EP2KA+

RF Power Dividers/Splitters Overview

The Mini-Circuits EP2KA+ is a monolithic microwave integrated circuit (MMIC) power splitter/combiner engineered for wideband operation across the 10 GHz to 43.5 GHz frequency range, providing a bandwidth of 33.5 GHz. Designed with a 50 Ohm impedance, this two-way device features an insertion loss of 2.2 dB and utilizes surface-mount technology in a QFN-10 package. It operates within a temperature range of -40°C to +85°C.

RF Power Dividers/Splitters Feature Summary

• Monolithic microwave integrated circuit construction for reliable high-frequency performance
• Wideband operational capability spanning from 10 GHz to 43.5 GHz
• Surface-mount design utilizing a compact QFN-10 package for board integration

RF Power Dividers/Splitters Applications

• High-frequency signal distribution networks
• Microwave measurement and test equipment
• Wireless communication system components

RF Power Dividers/Splitters Procurement Notes

Verify component authenticity through official Mini-Circuits channels or authorized distributors. Confirm that the received part matches the EP2KA+ designation and QFN-10 package type. Ensure storage conditions remain within specified limits to maintain reliability before installation.

RF Power Dividers/Splitters Selection Notes

Select this component when a wideband split ratio is required up to 43.5 GHz. The MMIC architecture offers consistent performance without external matching networks. Consider the thermal operating range and SMT mounting requirements during PCB layout design.

RF Power Dividers/Splitters Part Context

This model belongs to the Mini-Circuits EP2KA+ series of signal conditioning components. It is categorized under power splitters and combiners within the broader RF and microwave product line, designed specifically for applications requiring broadband signal division at millimeter-wave frequencies.

RF Power Dividers/Splitters Replacement Considerations

Consult official Mini-Circuits documentation for verified substitute part numbers. Do not assume functional equivalence with other models based on generic specifications alone.