4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component

Product Details
Customization: Available
Frequency Range (GHz): 4.2-4.8GHz
Vswr: ≤1.2
Diamond Member Since 2025

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Year of Establishment
2025-04-01
Plant Area
80 square meters
  • 4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component
  • 4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component
  • 4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component
  • 4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component
  • 4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component
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  • Overview
  • Product Description
  • Product Parameters
  • Company Profile
  • FAQ
Overview

Basic Info.

Model NO.
RT - Y0HQ88T48ADP
Coupling Degree (dB)
50
Circular Waveguide Size (mm)
88
Dominant Waveguide Mode
Te01
Flange
Fdp
Key
Coupler
Name
Passive Components
Transport Package
Carton
Origin
China

Product Description

4.2-4.8GHz Circular waveguide directional coupler for microwave and millimeter - wave component

Product Description

 
4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component
A directional coupler is a microwave and millimeter - wave component widely used in the field of microwave and millimeter - wave measurements. Its main function is to accurately sample high - power signals transmitted in microwave and millimeter - wave systems, and couple out a portion of the microwave and millimeter - wave signals. This enables the use of measuring instruments such as oscilloscopes, low - power meters, and spectrum analyzers to perform time - domain envelope monitoring, power measurement, spectrum measurement, etc. on the high - power signals transmitted in microwave and millimeter - wave systems.
 
The circular waveguide coupler is used to weakly couple the electric field in the circular waveguide in a circular waveguide measurement system, and is used to measure the polarization rotation in the circular waveguide

 

 

Product Parameters

 
Product Model Frequency Range (GHz) Voltage Standing Wave Ratio Coupling Degree Circular Waveguide Size (mm) Dominant Waveguide Mode Flange Material
RT - Y0HQ88T48ADP 4.2 - 4.8 ≤1.2 50 88 TE01 FDP Aluminum
RT - Y0HQ49.5T70ADP 5.7 - 6.7 ≤1.2 50 49.5 TE01 FDP Aluminum
RT - Y0HQ49.5T100ADP 8.8 - 9.8 ≤1.2 50 49.5 TE01 FDP Aluminum
4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component


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4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component

Company Profile


4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component4.2-4.8GHz Circular Waveguide Directional Coupler for Microwave and Millimeter - Wave Component

FAQ

Regarding Frequency Bands

Q1: Can C - band filters be used for satellite TV?
A: C - band filters are commonly used in satellite communication and other scenarios. Although some satellite TV signals may be in the C - band, satellite TV mostly uses the Ku - band. So, C - band filters may not be suitable for satellite TV. It depends on the specific frequency band of the TV signal.
 
Q2: Where are X - band filters mainly used?
A: X - band filters are mostly applied in radar and aviation communication. For example, they are used in radar signal processing to ensure that the radar can accurately detect targets.

Regarding Materials

Q1: Are aluminum - made filters sturdy?
A: Aluminum - made filters are light - weight and cost - effective. Under normal usage environments and with proper operation, they can meet usage requirements and are relatively sturdy and durable.
 
Q2: Why are copper - made filters more expensive?
A: Copper - made filters are more expensive because copper has excellent electrical and thermal conductivity, performing well in scenarios with high - frequency signal transmission and high heat - dissipation requirements. Moreover, the cost of copper is relatively high.

Regarding Performance

Q1: What are the impacts of high insertion loss on signals?
A: High insertion loss means more energy loss when the signal passes through the filter. The signal will weaken, which may affect the quality and accuracy of signal reception by subsequent devices.
 
Q2: What happens if the voltage standing wave ratio is high?
A: A high voltage standing wave ratio indicates poor matching between the filter and the transmission line. There will be more signal reflection, reducing the transmission efficiency and potentially affecting the normal operation of the equipment.

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