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ECAD (Electronic Computer-Aided Design) model services play an indispensable role in modern engineering design. For engineers, this service provides a convenient tool that helps improve the design process and save valuable time. ECAD model services are widely used in various engineering fields, including electronics, telecommunications, healthcare, and automotive.
Engineers can use this service to design various types of electronic devices, from mobile phones to automotive control systems.
Downloading ECAD models from PANJIT‘s website is a straightforward process that enables engineers to access detailed product model images for our electronic components. In this tutorial, we will guide you through the step-by-step process to download ECAD models for the product you require.
Step 1: Go on to PANJIT’s website
Begin by accessing PANJIT’s official website at www.panjit.com
Step 2: Navigate to the Product Section and locate your desired product
Once you’re on PANJIT’s website, navigate to the product section. Browse or use the search feature to locate the specific product you are seeking.
Step 3: Access ECAD Model Files
On the product page, you’ll find the ECAD icons next to the product. Click on this icon to access the ECAD download section.
Step 3-1: Select Format and Specific Files
In the E-CAD download section, you will be able to select the format and specific files required for the product. Choose the format that is compatible with your CAD software, and select the specific files related to the product’s configuration or variants of interest. After making your selections, click on the “Download CAD Models” button. If the files you are seeking are not currently available, simply submit a request, and the files will be made available soon.
Step 3-2: Log In to Your Free Account
If you already have an account, log in using your credentials. If you do not have an account yet, you will need to create a free account to proceed. Look for the “Create a Free Account” option, and follow the registration process.
Now you can apply the ECAD models to your simulations!Original – PANJIT International
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Magnachip Semiconductor Corporation announced the launch of two new 150V MXT MV Metal-Oxide-Semiconductor Field-Effect Transistors (MOSFETs), using its 8th-generation trench MOSFET technology.
Energy efficiency is crucial in high-power devices for reducing power consumption and ensuring stability. These newly released 8th-generation 150V MXT MV MOSFETs (MDES15N056PTRH, MDU150N113PTVRH) were developed by leveraging Magnachip’s cutting-edge trench MOSFET technology. In particular, the RDS(on) (the resistance value between the drain and the source of MOSFETs during on-state operation) of MDES15N056PTRH was reduced by 22% compared to the previous generation, thereby significantly enhancing energy efficiency in applications.
By improving the core cell and termination design, the Figure of Merit (FOM: RDS(on) x Qg) of MDES15N056PTRH and MDU150N113PTVRH has been improved by 23% and 39%, respectively, compared to the previous version. Furthermore, the adoption of surface-mount type packages, such as D2PAK-7L (TO-263-7L) and PDFN56, reduces MOSFET sizes, enabling flexible design of various applications, such as motor controllers, battery management systems (BMSs), residential solar inverters and industrial power supplies.
“Following the introduction of five 8th-generation 200V and 150V MOSFETs last year, we are pleased to now release two additional 150V MXT MV MOSFET product offerings in new packages,” said YJ Kim, CEO of Magnachip. “Magnachip will continue to expand its high-efficiency MXT MOSFET product portfolio, including new releases based on 180nm microfabrication technology in the near future.”
Original – Magnachip Semiconductor
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GaN / LATEST NEWS / PRODUCT & TECHNOLOGY / Si / SiC / WBG3 Min Read
With decades of expertise in power device packaging and testing, JCET Group offers a comprehensive power product portfolio encompassing IGBT, SiC, GaN, and more. In the field of high-density power solutions for automotive applications, JCET’s unique power module technology positions us at the forefront of power main drive solutions.
JCET’s innovative packaging technology for high power density Silicon Carbide (SiC) power modules minimizes parasitic effects and thermal resistance, while our groundbreaking interconnect technology ensures high reliability. Reduced power loss and improved performance, making JCET the preferred choice for high-reliability SiC device packaging for the automotive industry.
The rapid growth of the power semiconductor market in automotive applications is being driven by the acceleration of vehicle electrification. In this evolving landscape, a multitude of power devices find applications in crucial automotive systems such as motor control, DC-DC conversion, air conditioning drives, on-board chargers (OBC), and battery management for electrical vehicles.
According to research by Strategy Analytics, the value of power devices in battery electric vehicles (BEVs) is nearly five times that in traditional fuel vehicles. This is where SiC devices come into play, offering several advantages. SiC devices feature smaller conductor resistors per unit area, higher voltage capabilities, faster switching speeds, and the ability to operate at high temperatures. These characteristics are instrumental in enhancing the power density of the inverter, ultimately leading to improved operational efficiency and extended mileage for electric vehicles under real-world conditions.
JCET combines low stray inductance package technology, advanced interconnect packaging technology, and cutting-edge thermal management solutions, tailoring our packaging processes to meet individual customer requirements. Within this package, a suite of integrated solutions, including the whole-silver sintering process, copper wire bonding, and single-side direct water cooling, is employed.
Furthermore, SiC devices, with their smaller footprint, increased power density, and higher breakdown voltage compared to conventional silicon-based power devices, are at the core of our packaging. When integrated into an 800V platform, SiC devices deliver substantial system advantages, enabling rapid charging and extended mileage. JCET’s unwavering commitment to optimizing packaging technology is evident in our High-Performance Device (HPD) package, which is continuously fine-tuned to excel in SiC high-frequency switching applications.
With the growing adoption of SiC devices across diverse sectors like automotive controllers, charging stations, and photovoltaic energy storage, JCET has pioneered innovative designs encompassing packaging materials, internal connections, and packaging structures. JCET has introduced a range of packaging solutions tailored to meet various user requirements, including:
- 400V platform, A0/A00 vehicles within 70KW: Si Hybrid Package1 solution;
- 400V platform, Class A vehicles between 100-200KW: Si/SiC Hybrid Package Driver solution;
- 800V platform, Class B and luxury cars with 200KW and above: SiC single/double sided heat dissipation solution.
Automotive power devices, including SiC, hold vast market potential and exhibit a high level of technical innovation certainty. This presents a compelling opportunity for device designers and manufacturers. Looking ahead, JCET remains committed to its core mission of advancing power device packaging solutions, We are dedicated to expanding our technology offerings, ensuring our customers have a diverse array of options, helping them integrate more efficient and reliable technologies into the new energy vehicle systems.
Original – JCET
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LATEST NEWS1 Min Read
Axcelis Technologies, Inc. announced a shipment of the Purion Dragon™ high current implanter to a world-leading research and innovation center in nanoelectronics and digital technologies located in Europe. The system will be used in technology development for advanced logic devices. The system shipped in the third quarter of 2023.
Executive Vice President, Marketing and Applications, Greg Redinbo, commented, “We’re pleased to support growth in the advanced logic market with a new customer focused on R&D for sub 3 nanometer logic device development. This is the second Purion Dragon placed in an advanced logic R&D environment.
We designed the Purion Dragon specifically to address chipmakers’ most challenging ion implantation applications by delivering the highest levels of process control with significant productivity gains for high current applications. The Purion Dragon features a unique high current implanter architecture, featuring innovative orthogonal beam optics, and is designed to address critical implant steps for advanced memory and logic applications.”
Original – Axcelis Technologies
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LATEST NEWS / PRODUCT & TECHNOLOGY / Si2 Min Read
Littelfuse, Inc. announced the release of IXTY2P50PA, the first automotive-grade PolarP™ P-Channel Power MOSFET. This innovative product design meets the demanding requirements of automotive applications, providing exceptional performance and reliability.
The key differentiator of the –500 V, –2 A IXTY2P50PA is its AEC-Q101 qualification, making it ideal for automotive applications. This qualification ensures that the MOSFET meets the automotive industry’s stringent quality and reliability standards. With this qualification, automotive manufacturers can trust that the IXTY2P50PA will deliver exceptional application performance and reliability.
One of the standout features is its low conduction loss. With a maximum on-state resistance of 4.2 Ω, this P-Channel Power MOSFET offers reduced power dissipation, decreasing heat generation and improving efficiency in the end applications. Additionally, the MOSFET provides excellent switching performance, with a low gate charge of 11.9 nC, allowing for fast and efficient operation.
Another key advantage is its ruggedness in demanding operating environments and applications. With its dynamic dv/dt and avalanche rating, this MOSFET can withstand harsh conditions and deliver reliable performance. This combination makes it an excellent choice for automotive applications that require durability and reliability.
Furthermore, the IXTY2P50PA high-voltage automotive P-channel MOSFET enables a power-dense PCB design, thanks to its miniature TO-252 (DPAK) footprint in surface mount form factor. This compact footprint results in significant space savings on the PCB, allowing for more efficient and compact designs. Automotive manufacturers can benefit from this space-saving design, enabling them to optimize their applications and achieve greater functionality in limited space.
The PolarP Series is ideally suited for a range of automotive electronics and industrial applications, including:
- Automotive ECUs
- Automotive sensor circuits
- High-side switches
- Push-pull amplifiers
- Automatic test equipment
- Current regulators
Commenting on the launch of IXTY2P50PA, Raymon Zhou, Product Marketing Manager at Littelfuse, said, “We are thrilled to introduce the first automotive-grade PolarP P-Channel Power MOSFET to the market. The IXTY2P50PA offers exceptional performance and reliability, making it ideal for demanding automotive applications. With its AEC-Q101 qualification and competitive specifications, we believe this MOSFET will greatly benefit automotive manufacturers.”
Original – Littelfuse
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GaN / LATEST NEWS / PRODUCT & TECHNOLOGY / WBG3 Min Read
Transphorm, Inc. introduced three SuperGaN® FETs in TOLL packages with on-resistances of 35, 50, and 72 milliohms. Transphorm’s TOLL package configuration is industry standard, meaning the SuperGaN TOLL FETs can be used as drop-in replacements for any e-mode TOLL solution.
The new devices also offer Transphorm’s proven high voltage dynamic (switching) on-resistance reliability that is generally lacking in leading foundry-based e-mode GaN offerings. To sample the devices, visit Transphorm’s product page: https://www.transphormusa.com/en/products/.
The three surface mount devices (SMDs) support higher power applications operating within an average range of 1 to 3 kilowatts. These power systems are typically found in high performance segments such as computing (AI, server, telecom, data center), energy and industrial (PV inverters, servo motors), and other broad industrial markets which, collectively, have a current global GaN TAM of $2.5B. Notably, the FETs are optimal solutions for today’s rapidly expanding AI systems that rely on GPUs requiring 10 to 15 times the power of traditional CPUs.
Transphorm’s high power GaN devices are already widely supplied to leading customers who use them to power in-production high performance systems including datacenter power supplies, high power gaming PSUs, UPSes, and microinverters. These applications can also be supported by the TOLL devices as can electric-vehicle-based DC-to-DC converters and onboard chargers, with the underlying SuperGaN die already automotive (AEC-Q101) qualified.
The SuperGaN TOLL FETs represent the sixth package type offered by Transphorm, giving customers the widest selection of packages to meet their unique design requirements. As with all Transphorm products, the TOLL devices harness the inherent performance and reliability advantages made possible by the normally-off d-mode SuperGaN platform.
For a detailed competitive analysis between SuperGaN and e-mode GaN, download the company’s latest white paper titled The Fundamental Advantages of d-Mode GaN in Cascode Configuration. The white paper’s conclusion aligns with a head-to-head comparison released earlier this year showing the 72 milliohm SuperGaN FETs outperforming larger 50 milliohm e-mode devices in a commercially available 280 W gaming laptop charger.
SuperGaN devices lead the market with unmatched:
- Reliability at < 0.03 FIT
- Gate safety margin at ± 20 V
- Noise immunity at 4 V
- Temperature coefficient of resistance (TCR) at 20% lower than e-mode
- Drive flexibility with standard drivers and protection circuits readily available in silicon-based controllers/drivers
Device Specifications
The robust 650 V SuperGaN TOLL devices are JEDEC qualified. Because the normally-off d-mode platform pairs the GaN HEMT with a low voltage silicon MOSFET, the SuperGaN FETs are easy to drive with commonly used off-the-shelf gate drivers. They can be used in various hard- and soft-switching AC-to-DC, DC-to-DC, and DC-to-AC topologies to increase power density while reducing system size, weight, and overall cost.Part Dimensions (mm) RDS(on) (mΩ) typ RDS(on) (mΩ) max Vth (V) typ Id (25°C) (A) max TP65H035G4QS 10 x 12 35 41 4 46.5 TP65H050G4QS 10 x 12 50 60 4 34 TP65H070G4QS 10 x 12 72 85 4 29 Original – Transphorm