D3C0507-5

RF Circulators And Isolators Overview

The D3C0507-5 is a three-port RF circulator manufactured by DiTom Microwave, designed for the 500 MHz to 700 MHz frequency range. It features a single junction configuration with Male, Female, and Male connector types. The unit operates within a temperature range of -20°C to +65°C and measures 1.58 inches by 0.73 inches by 1.62 inches.

RF Circulators And Isolators Feature Summary

• Provides non-reciprocal signal routing across three ports using ferrite technology
• Supports operation in harsh environments with defined thermal limits
• Utilizes mixed SMA connector configurations for flexible integration

RF Circulators And Isolators Applications

• Space and defense communication systems
• Satellite ground station transceivers
• Military radar front-end modules

RF Circulators And Isolators Procurement Notes

Verify specific datasheet revisions and RoHS compliance status directly with DiTom Microwave before procurement. Confirm that the Male-Female-Male connector orientation matches system interface requirements. Ensure environmental testing protocols align with project specifications for space or defense applications.

RF Circulators And Isolators Selection Notes

Select this component when operating frequencies fall strictly between 500 MHz and 700 MHz. Consider the physical dimensions and mixed connector types during PCB or chassis layout. Evaluate thermal management capabilities against the specified -20°C to +65°C operational range for the intended environment.

RF Circulators And Isolators Part Context

This part belongs to the D3C0507 series of RF circulators from DiTom Microwave. The manufacturer specializes in high-reliability ferrite components for aerospace and defense markets, holding AS9100 Rev C certification. The series covers various frequency bands within the UHF spectrum.

RF Circulators And Isolators Replacement Considerations

Public confirmed substitute part numbers are not available in the provided documentation. Verify compatibility with existing system interfaces before considering alternative models.