V.
Original – WeEn Semiconductors
