Home / Electronics / 15nF/1.25kV C0G MLCC in compact 3225M size
Delivers high-efficiency power conversion under high-voltage conditions

15nF/1.25kV C0G MLCC in compact 3225M size

Murata announces the launch and mass production of its multilayer ceramic capacitor (MLCC) featuring a capacitance of 15nF, a rated voltage of 1.25kV, and C0G characteristics in the compact 3225M (3.2mm x 2.5mm / 1210-inch) size. This delivers highly efficient power conversion and stable performance under high-voltage conditions, making it suitable for onboard chargers (OBCs) in electric vehicles (EVs) and power supply circuits in high-performance consumer devices.

Resonant and snubber circuits are essential for efficient power conversion and suppressing current and voltage peaks. In both circuits, repeated exposure to high voltage and high current can cause even slight changes in component performance, leading to efficiency loss or heat generation and potentially causing malfunction or failure.

Recent trends also show a shift in power supply switching devices from silicon MOSFETs to silicon carbide (SiC) MOSFETs, which enable higher efficiency and faster switching. SiC MOSFET applications require breakdown voltages of 1.2kV, driving demand for capacitors with ratings exceeding this specification. These applications, therefore, require capacitors that maintain stable performance across wide temperature ranges, minimise power loss, and withstand high operating voltages.

Check Also

Software from enables faster 3D data capture and surface defect evaluation

Precision sensor manufacturer Micro-Epsilon has released a new version of its powerful, user-friendly software tool, …

Inductive displacement sensors with IO-Link or traditional industrial interfaces

As industrial monitoring, quality assurance, production and assembly processes become increasingly connected, engineers need measurement …

Digital isolator line-up with low-power quad-channel devices

Toshiba has expanded its DCL34xx0B series of standard digital isolators with four new quad-channel devices …