KGN05CS60E106MH

Overview

The KGN05CS60E106MH is a Class 2 multilayer ceramic capacitor (MLCC) from the KYOCERA AVX KGN series. It features an X6S dielectric and a 10 µF capacitance with a ±20% tolerance. The component has a DC voltage rating of 2.5 VDC and operates within a temperature range of -55°C to +105°C. It utilizes a standard SMD/SMT termination type in a compact 0402 (1005 metric) package, measuring 1.0 mm in length, 0.5 mm in width, and 0.5 mm in height. Designed for low ESL applications, it supports surface mount assembly.

Feature Summary

• Low equivalent series inductance (ESL) design for high-frequency performance
• Compact 0402 footprint enabling high-density circuit board layouts
• X6S dielectric material providing stable capacitance characteristics across operating temperatures

Applications

• High-density digital logic decoupling
• Portable electronic device power distribution networks
• Automotive infotainment system filtering

Procurement Notes

Verify the specific manufacturing date code and lot traceability upon order confirmation to ensure compliance with project timelines. Confirm RoHS directive adherence and lead time availability directly with the manufacturer or authorized distributor prior to finalizing procurement plans.

Selection Notes

Select this component when a 2.5 V rated MLCC with 10 µF capacitance is required in a 0402 package. Ensure the application voltage does not exceed the DC rating and that the operating environment remains within the specified -55°C to +105°C range for optimal X6S dielectric performance.

Part Context

This part belongs to the KGN series of general-purpose MLCCs from KYOCERA AVX. The series focuses on miniaturization while maintaining high capacitance values suitable for modern compact electronics. The KGN designation indicates specific construction standards for low ESL and reliability in surface-mount applications.

Replacement Considerations

Cross-reference with other manufacturers offering 0402, 2.5V, 10µF, X6S capacitors. Verify physical dimensions, terminal configurations, and electrical parameters match exactly before substitution.