AMMP-6630-BLKG

Overview

The AMMP-6630-BLKG is a variable RF attenuator manufactured by Broadcom Limited, designed for high-frequency applications. It operates within a frequency range of 5 GHz to 30 GHz and maintains a characteristic impedance of 50 Ohms. The device provides an attenuation range from 3.5 dB to 23.5 dB. It is housed in an 8-SMD, no-lead surface-mount package. The component utilizes GaAs technology and is rated for operation between -55°C and +125°C. This part is classified as end-of-life.

Feature Summary

• Provides variable attenuation control across a wide microwave frequency spectrum
• Utilizes GaAs MMIC technology for compact surface-mount integration
• Maintains 50 Ohm impedance matching for standard RF systems

Applications

• Microwave communication systems requiring signal level adjustment
• Test and measurement equipment calibration
• Radar system signal conditioning

Procurement Notes

This component is officially designated as End-of-Life (EOL) by the manufacturer. Availability is restricted to existing stock or surplus channels only. Verify obsolescence notices and product change notifications before design finalization. Sourcing should focus on authorized distributors with traceable history due to the discontinued status.

Selection Notes

Select this component only if the specific 5 GHz to 30 GHz frequency range and GaAs technology align with system requirements. Consider the EOL status carefully; alternative solutions may be necessary for new designs. Ensure thermal management supports the specified operating temperature range of -55°C to +125°C during implementation.

Part Context

Part of the AMMP series of monolithic microwave integrated circuits. Designed for broadband RF applications requiring precise attenuation control in a small form factor. Represents Broadcom's legacy GaAs portfolio for wireless infrastructure components.

Replacement Considerations

Public confirmed substitute part numbers are not available in the provided documentation. Due to the EOL status, engineering evaluation of next-generation alternatives is recommended.