MSS40-045-P86

RF Diode Overview

The MSS40-045-P86 is a Schottky barrier diode manufactured by MACOM Technology Solutions, designed for radio frequency applications. It operates with a maximum reverse voltage of 3V and a forward current rating of 50 mA. The device features a power dissipation capacity of 100 mW. It utilizes the P86 package configuration. This component belongs to the MSS40 series, which is characterized by high reliability and performance in RF signal processing tasks.

RF Diode Feature Summary

• Schottky barrier construction for low noise operation
• Hermetic sealing for environmental stability
• Optimized for millimeter wave band applications

RF Diode Applications

• RF mixer circuits
• Detector applications
• Millimeter wave systems

RF Diode Procurement Notes

Verify the specific suffix P86 against official MACOM documentation to confirm package type and pinout compatibility. Ensure that the ordering information matches the exact part number MSS40-045-P86 to avoid substitution errors. Cross-reference datasheets for thermal and electrical limits before integration.

RF Diode Selection Notes

Select this component when a hermetically sealed Schottky diode is required for RF frequencies. Compare the 3V reverse voltage and 50 mA forward current ratings against circuit requirements. Verify that the P86 package dimensions fit the available board space and assembly constraints.

RF Diode Part Context

This part is part of the MSS40 series from MACOM, which includes various Schottky diodes for RF use. The series is known for consistency in manufacturing processes. The MSS40-045 variant specifically targets applications needing reliable rectification or mixing at high frequencies with strict environmental standards.

RF Diode Replacement Considerations

Check for direct substitutes within the MSS40 family with compatible suffixes. Verify electrical parameters such as breakdown voltage and capacitance if considering alternative brands. Ensure package compatibility for direct replacement without PCB redesign.