AFSD5-080120-25-26P

RF Amplifiers Overview

The AFSD5-080120-25-26P is an RF amplifier IC manufactured by L3 Narda-MITEQ. It operates within the 8GHz to 12GHz frequency band. The device provides a typical gain of 28dB and requires a supply current of 600mA. It features a moisture sensitivity level of 1, indicating unlimited floor life. This module is designed for general-purpose applications requiring amplification in the specified microwave range.

RF Amplifiers Feature Summary

• Operates across the 8GHz to 12GHz frequency band
• Provides 28dB gain performance
• Designed as a general-purpose RF amplifier module

RF Amplifiers Applications

• GPS systems
• Satellite communications
• Microwave signal processing

RF Amplifiers Procurement Notes

Verify the specific suffix (e.g., -LPN) against official L3 Narda-MITEQ documentation to ensure exact functional compatibility. Confirm that the 600mA supply current requirement aligns with your system power budget. Check moisture sensitivity handling procedures despite the Level 1 rating. Ensure the 8-12GHz operational range matches your application frequency requirements before procurement.

RF Amplifiers Selection Notes

Select this component when a fixed-gain amplifier is required for the 8-12GHz spectrum. Consider the 600mA current draw during thermal and power management planning. Verify interface and mounting requirements against the official datasheet. Compare against other L3 Narda-MITEQ modules if broader frequency coverage or different gain levels are needed.

RF Amplifiers Part Context

This part belongs to the L3 Narda-MITEQ RF amplifier family. These components are engineered for high-frequency signal integrity. The manufacturer specializes in microwave and millimeter-wave solutions. The AFSD5 series typically integrates amplifier stages into compact modules for reliable performance in demanding environments.

RF Amplifiers Replacement Considerations

Consult official L3 Narda-MITEQ substitution guides for verified alternatives. Cross-reference electrical parameters such as gain flatness and noise figure. Ensure mechanical footprint compatibility if board space is constrained. Validate frequency range overlap with potential substitute models.