ATT-0298-20-HEX-02

Attenuators Overview

The ATT-0298-20-HEX-02 is an RF attenuator manufactured by Cinch Connectivity Solutions Midwest Microwave. It provides a fixed attenuation value of 20dB within a frequency range of 0 Hz to 26.5 GHz. The component features a HEX in-line module package and supports a maximum power handling capacity of 2W. It is designed for high-frequency applications requiring precise signal reduction.

Attenuators Feature Summary

• Provides fixed 20dB attenuation across a wide DC to 26.5 GHz bandwidth
• Utilizes HEX in-line module packaging for robust integration
• Supports 2W power handling capability for demanding RF environments

Attenuators Applications

• RF signal conditioning in test and measurement equipment
• Attenuation stages in wireless communication systems
• Signal level adjustment in microwave circuit designs

Attenuators Procurement Notes

Verify the manufacturer part number ATT-0298-20-HEX-02 against official Cinch Connectivity Solutions documentation to ensure authenticity. Confirm that the HEX in-line module form factor matches your system requirements. Check RoHS compliance status and export classification (EAR99) for regulatory adherence before procurement.

Attenuators Selection Notes

Select this component when a fixed 20dB attenuation is required up to 26.5 GHz. Ensure the 2W power rating aligns with your system's maximum signal levels. The HEX module format dictates specific mounting and interconnection constraints compared to SMA variants.

Attenuators Part Context

This part belongs to the ATT-02 series of connectorized attenuators from Midwest Microwave. It shares the core electrical specifications with the ATT-0298-20-SMA-02 but differs in physical interface, utilizing a HEX module instead of SMA connectors for specialized integration needs.

Attenuators Replacement Considerations

The ATT-0298-20-SMA-02 offers identical electrical performance but uses SMA connectors. Verify mechanical compatibility if substituting, as the HEX module form factor differs significantly from standard coaxial interfaces.