0.7–2.7 GHz Wideband RF Power Amplifiers

2026-05-26


We are pleased to introduce three high-performance 0.7–2.7 GHz solid-state RF power amplifiers — AVBR0727H47, AVBR0727H50, and AVBR0727H51. Built on advanced GaN technology, these amplifiers deliver an excellent balance of efficiency, linearity, output power, and long-term reliability, making them ideal for broadband communication, radar, and RF test & measurement applications.

We are pleased to introduce three high-performance 0.7–2.7 GHz solid-state RF power amplifiers — AVBR0727H47, AVBR0727H50, and AVBR0727H51.

Built on advanced GaN technology, these amplifiers deliver an excellent balance of efficiency, linearity, output power, and long-term reliability, making them ideal for broadband communication, radar, and RF test & measurement applications.

 

AVBR0727H47

Key Advantages

  • High efficiency (typically around 31%), helping reduce power consumption and thermal management requirements 
  • Compact size and lightweight design for portable and space-constrained systems 
  • Low power consumption helps simplify power supply design and reduce overall system cost 
  • Supports CW, pulse, and linear modulation signals 

Recommended Applications

  • UAV and vehicle-mounted RF systems 
  • General RF test & measurement equipment 
  • Linear modulation applications with strict size and power constraints 

 

AVBR0727H50

Key Advantages

  • Stable 100W high-power output for medium-to-high power transmission requirements 
  • N-type RF connector design with strong VSWR tolerance for enhanced long-term reliability 
  • Optimized balance between output performance, efficiency, and cost 
  • Well suited for CW and pulse signal amplification 

Recommended Applications

  • Radar & Pulsed RF Systems
  • Wireless communication systems  
  • Broadcast & Coverage Systems

 

AVBR0727H51

Key Advantages

  • Up to 120W output power for demanding high-power RF applications 
  • Excellent linearity with OIP3 up to 54dBm, minimizing signal distortion for complex modulation formats 
  • Designed for stable long-term full-power operation 
  • Ideal for high-performance broadband and digitally modulated systems 

Recommended Applications

  • Next-Generation Communication Systems
  • Radar & Phased Array Systems
  • Satellite & RF Test Systems 

 

Selection Guide

  • Looking for low power consumption, compact size, and cost-effective integration? → Choose AVBR0727H47 
  • Need stable high-power performance with proven reliability? → Choose AVBR0727H50 
  • Require maximum output power, outstanding linearity, and ultra-low distortion? → Choose AVBR0727H51 

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National Day Holiday Notice

Our team will be on holiday from October 1 to October 7, 2026, and normal business operations will resume on October 8, 2026. During the holiday, our response time may be slightly longer than usual. We appreciate your understanding and patience.

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2026-09-29



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National Day Holiday Notice

Our team will be on holiday from October 1 to October 7, 2026, and normal business operations will resume on October 8, 2026. During the holiday, our response time may be slightly longer than usual. We appreciate your understanding and patience.

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ONE MOON, A THOUSAND YEARS OF MEANING

Happy Mid-Autumn Festival.

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RF Power Amplifier Datasheet Guide ——Common Terms & Abbreviations

RF power amplifier datasheets contain a wide range of technical terms and abbreviations. But understanding the numbers starts with understanding what they actually represent.

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70W Rack-Mount RF Power Amplifier-AVBR2080U48

The AVBR2080U48 is a solid-state broadband RF power amplifier based on Class AB architecture and RF GaN technology. It is specified for operation from 2.0 to 8.0 GHz, with a typical Output P1dB of 43 dBm.

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SWR vs. Return Loss — How Do You Interpret Them?

VSWR and Return Loss often appear together in RF specifications. What do these two parameters actually tell us, and how should we interpret their values?

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EMC TESTING IS MOVING HIGHER

Under UN Regulation No. 10 (07 series of amendments), the upper frequency limit for automotive radiated immunity testing has been extended from 2 GHz to 6 GHz, reflecting the growing integration of higher-frequency wireless and electronic technologies into modern vehicles.