ZFSC-2-1W-S+

RF Power Dividers/Splitters Overview

The Mini-Circuits ZFSC-2-1W-S+ is a two-way RF power splitter designed for frequencies from 1 MHz to 750 MHz. It features SMA female connectors and operates at a 50 Ohm impedance. Key electrical specifications include a maximum insertion loss of 0.8 dB, minimum isolation of 20 dB, and maximum imbalance of 4 degrees. The device is housed in a module adapter package measuring 1.250 inches long by 1.250 inches wide by 0.750 inches high.

RF Power Dividers/Splitters Feature Summary

• Provides equal signal splitting across a broadband frequency range
• Utilizes SMA female termination style for standard connectivity
• Constructed with silver and copper components within a clear plastic housing

RF Power Dividers/Splitters Applications

• VHF/UHF communications systems
• RF signal distribution networks
• Laboratory test and measurement setups

RF Power Dividers/Splitters Procurement Notes

Verify the specific suffix 'S+' indicates RoHS3 compliance when sourcing. Confirm that the SMA female connector configuration matches the system interface requirements. Check current availability as lead times may vary due to manufacturing schedules. Ensure the physical dimensions fit the intended enclosure space.

RF Power Dividers/Splitters Selection Notes

Select this component for applications requiring broadband splitting between 1 MHz and 750 MHz. Consider the 0.8 dB insertion loss impact on system gain. Verify that the 20 dB isolation meets interference rejection needs. Compare physical size against available mounting areas in the design.

RF Power Dividers/Splitters Part Context

This part belongs to the ZFSC series of power splitters and combiners from Mini-Circuits. It shares functional similarities with variants like the ZFSC-2-1WDC-S+, which offers different phase characteristics. The series provides modular solutions for RF signal management in various communication and testing environments.

RF Power Dividers/Splitters Replacement Considerations

The ZFSC-2-1WDC-S+ serves as a related alternative within the same product family. Both parts share identical frequency ranges and connector types but differ in phase balance specifications. Evaluate if the specific phase requirements of the application necessitate the DC variant over this standard model.