SMT45A-153

Arrays, Signal Transformers Overview

The SMT45A-153 is an unshielded dual-wound toroidal power inductor from the Gowanda Electronics SMT45A series. It features a total inductance of 600 µH when coils are connected in series, and 150 µH when connected in parallel. The component is designed for surface-mount technology (SMT) applications, offering high efficiency and precision-engineered magnetic performance suitable for demanding electronic circuits.

Arrays, Signal Transformers Feature Summary

• Dual-wound toroidal core construction
• Unshielded design for flexible circuit integration
• Configurable inductance via series or parallel coil connection

Arrays, Signal Transformers Applications

• Power supply filtering
• Signal transformation arrays
• High-efficiency magnetic components in electronic circuits

Arrays, Signal Transformers Procurement Notes

Verify the specific suffix (e.g., LF for lead-free status) against the manufacturer's current datasheet to ensure compliance with RoHS directives and material specifications. Confirm that the unshielded configuration aligns with your electromagnetic interference (EMI) requirements, as shielding options may vary within the SMT45A family.

Arrays, Signal Transformers Selection Notes

Select this component when a dual-wound inductor with configurable inductance values is required. Ensure the PCB layout accommodates the physical dimensions of the toroidal package. Consider the unshielded nature of the part regarding proximity to sensitive signal traces or other magnetic components during assembly.

Arrays, Signal Transformers Part Context

Part of the Gowanda Electronics SMT45A series, which specializes in surface-mount power inductors. This series is characterized by high efficiency and precision engineering, targeting applications requiring reliable magnetic components in compact form factors.

Arrays, Signal Transformers Replacement Considerations

Consult Gowanda Electronics for direct equivalents within the SMT45A series. Verify pinout compatibility and inductance tolerances before substituting with generic dual-wound toroidal inductors.