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The Knowles Syfer 1806Y1000272MJTE07 is a feed-through multilayer ceramic capacitor (MLCC) designed for surface mount technology. It features a capacitance of 2700 pF with a voltage rating of 100 VDC and an X7R dielectric material. The component operates within a temperature range of -55°C to +125°C and utilizes flexible terminals to enhance mechanical reliability. Packaged in reels, this Class 2 capacitor integrates a three-terminal structure for effective electromagnetic interference filtering.
Verify the specific suffix configuration against official datasheets to confirm terminal flexibility and packaging details. Ensure compatibility with automated pick-and-place equipment regarding reel specifications. Cross-reference thermal ratings with system operating conditions to validate performance under continuous load. Confirm regulatory compliance status such as RoHS requirements prior to integration into final products.
Select this component when high-frequency noise suppression is critical alongside mechanical robustness. The three-terminal design offers better shielding compared to standard two-terminal capacitors. Consider the X7R dielectric stability for applications experiencing moderate temperature fluctuations. Evaluate the physical footprint constraints against the 1806 package dimensions to ensure proper PCB layout accommodation.
This part belongs to the Knowles Syfer MLCC portfolio, specifically engineered for surface mount applications. It represents a specialized category of feed-through capacitors that combine filtering capabilities with structural integrity. The product line targets industries requiring reliable noise reduction in compact form factors without compromising mechanical resilience during assembly or operation.
Publicly confirmed substitute part numbers are not available in the provided documentation. Verify pinout compatibility and electrical parameters before considering alternative manufacturers. Ensure any replacement maintains the three-terminal feed-through topology for equivalent filtering performance.