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The Knowles Syfer 1206Y0250103MXTE07 is a three-terminal feed-through multilayer ceramic capacitor designed for surface mount applications. It features a 1206 (3216 metric) package size with a capacitance of 10,000 pF and a voltage rating of 25 VDC. The component utilizes X7R dielectric material with a ±20% tolerance. It incorporates FlexiCap flexible termination technology combined with a nickel barrier to enhance mechanical reliability. This configuration provides effective electromagnetic interference filtering capabilities.
Verify the specific suffix MXTE07 against official manufacturer documentation to confirm the inclusion of the nickel barrier and FlexiCap termination structure. Ensure the selected variant matches the required 1206 footprint and 25V DC rating for your circuit design. Cross-reference the datasheet for precise impedance characteristics and current handling limits before finalizing procurement specifications.
Select this component when board flex sensitivity is a primary concern due to its flexible termination design. The three-terminal structure offers superior high-frequency noise suppression compared to standard two-terminal capacitors. Confirm that the 10,000 pF value and X7R temperature stability align with the specific filtering requirements of the target application environment.
This part belongs to the Knowles Syfer Syfer Technology series, which specializes in high-reliability ceramic components. The 1206Y prefix indicates a 1206 case size with Y-series specific termination or feature sets. The product line focuses on providing robust solutions for demanding industrial and commercial electronics environments requiring consistent performance under thermal and mechanical stress.
Direct substitutes must match the 1206 footprint, 25V rating, 10,000 pF capacitance, and three-terminal feed-through topology. Verify compatibility of the FlexiCap termination and nickel barrier features if mechanical resilience is critical. Standard two-terminal MLCCs are not functionally equivalent due to differences in filtering efficiency and mounting stress distribution.