AM1010B1535

Overview

The AM1010B1535 is a ceramic band pass filter manufactured by Anatech Electronics Inc. It operates with a center frequency of 1010 MHz and features a bandwidth of 20 MHz. The component is designed for 50 Ohm impedance systems. It is housed in a 10-SMD module package, suitable for surface mount applications in RF and microwave circuits.

Feature Summary

• Utilizes ceramic technology for stable band pass filtering performance
• Designed for 50 Ohm system impedance compatibility
• Surface mount 10-SMD module packaging for integration

Applications

• RF signal processing
• Microwave circuit filtering
• Communication system intermediate frequency stages

Procurement Notes

Verify the specific datasheet version and manufacturing lot details upon order confirmation. Ensure that the 10-SMD package dimensions align with your PCB footprint requirements. Confirm the center frequency tolerance and insertion loss specifications against your design constraints before finalizing procurement to ensure compliance with system performance standards.

Selection Notes

Select this component when a fixed 1010 MHz center frequency with 20 MHz bandwidth is required. The 50 Ohm impedance matches standard RF transmission lines. The ceramic construction offers reliability for commercial and military applications. Consider the 10-SMD form factor for automated assembly processes and space-constrained designs requiring robust RF filtering solutions.

Part Context

Anatech Electronics Inc. specializes in RF and microwave filters for military and commercial sectors. This ceramic band pass filter belongs to their standard product line, providing reliable frequency selection capabilities. The company maintains ISO 9001:2015 certification, ensuring consistent quality in the design and manufacturing of these passive components for demanding electronic environments.

Replacement Considerations

Publicly confirmed substitute part numbers are not available in the provided documentation. Verify electrical parameters such as center frequency, bandwidth, and impedance with potential alternatives before substitution.