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In the face of escalating climate crises and a dramatic rise in global energy demands, governments and industries are committing to ambitious climate goals aimed at mitigating environmental impact and securing a sustainable future. Key to these efforts is the transition to electrification to reduce carbon emissions and embrace renewable energy resources.
In a significant step towards accelerating this global transition, onsemi introduced its latest generation silicon carbide technology platform, EliteSiC M3e MOSFETs. The company also disclosed plans to release multiple additional generations through 2030.
“The future of electrification is dependent on advanced power semiconductors. Today’s infrastructure cannot keep up with the world’s demands for more intelligence and electrified mobility without significant innovations in power. This is critical to the ability to achieve global electrification and stop climate change,” said Simon Keeton, group president, Power Solutions Group, onsemi. “We are setting the pace for innovation, with plans to significantly increase power density in our silicon carbide technology roadmap through 2030 to be able to meet the growing demands for energy and enable the global transition to electrification.”
The EliteSiC M3e MOSFETs will play a fundamental role in enabling the performance and reliability of next-generation electrical systems at lower cost per kW, thus influencing the adoption and effectiveness of electrification initiatives. With the ability to operate at higher switching frequencies and voltages while minimizing power conversion losses, this platform is essential for a wide range of automotive and industrial applications such as electric vehicle powertrains, DC fast chargers, solar inverters and energy storage solutions.
Additionally, the EliteSiC M3e MOSFETs will enable the transition to more efficient, higher-power data centers to meet the exponentially increasing energy demands that power a sustainable artificial intelligence engine.
Through onsemi’s unique design engineering and manufacturing capabilities, the EliteSiC M3e MOSFETs achieve a significant reduction in both conduction and switching losses on the trusted and field-proven planar architecture. Compared to previous generations, the platform can reduce conduction losses by 30% and turn-off losses by up to 50%.
By extending the life of SiC planar MOSFETs and delivering industry-leading performance with EliteSiC M3e technology, onsemi can ensure the robustness and stability of the platform, making it a preferred choice for critical electrification applications
The EliteSiC M3e MOSFETs also offer the industry’s lowest specific on-resistance (RSP) with short circuit capability which is critical for the traction inverter market that dominates SiC volume. Packaged in onsemi’s state-of-the-art discrete and power modules, the 1200V M3e die delivers substantially more phase current than previous EliteSiC technology, resulting in approximately 20% more output power in the same traction inverter housing. Conversely, a fixed power level can now be designed with 20% less SiC content, saving costs while enabling the design of smaller, lighter and more reliable systems.
Additionally, onsemi provides a broader portfolio of intelligent power technologies including gate drivers, DC-DC converters, e-Fuses and more to pair with the EliteSiC M3e platform. The end-end onsemi combination of optimized, co-engineered power switches, drivers and controllers enable advanced features via integration, lowering overall system cost.
Global energy demands are projected to soar over the next decade, making the need for increased power density in semiconductors paramount. onsemi is leading innovation across its silicon carbide roadmap – from die architectures to novel packaging techniques – that will continue to address the general industry demand for increased power density.
With each new generation of silicon carbide, cell structures will be optimized to efficiently push more current through a smaller area, increasing power density. When coupled with the company’s advanced packaging techniques, onsemi will be able to maximize performance and reduce package size.
By applying the concepts of Moore’s Law to the development of silicon carbide, onsemi can develop multiple generations in parallel and accelerate its roadmap to bring several new EliteSiC products to market at an accelerated pace through 2030.
“We are applying our decades of experience in power semiconductors to push the boundaries of speed and innovation in our engineering and manufacturing capabilities to meet the rising global energy demands,” said Dr. Mrinal Das, senior director of technical marketing, Power Solutions Group, onsemi. “There is a huge technical interdependency between the materials, device and package in silicon carbide. Having full ownership over these key aspects allows us to have control over the design and manufacturing process and bring new generations to market much faster.”
The EliteSiC M3e MOSFET in the industry-standard TO-247-4L package is now sampling.
Original – onsemi
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Toshiba Electronics Europe GmbH added two new 150V N-channel power MOSFET products based upon their latest generation U-MOS X-H Trench process. The TPH1100CQ5 and TPH1400CQ5 devices are designed specifically for use in high-performance switching power supplies, such as those used in data centres and communication base stations as well as other industrial applications.
With a maximum drain-source voltage (VDSS) rating of 150V and drain current (ID) handling 49A (TPH1100CQ5) and 32A (TPH1400CQ5), the new devices feature a maximum drain-source on-resistance RDS(ON).
The new products offer improved reverse recovery characteristics that are critical in synchronous rectification applications. In the case of TPH1400CQ5, the reverse recovery charge (Qrr) is reduced by approximately 73% to 27nC (typ.) and the reverse recovery time (trr) of 36 ns (typ.) is approximately 45% faster compared with Toshiba’s existing TPH1400CQH, which offers the same voltage and RDS(ON).
Used in synchronous rectification applications, the TPH1400CQ5 reduces the power loss of switching power supplies and helps improve efficiency. If the device is used in a circuit that does not operate in reverse recovery mode, the power loss is equivalent to that of the TPH1400CQH.
When used in a circuit that operates in reverse recovery mode, the new products reduce spike voltages generated during switching, helping to improve EMI characteristics of designs, and reducing the need for external filtering. The devices are housed in a versatile, surface-mount SOP Advance(N) package measuring just 4.9mm x 6.1mm x 1.0mm.
To support designers, Toshiba has developed a G0 SPICE model for rapid verification of the circuit function as well as highly accurate G2 SPICE models, for accurate reproduction of transient characteristics.
Shipments of the new devices start today, and Toshiba will continue to expand their lineup of power MOSFETs that help improve equipment efficiency.
Original – Toshiba
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Toshiba Electronic Devices & Storage Corporation launched 650V N-channel power MOSFETs “TK068N65Z5, TK095E65Z5, TK095A65Z5, TK095V65Z5, TK115E65Z5, TK115A65Z5, TK115V65Z5 and TK115N65Z5” and added them to the lineup of Toshiba’s latest-generation DTMOSVI series with high-speed diodes (DTMOSVI (HSD)) that uses super junction structure and is suitable for high-efficiency switching power supplies for data centers and power conditioners for photovoltaic generators. Packages of the new products are TO-247, TO-220SIS, TO-220 and DFN8×8.
The new products with the DTMOSVI (HSD) process use high-speed diodes to improve the reverse recovery characteristics important for bridge circuit and inverter circuit applications. Against Toshiba’s existing product TK090A65Z of the standard type DTMOSVI, the new product TK095A65Z5 achieves an approximately 65% reduction in reverse recovery time (trr), and an approximately 88% reduction in reverse recovery charge (Qrr) (measurement conditions: -dIDR/dt=100A/μs).
In addition, the DTMOSVI (HSD) process improves on the reverse recovery characteristics of Toshiba’s existing products DTMOSIV series with high-speed diodes (DTMOSIV (HSD)), and has a lower drain cut-off current at high temperatures. Furthermore, the figure of merit “drain-source On-resistance × gate-drain charge” is also lower.
The high temperature drain cut-off current of the new product TK095A65Z5 is approximately 91% lower, and the drain-source On-resistance × gate-drain charge approximately 70% lower, than in Toshiba’s existing product TK35A65W5. This advance will cut equipment power loss and help to improve efficiency.
A reference design, “1.6kW Server Power Supply (Upgraded)“, that uses the same series product TK095N65Z5 is available on Toshiba’s website.
Toshiba also 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 also will continue to expand its lineup of the DTMOSVI series. This will enhance switching power supply efficiency, contributing to energy-saving equipment.
Applications
Industrial equipment
- Switching power supplies (data center servers, communications equipment, etc.)
- EV charging stations
- Power conditioners for photovoltaic generators
- Uninterruptible power systems
Features
- MOSFETs with high-speed diodes in the latest-generation DTMOSVI series
- Reverse recovery time due to high-speed diodes:
TK068N65Z5 trr=135ns (typ.)
TK095E65Z5, TK095A65Z5, TK095V65Z5 trr=115ns (typ.)
TK115E65Z5, TK115A65Z5, TK115V65Z5, TK115N65Z5 trr=110ns (typ.) - High-speed switching time due to low gate-drain charge:
TK068N65Z5 Qgd=22nC (typ.)
TK095E65Z5, TK095A65Z5, TK095V65Z5 Qgd=17nC (typ.)
TK115E65Z5, TK115A65Z5, TK115V65Z5, TK115N65Z5 Qgd=14nC (typ.)
Original – Toshiba
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Nexperia released 650V ultra- and hyperfast recovery rectifiers in D2PAK Real-2-Pin (R2P) packaging for use in various automotive, industrial and consumer applications including charging adapters, photovoltaic (PV), inverters, servers and switched mode power supplies (SMPS).
Combining planar die technology with a state-of-the-art junction termination (JTE) design, these rectifiers offer high power density, fast switching times with soft recovery and excellent reliability. They are encapsulated in a D2PAK Real-2-Pin Package (SOT8018), which offers the same package outline as the standard D2PAK package but has only two pins instead of three (the middle cathode pin has been removed). This increases the pin-to-pin distance from 1.25mm to over 4mm, which allows to meet the creepage and clearance requirements stated in the IEC 60664 standard.
“These recovery rectifiers further demonstrate Nexperia’s expertise in the field of semiconductor device packaging” according to Frank Matschullat, Head of Product Group Power Bipolar Discretes at Nexperia. “By taking the innovative step of removing the cathode pin from a standard D2PAK package, Nexperia has created a Real-2-Pin package that can meet the creepage and clearance requirements, in particular for high voltage automotive applications.”
Original – Nexperia
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Vishay Intertechnology, Inc. introduced 16 new Gen 3 1200 V silicon carbide (SiC) Schottky diodes. Featuring a merged PIN Schottky (MPS) design, the Vishay Semiconductors devices combine high surge current robustness with low forward voltage drop, capacitive charge, and reverse leakage current to increase efficiency and reliability in switching power designs.
The next-generation SiC diodes released today consist of 5 A to 40 A devices in the TO-220AC 2L, TO-247AD 2L, and TO-247AD 3L through-hole and D2PAK 2L (TO-263AB 2L) surface-mount packages. The diodes offer a low capacitance charge down to 28 nC, while their MPS structure — which features a backside thinned via laser annealing technology — delivers a reduced forward voltage drop of 1.35 V. In addition, the devices’ low typical reverse leakage current down to 2.5 µA at 25 °C reduces conduction losses, ensuring high system efficiency during light loads and idling. Unlike ultrafast diodes, the Gen 3 devices have virtually no recovery tail, which further improves efficiency.
Typical applications for the diodes will include AC/DC PFC and DC/DC ultra high frequency output rectification in FBPS and LLC converters for solar power inverters; energy storage systems; industrial drives and tools; and datacenters. For the harsh environments of these applications, the devices combine operating temperatures to +175 °C with forward surge ratings to 260 A for high robustness. In addition, diodes in the D2PAK 2L package feature a molding compound with a high CTI ≥ 600, ensuring excellent electrical insultation at elevated voltages.
Offering high reliability, the RoHS-compliant and halogen-free devices have passed higher temperature reverse bias (HTRB) testing of 2000 hours and temperature cycling testing of 2000 thermal cycles.
Device Specification Table:
Part # IF(AV) (A) IFSM (A) VF at IF (V) QC (nC) Configuration Package VS-3C05ET12T-M3 5 42 1.35 28 Single TO-220AC 2L VS-3C10ET12T-M3 10 84 1.35 55 Single TO-220AC 2L VS-3C15ET12T-M3 15 110 1.35 81 Single TO-220AC 2L VS-3C20ET12T-M3 20 180 1.35 107 Single TO-220AC 2L VS-3C05ET12S2L-M3 5 42 1.35 28 Single D2PAK 2L VS-3C10ET12S2L-M3 10 84 1.35 55 Single D2PAK 2L VS-3C15ET12S2L-M3 15 110 1.35 81 Single D2PAK 2L VS-3C20ET12S2L-M3 20 180 1.35 107 Single D2PAK 2L VS-3C10EP12L-M3 10 84 1.35 55 Single TO-247AD 2L VS-3C15EP12L-M3 15 110 1.35 81 Single TO-247AD 2L VS-3C20EP12L-M3 20 180 1.35 107 Single TO-247AD 2L VS-3C30EP12L-M3 30 260 1.35 182 Single TO-247AD 2L VS-3C10CP12L-M3 2 x 5 42 1.35 28 Common cathode TO-247AD 3L VS-3C20CP12L-M3 2 x 10 84 1.35 55 Common cathode TO-247AD 3L VS-3C30CP12L-M3 2 x 15 110 1.35 81 Common cathode TO-247AD 3L VS-3C40CP12L-M3 2 x 20 180 1.35 107 Common cathode TO-247AD 3L Samples and production quantities of the new SiC diodes are available now, with lead times of 13 weeks.
Original – Vishay Intertechnology
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Infineon Technologies AG introduced the new CoolGaN™ Transistor 700 V G4 product family. The devices are highly efficient for power conversion in the voltage range up to 700 V. In contrast to other GaN products on the market, the input and output figures-of-merit of these transistors provide a 20 percent better performance, resulting in increased efficiency, reduced power losses, and more cost-effective solutions. The combination of electrical characteristics and packaging ensures maximum performance in many applications such as consumer chargers and notebook adapters, data center power supplies, renewable energy inverters, and battery storage.
The product series comprises 13 devices with a voltage rating of 700 V and on-resistance range from 20 mΩ to 315 mΩ. The increased granularity in device specification, combined with a wide range of industry standard package options including PDFN, TOLL and TOLT allow R DS resistance and packages to be selected according to application requirements. As a result, both electrical and thermal system performance can be optimized and implemented in the most cost-effective solution.
The devices are characterized by a fast turn-on and turn-off speed and minimal switching losses. The on-resistance range enables power systems from 20 W to 25,000 W. In addition, the 700 V E-mode with the industry’s highest transient voltage of 850 V increases the reliability of the overall system as it offers greater robustness against anomalies in the user environment such as voltage peaks.
The CoolGaN Transistor 700 V G4 products in TOLL, PDFN 5×6 and 8×8 packages are available now, more variety in R DS(on) as well as the TOLT package will follow later this year.
Original – Infineon Technologies
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WeEn Semiconductors announced an expansion to its range of high-performance and rugged IGBTs. Offering voltage ratings of 650V and 1200V, the new devices incorporate a fast recovery anti-parallel diode and boast extremely low leakage currents and exceptional conduction and switching characteristics at both high and low junction temperatures.
Based on an advanced fine trench gate field-stop (FS) technology, the new IGBTs provide a more uniform electric field within the chip, support higher breakdown voltages and offer improved dynamic control. By offering the optimum trade-off between conduction and switching losses, as well as an enhanced EMI design, the devices will maximize efficiency in a wide variety of mid- to high-switching-frequency power conversion designs.
The new IGBTs offer ratings of 650V/75A, 1200V/40A and 1200V/75A and are supplied in TO247 or TO247-4L packages depending on the selected device. All of the devices will operate with a maximum junction temperature (Tj) of 175 °C and have undergone high-voltage H3TRB (high-humidity, high-temperature and high-voltage reverse bias) and 100%-biased HTRB (high-temperature reverse bias) tests up to this maximum.
Target applications for the new WeEn IGBTs include solar inverters, motor control systems, uninterruptible power supplies (UPS) and welding. A positive temperature coefficient simplifies parallel operation in applications where higher performance is required, while options for bare die, discrete and module product variants provide flexibility for a wide variety of target designs.
Original – WeEn Semiconductors
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At PCIM Europe 2024 Leapers Semiconductor unveiled the next-generation molded half-bridge SiC modules for main drive applications (LPS-Pack series). This new series was specifically developed to meet the unique requirements of a renowned international automotive manufacturer.
Key Advantages of the New Module:
- Innovative Design Concept: Utilizing Pressfit Pin technology for signal and current transmission, the design achieves SiC on PCB, allowing current to pass directly through the PCB. This significantly reduces the parasitic inductance of the module and system, minimizes the controller’s size, and lowers the cost of the controller’s busbar and capacitors.
- Advanced Molding Process: The new molding process allows the module’s Tjmax to reach 200℃.
- Unique Module Design: Ensures substrate flatness, facilitating large-area sintering between the module and the heatsink. This reduces the system’s thermal resistance and enhances yield control processes.
- High Power Density: A single module (area < 26cm²) achieves a maximum current output of over 300 Arms. The system design is extremely compact and cost-effective.
- Versatile Application: Suitable for platform-based and modular development applications. The series currently covers 300-600 Arms, addressing various power requirements for different customer applications.
- Mass Production Ready: Offers superior product consistency and yield, making it more competitive than similar half-bridge modules.
The LPS-Pack series’ distinctive design and unique advantages set it apart from other molded solutions.
Original – Leapers Semiconductor
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ROHM has developed four models as part of the TRCDRIVE pack™ series with 2-in-1 SiC molded modules (two of 750V-rated: BSTxxxD08P4A1x4, two of 1,200V-rated: BSTxxxD12P4A1x1) optimized for xEV (electric vehicles) traction inverters. TRCDRIVE pack™ supports up to 300kW and features high power density and a unique terminal configuration – help solving the key challenges of traction inverters in terms of miniaturization, higher efficiency, and fewer person-hours.
As the electrification of cars rapidly advances towards achieving a decarbonized society, the development of electric powertrain systems that are more efficient, compact, and lightweight is currently progressing. However, for SiC power devices that are attracting attention as key components, achieving low loss in a small size has been a difficult challenge. ROHM solves these issues inside powertrains with its TRCDRIVE pack™.
A trademark brand for ROHM SiC molded type modules developed specifically for traction inverter drive applications, TRCDRIVE pack™ reduces size by utilizing a unique structure that maximizes heat dissipation area. On top, ROHM’s 4th Generation SiC MOSFETs with low ON resistance are built in – resulting in an industry-leading power density 1.5 times higher than that of general SiC molded modules while greatly contributing to the miniaturization of inverters for xEVs.
The modules are also equipped with control signal terminals using press fit pins enabling easy connection by simply pushing the gate driver board from the top, reducing installation time considerably. In addition, low inductance (5.7nH) is achieved by maximizing the current path and utilizing a two-layer bus-bar structure for the main wiring, contributing to lower losses during switching.
TRCDRIVE pack™ is scheduled to be launched by March 2025 with a lineup of 12 models in different package sizes (Small / Large) and mounting patterns (TIM: heat dissipation sheet / Ag sinter). In addition, ROHM is developing a 6-in-1 product with built-in heat sink that is expected to facilitate rapid traction inverter design and model rollout tailored to a variety of design specifications.
Original – ROHM
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In the current rapidly evolving electronics industry, there is an increasing demand for high-performance MOSFETs. With its superior specifications and robust design, the MS2N350HGC0 MOSFET stands out as an innovative solution for a wide range of high-voltage applications.
The MS2N350HGC0 MOSFET has been designed to meet the rigorous specifications of contemporary electronics, offering an unparalleled combination of features and performance. This MOSFET is the ideal choice for high-voltage power supplies, capacitor discharge, pulse circuits and laser and X-ray generation systems. With a maximum drain-source voltage of 3500V and a continuous drain current of 2A, it is capable of withstanding the high voltage applications on the market.
One of the standout features of the MS2N350HGC0 is its rapid intrinsic diode and minimized gate charge.. This enables the device to operate at high speeds, which is crucial for applications that necessitate rapid response times. Moreover, the MOSFET exhibits exceedingly low intrinsic capacitances, which further enhances its performance in demanding applications.
The MS2N350HGC0’s on-state resistance (Rds) of 19Ω further enhances its performance, allowing for efficient energy transfer and minimal heat generation. This makes it an excellent choice for power supplies and other applications where efficiency and reliability are paramount.
The product is packaged in accordance with the industry standard TO-247, thereby ensuring compatibility with a wide range of existing systems. Its compact size and lightweight design facilitate integration into any application.
The MOSFET’s electrical ratings are noteworthy for their impressive nature. This product is capable of withstanding a continuous drain current of 2A at 25°C and 1.6A at 100°C, with a pulsed drain current of up to 6A. This makes it suitable for even the most demanding applications. Furthermore, its total dissipation of 463 watts at 25°C guarantees reliable operation even under heavy load conditions.
The MS2N350HGC0 also offers excellent avalanche and thermal performance. It has an avalanche current of 1.3A and can withstand a single pulse avalanche energy of 81mJ. The operating junction temperature ranges from -55°C to 150°C, ensuring stable performance even in extreme environments.
For ease of installation, the MS2N350HGC0 has a maximum lead temperature for soldering purposes of 300°C and a mounting torque of 1.13N·m. This ensures that the MOSFET can be securely mounted into any system with minimal effort.
In conclusion, the MS2N350HGC0 MOSFET is a powerful and reliable solution for high-voltage applications. The superior performance, compact design, and excellent thermal stability of the product make it the optimal choice for a diverse range of applications. To gain further insight into this innovative new product, we invite you to contact our sales team. We encourage you to explore the potential of the MS2N350HGC0 MOSFET and discover how it can revolutionize your high-voltage applications.
Original – Maspower Semiconductor
