NCAA3300BKNAHWS

Silicon Capacitors Overview

The NCAA3300BKNAHWS is a silicon capacitor manufactured by Vishay Electro-Films. It features a capacitance of 33 pF with a tolerance of ±10%. The component utilizes nonstandard physical dimensions, distinguishing it from standard surface-mount packages. This device is designed for high-frequency applications requiring low equivalent series inductance (ESL).

Silicon Capacitors Feature Summary

• Utilizes silicon dielectric technology for stable performance.
• Designed with nonstandard form factors to accommodate specific layout constraints.
• Engineered for low equivalent series inductance characteristics.

Silicon Capacitors Applications

• High-frequency circuit filtering
• RF signal coupling and decoupling
• Precision analog signal conditioning

Silicon Capacitors Procurement Notes

Verify the exact nonstandard footprint dimensions against the official datasheet before integration, as these do not conform to standard SMD codes. Confirm that the supplier provides the current revision of the technical documentation to ensure compatibility with design requirements. Check lead times due to potential manufacturing delays.

Silicon Capacitors Selection Notes

Select this component when standard package sizes are insufficient for the required electrical performance or layout geometry. Evaluate the trade-off between the custom footprint and the benefits of low ESL silicon technology. Ensure the operating voltage and temperature range align with the system specifications.

Silicon Capacitors Part Context

This part belongs to the Vishay Electro-Films portfolio, known for thin-film and silicon passive technologies. The manufacturer specializes in high-reliability components for aerospace and defense sectors. The NCAA series represents their silicon capacitor offerings tailored for specialized electronic applications.

Silicon Capacitors Replacement Considerations

No direct public substitute part numbers are confirmed. Due to the nonstandard physical dimensions, alternative components must be evaluated based on electrical equivalence and custom mechanical accommodation rather than pin-to-pin compatibility.