Skip to content

HugoTronics/WiFi-Patch-Antenna-Project

Folders and files

NameName
Last commit message
Last commit date

Latest commit

 

History

6 Commits
 
 
 
 
 
 
 
 
 
 

Repository files navigation

Building a High-Performance Wi-Fi Patch Antenna

CAD DXF STL Simulation

📖 Project Overview

This repository contains resources for building a Wi-Fi patch antenna designed to optimize the network performance of a desktop PC. The project explores the design, simulation, fabrication, and testing of the antenna. You'll find DXF files for antenna designs, STL files for 3D-printed enclosures, and simulation files used during the design phase.

Features

  • DXF Files: 2D design files for PCB fabrication.
  • STL Files: 3D models for printing the antenna enclosure.
  • Simulation Files: Data and configurations from CST Studio used to optimize the antenna design.

cnc drill gif


🔗 Explore the Full Project

For a detailed walkthrough of the project, including step-by-step design, simulation, and testing of the Wi-Fi patch antenna, check out the full article:

Read the Full Article

This article includes:

  • In-depth Design Process: Insights into the choices behind the patch antenna.
  • Simulation Insights: Detailed results and optimization tips.
  • Fabrication Guide: Step-by-step instructions for building the antenna and its enclosure.
  • Performance Testing: Real-world tests and measurable improvements.

🚀 Getting Started

Files Included

  1. DXF File:

    • Antenna\DXF\Antenna_Patch: Top design of the antenna for PCB milling.
  2. STL Files:

    • Antenna Case\STL-SOLIDWORK\Wifi_Antenna_Enclosure: 3D model for the antenna's enclosure.
    • Antenna Case\STL-SOLIDWORK\Wifi_Antenna_Cover: 3D model for the enclosure cover.
  3. Simulation Files:

    • CST Studio Design\Patch_Antenna.cst: CST Studio simulation files used to test and optimize the antenna's performance.

How to Use

  1. Download the Files:

  2. Open DXF Files:

    • Use a CAD software like AutoCAD or Fusion 360 to view and modify the DXF files for PCB manufacturing.
  3. 3D Print STL Files:

    • Use any 3D printer compatible with STL files to print the antenna's enclosure. Recommended material is PETG for durability.
  4. Simulate with CST Studio:

    • Load the CST Studio simulation file to perform your own design and optimization checks.

🛠️ Installation and Setup

  1. Antenna Design:

    • Import the DXF file into your PCB design software and prepare it for milling.
  2. 3D Printing:

    • Open the STL file in your 3D printing software and adjust settings according to your printer's specifications. Print the enclosure.
  3. Simulation:

    • Open the CST Studio file to explore simulation results and optimize the design as needed.

🧪 Testing and Validation

  1. Fabrication:

    • Fabricate the antenna using the DXF design files and assemble it with the 3D-printed enclosure.
  2. Performance Testing:

    • Test the antenna's performance using a vector network analyzer (VNA) and compare it with the simulation results.
  3. Real-World Testing:

    • Install the antenna and measure the signal strength improvement using tools like Acrylic Suite.

📝 Documentation and References

  • CST Studio Suite: For antenna design simulations.
  • Acrylic Suite: For network performance measurement.
  • Vector Network Analyzer (VNA): For performance validation.

🔧 Future Improvements

  • Add dual-band support for the 5 GHz range alongside 2.4 GHz.
  • Optimize the antenna's design based on real-world feedback.
  • Develop a more compact version for IoT or other specialized applications.

📫 Contact and Support

For questions or support, please open an issue on this GitHub repository or contact corsahu@gmail.com.


📖 Additional Resources