B82724A2202N001

Overview

The B82724A2202N001 is a current-compensated ring core double choke manufactured by EPCOS (TDK). It features a ferrite core and radial leaded construction for through-hole mounting. The component has a nominal inductance of 6800 µH, a maximum DC resistance of 0.17 Ω, and supports a rated voltage of 250 V AC. It operates within a temperature range of -40 °C to +125 °C and complies with RoHS standards.

Feature Summary

• Current-compensated design utilizing a ring core structure
• Ferrite core material for efficient magnetic performance
• Radial leaded package suitable for through-hole assembly

Applications

• Power line filtering in electronic equipment
• Common mode noise suppression in signal lines
• EMI reduction in general purpose power supplies

Procurement Notes

Verify the specific suffix code against official TDK documentation to confirm exact electrical tolerances and compliance status. Ensure the procurement channel provides original manufacturer packaging to guarantee component authenticity and traceability. Cross-reference the date code with production records if long-term storage stability is required for the application.

Selection Notes

Select this component when a compact, current-compensated choke is needed for common mode interference suppression. The radial leaded format facilitates easy integration into standard PCB layouts. Consider the thermal operating limits and saturation characteristics relative to the specific circuit's current requirements before finalizing the design.

Part Context

This part belongs to the B82724 series of power line chokes from EPCOS. These components are engineered for robust electromagnetic compatibility in various industrial and consumer applications. The series offers reliable performance in environments requiring effective noise filtration and stable inductive properties under varying load conditions.

Replacement Considerations

Consult official TDK substitution guides for verified alternatives. Ensure any replacement maintains identical pinout, inductance tolerance, and thermal ratings to preserve circuit integrity without redesigning the footprint or layout.