High Current MAF0606 Power Inductors
Compact and Versatile Without Compromising Inductor Performance
Designers can achieve power line noise suppression and desired power efficiency, compactness, extremely low DCR at high rated currents, and consistent reliability using efficient MAF0606 molded surface mount power inductors. New from Laird™ Steward™, MAF0606 inductors feature a metal alloy-designed structure and new materials composition, highlighted by space-optimizing flat wire coils. In tight spaces, downsize to this smaller inductor with the assurance it can handle a similar rated current. Or continue using a metal alloy inductor but upgrade to our versatile MAF0606 and see it handle still higher currents. Small but rugged, MAF0606 inductors offer a large current in a small size and are ideal for high reliability in temperature extremes (performance rated at 155°C) such as those faced in challenging ADAS, automotive safety, industrial, and high-end electronic applications.
High Current MAF0606 Power Inductors
Boost performance in a small size with our AEC-Q200 compliant, highly reliable design
Features and Applications
MAF0606 offers reliable performance ideal for applications including automotive engine control unit power lines, ADAS power lines, and DC-DC power lines in telecom, datacom and industrial sectors.
- Extremely low DCR and high efficiency
- Small, compact, 7.4mm x 7.0mm x 6.1mm
- High rated current and soft saturation using optimized coil design and high-performance powder
- Molded magnetic shielding with metal composite and self-shielded construction
- High reliability with AEC-Q200 compliance
Specifications
- Inductance range 1uH to 15uH, inductance tested at 100KHz, 0.25V
- Heat Rated Current (Irms) is defined based on a temperature rise of approximately 40°C without core loss (ambient temperature 25±5°C)
- Operating temperature range: -55°C to+155° (including self-heating temperature rise)
- Storage temperature range (packaging conditions): -10°C to +40°C and RH 60% (MAX)
Note: Heat Rated Current (lrms) is tested on a typical PCB (printed circuit board) and a constant current is applied in still air. The temperature rise is dependent on the condition of the application system including the PCB PAD pattern, trace width, and thickness and adjacent components, etc. It is suggested that users verify the temperature rise of the component under real operation application conditions.