ZX60-123LPN+

Overview

The ZX60-123LPN+ is a low phase noise gain block amplifier from Mini-Circuits, operating within a frequency range of 50 MHz to 10 GHz. It provides a nominal gain of 16 dB with a flatness of ±0.9 dB across the band. The device features a P1dB compression point of 13.5 dBm and an OIP3 of 24 dBm. It requires a single 5 VDC supply voltage and draws a typical current of 48 mA. The unit utilizes GaAs HBT technology for performance.

Feature Summary

• Ultra-wideband operation from 50 MHz to 10 GHz
• Extremely low additive phase noise characteristics
• GaAs HBT fabrication technology
• SMA connectorized interface

Applications

• Wireless LAN systems
• Test and measurement instrumentation
• Broadband communication links

Procurement Notes

Verify the specific datasheet version for the ZX60-123LPN+ to confirm exact electrical tolerances and mechanical dimensions prior to integration. Ensure that the system power supply can provide stable 5 VDC at required currents. Confirm SMA connector compatibility with existing PCB or cable assemblies. Check for any recent design changes in the manufacturing process that might affect performance specifications.

Selection Notes

Select this component when ultra-wideband coverage from 50 MHz to 10 GHz is required alongside low phase noise performance. It is suitable for applications demanding high linearity and gain stability. Consider the GaAs HBT technology benefits for robust operation. Evaluate thermal management requirements based on the 5 VDC supply and 48 mA consumption profile for the specific enclosure environment.

Part Context

This part belongs to the ZX60 series of low phase noise amplifiers by Mini-Circuits. The series focuses on providing high-performance signal conditioning for wideband RF applications. The ZX60-123LPN+ specifically targets the 50 MHz to 10 GHz spectrum, offering a balance of gain, linearity, and noise performance using advanced semiconductor processes.

Replacement Considerations

Consult official Mini-Circuits documentation for verified substitute part numbers. Cross-reference electrical parameters such as frequency range, gain, and noise figure to ensure functional equivalence. Verify mechanical footprint and connector type compatibility before substitution.