The Susumu PCMB053T-3R3MS is a compact, shielded power inductor designed for use in various power management applications. Its shielded construction helps to minimize electromagnetic interference (EMI), while its small size makes it suitable for space-constrained applications. It is designed for DC-DC conversion and power supply circuits.
Applications:
- DC-DC converters
- Power supplies for portable devices
- LED lighting drivers
- Noise filtering circuits
- Point-of-load (POL) regulators
Features:
- Inductance: 3.3 µH (Microhenries)
- Shielded Construction: Reduces electromagnetic interference (EMI).
- Compact Size: Allows for high-density board layouts.
- Low DC Resistance (DCR): Minimizes power losses, improving efficiency.
- High Saturation Current: Withstands high peak currents without significant inductance drop.
- Surface Mount Technology (SMT): Facilitates automated assembly.
- Operating Temperature Range: Wide operating temperature for robust performance.
Benefits:
- Reduced EMI: Shielded construction minimizes interference with surrounding components.
- Efficient Power Conversion: Low DCR minimizes power losses, resulting in higher efficiency.
- Stable Performance: Maintains stable inductance value under varying current and temperature conditions.
- Reliable Operation: Robust construction ensures reliable operation in demanding environments.
- Space Saving: Compact size enables integration into smaller devices.
Additional Details:
The "PCMB053T" designates the series and package dimensions, while "3R3MS" indicates the inductance value (3.3µH) and tolerance. Saturation current and rated current are crucial parameters, and the Susumu datasheet will provide these values. Exceeding the saturation current can lead to a significant drop in inductance. The device is typically constructed with a ferrite core to provide high inductance in a small volume. Consult the official Susumu datasheet for complete specifications including dimensions, electrical characteristics, soldering recommendations, and temperature derating curves.