P0597NLT

Arrays, Signal Transformers Overview

The P0597NLT is a coupled inductor from the HCCI-80 series by Pulse Electronics. It features two coils with a parallel inductance of 2.45 µH and a series inductance of 9.8 µH, offering a tolerance of ±15%. The component supports a maximum DC current of 27 A in parallel configuration and 13.5 A in series. Its maximum DC resistance is 2.5 mΩ (parallel) and 10.1 mΩ (series). Dimensions are 30.99 mm x 25.40 mm x 12.70 mm, operating between -40°C and +130°C.

Arrays, Signal Transformers Feature Summary

• Dual-coil array design for coupled inductor applications
• High current handling capability up to 27 A
• Surface mount construction for automated assembly

Arrays, Signal Transformers Applications

• Power supply circuits requiring coupled inductance
• Noise reduction systems
• Accurate current measurement modules

Arrays, Signal Transformers Procurement Notes

Verify the specific datasheet version and RoHS compliance status before procurement. Confirm package availability matches production requirements. Ensure storage conditions align with moisture sensitivity level specifications. Cross-reference ordering information with official manufacturer documentation to avoid discrepancies.

Arrays, Signal Transformers Selection Notes

Select this component when high current capacity and compact surface mount form factor are required. Evaluate thermal performance within the specified temperature range. Consider the dual-coil configuration benefits for circuit topology. Verify compatibility with existing PCB footprint dimensions.

Arrays, Signal Transformers Part Context

Part of the HCCI-80 series, designed for surface mount technology. Manufactured by Pulse Electronics for power electronics applications. Features nonstandard package dimensions tailored for specific board layouts.

Arrays, Signal Transformers Replacement Considerations

Consult official distributor databases for verified substitute part numbers. Ensure electrical parameters match original specifications. Verify mechanical compatibility before implementation.