WE-HCMD High Current Inductor for TLVR Applications
EXTENDEDShielded
| Size | Dimensions | L (mm) | W (mm) | H (mm) | Mount | |
|---|---|---|---|---|---|---|
EXT.0910 | 9.3 | 6.1 | 10.2 | SMT | ||
EXT.1111 | 11.7 | 5.7 | 11 | SMT |
LTSpice files
Characteristics
- Saturation current up to 190 A
- Low Rdc up to 125uΩ
- Coupling factor up to 0.98
- Operating temperature of 125 °C
- MnZn core, high permeability material
Applications
- TLVR topology
- Multiphase voltage regulators
- CPU motherboards
- Servers
- FPGA
- Internet switches
- High power ASIC applications
Products
Coupled Ferrite Design
HCMD: Optimized for TLVR Topology
The High Current Multiphase Dual Inductor is specifically designed for use in TLVR (Trans Inductor Voltage Regulator) topology, featuring a coupled ferrite design. This advanced configuration is ideal for high-power processors, offering a high coupling factor and the ability to handle high currents over short periods.
Key Components and Features:
- MnZn Core Material: The HCMD utilizes MnZn (Manganese-Zinc) core material known for its high permeability, ensuring efficient magnetic performance.
- Airgap: An airgap is incorporated to control and modify the inductance, providing precise tuning capabilities.
- External Flat Wire: The external flat wire is designed without isolation, optimizing it for high current applications and low RDC values
- Internal Flat Wire: The internal flat wire comes with isolation, ensuring safety and reliability in high-power environments.
Each component of the HCMD is meticulously crafted to deliver a comprehensive solution for high-power processing needs, ensuring optimal performance and reliability.
TLVR Topology
The trans-inductor voltage regulator (TLVR) topology is a further development of the multiphase buck regulator. It offers fast transient response in applications where sudden load changes occur as well as power density and solution cost.
The primary side of each coupled inductor (HCMD) is connected between the switch node of each phase (phase 1 and phase 2… phase n) and the converter output voltage (VOUT) .
The secondary side is connected in series with the rest of the phases and the compensator inductor.
REDEXPERT loss simulation
Find the best inductor!
REDEXPERT loss simulation
Find the best inductor!
REDEXPERT has the world’s most accurate AC loss model, which even includes the DC-bias current. With dedicated DC-DC topologies or the generic loss simulator, you can accurately determine the AC and DC losses for your converter. The model includes the core material, shape and winding structure of the inductor. REDEXPERT recommends suitable inductors and allows you to add more filters to find the best inductor for your application.
