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With over 20 years of experience in the development, design, manufacturing and support of SiC devices and power solutions, we can help you adopt SiC with ease, speed and confidence. Our mSiC™ products and solutions are designed to provide lower system cost, faster time to market and lower risk. Our solutions include a broad and flexible portfolio of SiC diodes, MOSFETs and gate drivers.
Explore Our Products
Discrete SiC MOSFETs
Our SiC MOSFETs feature best-in-class avalanche ruggedness, short circuit capability and oxide lifetime.
Discrete SiC Diodes
Our SiC Schottky Barrier Diodes (SBDs) offer a wide range of solutions.
Bare Die SiC MOSFETs and Schottky Diodes
SiC bare die MOSFETs and SBDs are excellent options for advanced power circuits and provide significantly higher power density and efficiency.
SiC MOSFET and Diode Modules
Our SiC power modules are available in low-profile, low-stray inductance and baseplate-less packaging.
Digital Gate Drivers
Our SiC gate drivers incorporate patented Augmented Switching™ technology and robust short-circuit protection. These digital gate drivers are fully software configurable.
Design Resources
We offer a variety of time-saving reference designs, evaluation kits, models, simulation tools and application notes to accelerate your SiC-based design.
Wide-bandgap SiC semiconductors are used to control and switch high-power electrical devices. They offer several advantages over traditional silicon devices, including higher operating temperatures, higher breakdown voltage, faster switching speeds, lower on-resistance and improved ruggedness. SiC devices are an innovative option to improve system efficiency, shrink a design’s form factor and endure higher operating temperatures in industrial, transportation, automotive, medical, aerospace, aviation, defense and communication products.
Key features:
- Extremely low switching losses improve system efficiency
- High power density reduces size and weight
- Three times more thermally conductive than silicon
- Reduced sink requirements to achieve a smaller footprint with and lighter weight
- High-temperature operation to improve reliability at increased power density
Aerospace and Defense
- Flight actuators
- Propulsion drive
- E-Fuse technology
- Power distribution
- Traction drive
Automotive and Transportation
- DC fast charging
- E-Fuse technology
- On-Board Chargers (OBCs)
- On-board DC-DC conversion
- Traction drive
- Auxiliary Power Units (APUs)
Data Centers
- Power Supply Units (PSUs)
- Power Factor Correction (PFC)
- DC-DC conversion
- Backup power
- E-Fuse technology
- Telecom/5G power supplies
Industrial
- Semiconductor capital equipment
- Induction heating
- Welding/plasma cutting
- Auxiliary Power Units (APUs)
- Uninterruptible Power Supply (UPS)
- Robotics
Medical
- Power Supply Units (PSUs)
- Uninterruptible Power Supply (UPS)
- AC-DC conversion
- DC-DC conversion
Renewables/Grids
- Solar inverters (micro, string, central)
- Auxiliary Power Supply (APS)
- Energy storage systems
Featured Videos
What Is Microchip’s History With SiC?
With over two decades of experience in SiC design and development, we have a broad and flexible portfolio of SiC diodes, MOSFETs and gate drivers in bare die, discrete and power module forms.
What Are the Main Benefits of SiC Over Silicon?
SiC provides an innovative option for power electronic designers who are looking for improved system efficiency, smaller form factors, higher operating temperature and lower system costs for their products.
What Can SiC Devices Do for the Cost of an Application?
Learn how SiC semiconductors improve system efficiency, increase high power density, minimize cooling requirements and reduce system size, weight and cost.
What Is the Advantage of Using 3.3 kV SiC for an Application?
SiC semiconductors are now available for even higher voltage applications, enabling the following benefits in higher-voltage applications: improved system efficiency, smaller form factors, higher temperature operation and reduced complexity in designs.
What Is the Future of SiC Semiconductors?
Three times more thermally conductive than silicon, SiC enables higher voltages while exhibiting extremely low switching losses for improved system efficiency, higher power density, a smaller footprint and higher operating temperatures to reducing system size, weight and cost in high-voltage power applications.
