RF & Microwave Components Design and Manufacturer

Precision RF & Microwave Components for Advanced Systems

Consistent, reliable, and customizable solutions designed to meet the demands of telecommunications, aerospace, and testing labs worldwide.

Customize Solutions to Your Projects

No two projects are the same, and neither are our products. Safari Microwave offers tailored solutions to meet your specific application needs, from frequency adjustments to unique form factors. Our customer-centric approach ensures you get exactly what you need when you need it. Here’s what we can do for you:

SSPA:

Frequency Range Coverage: 30MHz~110GHz
Gain: 10~60dB
Power: Continuous wave up to 500W, pulse up to 1000W
Connector type: SMA, N, Waveguide

Pin Diode Switches：

Number of Switching Paths: SPST to SP16T Frequency Range Covering： 20MHz~40GHz Absorption or Reflection Type Available Customizable Power Tolerance Up to 200W

Mechanical Switches:

Number of Switch Paths: SPST to SP8T Frequency Range Covering 400MHz~18GHz Withstand Power Up to 2W

Power splitters, Couplers, and Other Passive Components

Frequency Range From 30MHz to 60GHz Power Tolerance Can be Customised Up to 1000W Connector type: SMA, N, Waveguide

Amplifiers

RF Switches

Attenuators

Power Divider

Coupler

Filter

Micro Assembly Line

Electrical Assembly Line

Testing & Commissioning

Environmental Inspection

An Expert's Guide

Looking to enhance your operations with high-performance RF & microwave products? Explore this streamlined guide to discover how Safari Microwave’s precision-engineered solutions can meet your specific needs.

How can performance differences between specific components like LNAs, microwave switches, and attenuators be effectively compared?

How can compatibility and matching between RF components be ensured, and what techniques enhance overall system performance?

What materials are commonly used in RF/microwave components, and how do they impact loss, thermal management, and reliability?

How should RF components be tested and calibrated, and what are the common standards and methods?

How can RF/microwave components maintain stability and reliability under varying conditions like temperature, humidity, and vibration?

How can signal integrity be managed in high-frequency applications, and what methods reduce EMI and RFI?

How can an RF system be technically optimized to minimize losses and improve efficiency?

What future frequency bands might be reallocated for applications like 5G or IoT, and how will this impact RF component design?

As frequencies move toward millimeter-wave/terahertz bands, what challenges will arise in materials, manufacturing, thermal management, and power?

Are traditional materials like silicon still suitable at millimeter-wave/terahertz frequencies, or do newer materials like GaN or SiC offer better performance and cost-efficiency?