PE88D9000

RF Power Dividers/Splitters Overview

The PE88D9000 is a coaxial packaged frequency divider module manufactured by Pasternack. It functions as a divide-by-9 prescaler, accepting an input frequency range from 100 MHz to 15 GHz and producing an output frequency between 11 MHz and 1.667 GHz. The component utilizes SMA connectors for interface connections.

RF Power Dividers/Splitters Feature Summary

• Divides input signal frequency by a factor of nine
• Operates across a wide microwave frequency spectrum
• Provides standardized SMA connector interfaces

RF Power Dividers/Splitters Applications

• Microwave test and measurement instrumentation
• Frequency synthesis systems requiring high division ratios
• Signal processing circuits operating in the 100 MHz to 15 GHz range

RF Power Dividers/Splitters Procurement Notes

Verify the specific SMA connector gender and mating requirements against your system design before procurement. Confirm that the input signal amplitude falls within the operational limits defined in the official datasheet to ensure reliable performance. Check for any updated revision history or environmental compliance certifications required for your specific deployment.

RF Power Dividers/Splitters Selection Notes

Select this module when a fixed divide-by-nine ratio is required within the specified frequency bands. Ensure the host system can accommodate the resulting lower output frequency range. Consider thermal management needs if the module operates continuously at maximum input frequencies. Verify compatibility with existing SMA infrastructure.

RF Power Dividers/Splitters Part Context

This component belongs to Pasternack's family of RF prescaler modules designed for signal conditioning. These modules are typically used to extend the measurable frequency range of instruments by dividing high-frequency signals down to manageable levels for downstream processing or analysis equipment.

RF Power Dividers/Splitters Replacement Considerations

Public confirmed substitute part numbers: None identified.