D3C3743Q-6

RF Circulators And Isolators Overview

The DiTom Microwave D3C3743Q-6 is a single-junction RF circulator operating within the 37 GHz to 43 GHz frequency range. It features Type-N female connectors and is housed in a module package. The component supports an average forward power of 5 W, with a maximum insertion loss of 1.2 dB and isolation of 14 dB. Voltage Standing Wave Ratio (VSWR) is specified at 1.35. It complies with RoHS3 standards and has a Moisture Sensitivity Level (MSL) rating of 1.

RF Circulators And Isolators Feature Summary

• Single-junction design for directional signal routing
• Integrated module packaging for system integration
• RoHS3 compliant construction

RF Circulators And Isolators Applications

• Millimeter-wave communication systems
• Radar transceiver modules
• Point-to-point microwave links

RF Circulators And Isolators Procurement Notes

Verify the specific connector configuration and electrical tolerances against the official datasheet before procurement. Confirm that the Type-N female interface matches the system requirements. Ensure environmental conditions align with the specified operating temperature range. Check for any specific handling instructions related to the module packaging to prevent physical damage during installation.

RF Circulators And Isolators Selection Notes

Select this component when a 37-43 GHz circulator with Type-N female interfaces is required. Consider the 5 W power handling and 14 dB isolation limits for system design. Evaluate the 1.35 VSWR performance against link budget requirements. Compare with other models in the D3C series if different frequency bands or connector types are needed.

RF Circulators And Isolators Part Context

This part belongs to the DiTom Microwave D3C3743Q series of RF circulators. It shares the same frequency band and general specifications with variants like D3C3743Q-5, differing primarily in connector configuration. The series provides single-junction solutions for millimeter-wave applications requiring high isolation and low insertion loss.