B39192B5609U410

Overview

The B39192B5609U410 is a Surface Acoustic Wave (SAW) filter manufactured by Qualcomm for RF front-end applications. It operates at a center frequency of 1.8825 GHz with a bandwidth of 65 MHz and an insertion loss of 2.4 dB. The component is housed in a compact 6-SMD, no-lead package measuring 3.00mm x 3.00mm x 1.23mm. Designed specifically for base station infrastructure, it supports reliable signal processing in wireless communication systems.

Feature Summary

• Utilizes Surface Acoustic Wave technology for efficient RF filtering
• Engineered for high-performance base station infrastructure applications
• Compact surface-mount design suitable for space-constrained layouts

Applications

• Base station RF front-ends
• Small cell infrastructure
• Wireless communication access points

Procurement Notes

Verify the manufacturer part number B39192B5609U410 against official Qualcomm documentation to ensure authenticity. Confirm RoHS3 compliance and MSL rating 1 status during intake inspection. Validate that the received components match the specified 6-SMD package dimensions and electrical characteristics before integration into production lines.

Selection Notes

Select this component when designing base station architectures requiring SAW-based filtering at 1.8825 GHz. Consider its 2.4 dB insertion loss and 65 MHz bandwidth relative to system link budget requirements. Ensure the 3.00mm x 3.00mm footprint aligns with the PCB layout constraints for the specific RF module being developed.

Part Context

This device belongs to the Qualcomm RF front-end filter portfolio, which includes various discrete and embedded solutions for mobile and infrastructure markets. The B39192 series utilizes advanced acoustic technologies to address 4G and 5G design challenges. It serves as a specialized component within broader RFFE assemblies for cellular network equipment.

Replacement Considerations

Public records indicate B39182B4182U410 as a similar substitute option, though the latter is obsolete. Verify functional equivalence and pin compatibility before substitution.