VBF-2360+

Overview

The VBF-2360+ is a coaxial bandpass RF filter manufactured by Mini-Circuits, designed for the 2.25 GHz to 2.47 GHz frequency range with a center frequency of 2.36 GHz and a bandwidth of 220 MHz. Constructed using LTCC technology, it provides repeatable performance in a compact SMA inline module package measuring 1.43 inches in length. The component operates at a 50 Ohm impedance and features an insertion loss of 5.5 dB. It is suitable for board mount applications and complies with RoHS3 standards.

Feature Summary

• Utilizes internal LTCC structure for consistent performance
• Provides good close-in rejection characteristics
• Features versatile small size coaxial design

Applications

• RF signal conditioning
• Wireless communication systems
• Test and measurement equipment

Procurement Notes

Verify the specific datasheet version when sourcing, as performance curves may vary slightly between revisions. Confirm that the SMA connector type matches your system requirements. Ensure the operating temperature range aligns with your environmental conditions. Check for any specific handling instructions related to the LTCC construction during assembly.

Selection Notes

Select this model if a coaxial SMA form factor is required rather than surface mount alternatives like the BFCN-2360+. Consider the higher insertion loss compared to SMD versions when designing low-noise chains. Verify that the physical dimensions fit within the available chassis space. Ensure the frequency range covers the entire signal spectrum without excessive attenuation outside the passband.

Part Context

This component belongs to Mini-Circuits' VBF series of coaxial bandpass filters. It shares similar electrical specifications with other models in the lineup but differs in packaging and interface. The series is known for robust construction and reliable performance in demanding RF environments.

Replacement Considerations

The BFCN-2360+ offers identical electrical performance but uses an SMD/FV1206 package instead of SMA connectors. Substitution requires PCB layout changes and soldering capabilities. No direct pin-compatible coaxial substitutes are documented.