15M101J

Overview

The 15M101J is a fixed inductor manufactured by Gowanda Electronics, classified as a molded unshielded RF coil with axial leads. It features an inductance of 1 µH and a tolerance of ±5%. The component has a maximum DC resistance of 290 mΩ and a rated current of 830 mA. Designed for through-hole mounting, it operates within a temperature range of -55°C to 105°C. The unit weighs approximately 0.65 grams and utilizes phenolic material for its construction.

Feature Summary

• Molded unshielded RF coil design
• Axial lead configuration for through-hole mounting
• Phenolic construction material

Applications

• RF circuit filtering
• General electronic signal processing
• Industrial control systems

Procurement Notes

Verify the specific suffix requirements when ordering, as variants such as 15M101JLF exist. Confirm that the axial package and phenolic material align with system constraints. Ensure the 830 mA current rating and 290 mΩ resistance meet the target circuit specifications before finalizing procurement.

Selection Notes

Select this component for applications requiring a compact 1 µH inductance with axial termination. The unshielded design necessitates careful PCB layout to minimize electromagnetic interference coupling. Verify that the operating temperature range of -55°C to 105°C suits the environmental conditions of the intended deployment.

Part Context

This part belongs to Gowanda Electronics' line of molded unshielded RF coils. These components are engineered for reliability in demanding environments, including aerospace and defense sectors. The axial form factor allows for easy integration into traditional through-hole assembly processes while maintaining high performance standards.

Replacement Considerations

Direct substitutes include other 1 µH axial inductors from Gowanda with matching tolerances. Consider the 15M101JLF variant if lead-free compliance is required. Cross-reference physical dimensions and thermal characteristics to ensure compatibility with existing board layouts and heat dissipation strategies.