Manufacturer Part Number
HMC397-SX
Manufacturer
analog-devices
Introduction
The HMC397-SX is a broadband, high dynamic range, low noise amplifier (LNA) designed for use in a variety of RF and wireless applications. It offers excellent gain, low noise figure, and high linearity across a wide frequency range, making it a versatile solution for diverse system requirements.
Product Features and Performance
Broad operating frequency range of 0Hz to 10GHz
High P1dB of 13dBm
Impressive gain of 14dB
Low noise figure of 4.5dB
General purpose RF type
Operates on a 5V supply with 56mA current consumption
Optimized performance in the 3GHz to 7GHz test frequency range
Surface mount, die package for compact integration
Product Advantages
Exceptional broadband performance across a wide frequency spectrum
Excellent linearity and dynamic range for handling strong signal environments
Low noise figure for improved signal-to-noise ratio
Compact, space-saving die package for easy integration
Key Reasons to Choose
Unparalleled broadband capabilities for versatile RF system design
High performance and reliability for critical wireless applications
Compact and efficient solution for space-constrained designs
Cost-effective and readily available from a trusted manufacturer
Quality and Safety Features
Rigorously tested to ensure consistent quality and reliability
Compliant with industry safety standards for safe operation
Compatibility
The HMC397-SX is a standalone RF amplifier component that can be integrated into a wide range of RF and wireless systems, including communication, test and measurement, and industrial applications.
Application Areas
Wireless communications
Test and measurement equipment
Industrial automation and control systems
Radar and satellite communications
Product Lifecycle
The HMC397-SX is an active, in-production product. There are no known plans for discontinuation at this time. Customers are advised to check with the manufacturer or our website's sales team for the latest product availability and any potential alternative or equivalent models.