D3C4012

RF Circulators And Isolators Overview

The DiTom Microwave D3C4012 is a single junction coaxial circulator operating within the 4 GHz to 12 GHz frequency range. It features SMA female connectors and supports an average forward power rating of 20 W. Key electrical specifications include an insertion loss of 1 dB, an isolation level of 14 dB, and a voltage standing wave ratio (VSWR) of 1.5. The component is housed in a module package with SMA connectors.

RF Circulators And Isolators Feature Summary

• Single junction coaxial design for efficient signal routing
• Broadband operation spanning 4 GHz to 12 GHz
• Robust power handling capability up to 20 W

RF Circulators And Isolators Applications

• RF signal distribution networks
• Transmitter-receiver switching systems
• Microwave communication links

RF Circulators And Isolators Procurement Notes

Verify the specific connector configuration and mechanical dimensions against the official datasheet before integration. Confirm RoHS3 compliance status and ensure thermal management aligns with the 20 W power rating. Check manufacturing lead times as availability may vary by region.

RF Circulators And Isolators Selection Notes

Select this model when broadband coverage from 4 to 12 GHz is required with low insertion loss. Ensure system impedance matches the standard configuration. Consider the SMA female interface compatibility with existing PCB or cable assemblies during the design phase.

RF Circulators And Isolators Part Context

This component belongs to the DiTom Microwave D3C4012 series of RF circulators. Variants such as D3C4012-4 and D3C4012-6 exist with similar core specifications but may differ in connector types or mounting styles. The base model represents a standard coaxial solution for microwave applications.

RF Circulators And Isolators Replacement Considerations

Direct substitutes include DiTom part numbers D3C4012-4 and D3C4012-6. Verify that alternative models maintain identical frequency ranges and power ratings to ensure circuit compatibility without redesign.