SMT35A-501

Arrays, Signal Transformers Overview

The SMT35A-501 is a high-efficiency dual-wound toroidal inductor array manufactured by Gowanda Electronics. It features two coils with a nominal inductance of 5 µH per coil. The component supports surface mount technology and offers flexible configuration options, providing 20 µH when connected in series and 5 µH when connected in parallel. It has a maximum DC resistance of 600 mOhms and is designed for RF applications.

Arrays, Signal Transformers Feature Summary

• Dual-wound toroidal core construction for high efficiency
• Configurable series and parallel connection modes
• Surface mount package design

Arrays, Signal Transformers Applications

• RF circuits
• Signal processing arrays
• Power supply filtering

Arrays, Signal Transformers Procurement Notes

Verify the specific suffix (e.g., LF) to confirm material composition and compliance status. Confirm that the ordering code matches the required termination style and packaging format. Ensure the selected variant aligns with the intended current rating and saturation characteristics for the target application environment.

Arrays, Signal Transformers Selection Notes

Select this component when a compact dual-inductor solution is required for RF or signal conditioning. Consider the available current ratings of 4.34 A in parallel and 2.17 A in series. Evaluate the physical dimensions and mounting requirements against the PCB layout constraints before finalizing the design.

Arrays, Signal Transformers Part Context

This part belongs to the SMT35A series from Gowanda Electronics, which specializes in high-efficiency dual-wound toroidal inductors. The series is characterized by its ability to provide multiple inductance values through internal winding configurations, suitable for space-constrained electronic designs requiring precise magnetic performance.

Arrays, Signal Transformers Replacement Considerations

Consult Gowanda Electronics documentation for direct substitutes within the SMT35A series. Verify compatibility of inductance, current ratings, and physical footprint before replacing with generic equivalents.