Mastering Cst Antenna Design: From Basics To Brilliance
Published 3/2024
MP4 | Video: h264, 1920x1080 | Audio: AAC, 44.1 KHz
Language: English | Size: 2.61 GB | Duration: 4h 9m
Published 3/2024
MP4 | Video: h264, 1920x1080 | Audio: AAC, 44.1 KHz
Language: English | Size: 2.61 GB | Duration: 4h 9m
CST Studio: Full Practical Antenna Designing Course from Beginners to Expert Level (S-Parameters, Gain, Return Loss)
What you'll learn
Students would learn to design antenna geometry step-by-step with a detailed explanation.
Students will become experts by observing the practical microstrip patch antenna designing process in CST DESIGN STUDIO.
Students will learn antenna structure optimization in CST Studio, covering parameter sweeps and the analytical/mathematical aspects of dimension calculation.
Students will learn about antenna terms such as VSWR, Return Loss, Reflection coefficients, Gain, and S-parameters. They will also observe polar plots and radia
Requirements
No any prior Coding skills are required, Only need to install CST Studio on your PC
Description
Delving deeply into fundamental concepts essential for antenna design, this comprehensive course covers a range of key topics including S-parameters, reflection coefficients, gain, return loss, voltage standing wave ratio (VSWR), and antenna efficiency. Seamlessly integrating CST antenna design and optimization methodologies, the course offers an extensive exploration of antenna mathematics. Microstrip patch antennas offer various geometries for optimal performance. Rectangular patches are common due to their simplicity and versatility. Circular patches exhibit circular polarization and compact size, suitable for satellite communication. Elliptical patches provide flexibility in tuning polarization and beam shape. Triangular patches offer directional radiation patterns for specific applications. Additionally, fractal geometries enhance bandwidth and miniaturization. Each geometry has distinct advantages, influencing factors such as bandwidth, gain, and radiation pattern, making them suitable for diverse wireless communication scenarios. By leveraging parametric sweep techniques, participants rigorously pursue the optimization of antenna geometry with the aim of minimizing reflection at the specified operating frequency. Throughout the course, simulation results are thoroughly discussed, and multiple possible cases are presented. Discussions include polar plots, gain plots, S11 plots, and their corresponding axes. This systematic and hands-on approach not only provides novices with a solid foundation but also cultivates advanced proficiency in antenna engineering.
Overview
Section 1: Introduction
Lecture 1 An Introduction to the CST Environment
Lecture 2 Understanding S-Parameters, VSWR, and Gain
Lecture 3 Understanding S-Parameters, VSWR, and Gain –-A Continuation
Section 2: Mastering Geometric Drawing in CST Studio: Exploring Effective Methods
Lecture 4 Creating a Square Geometry in CST Studio
Lecture 5 Crafting Rectangular Shapes with Ease in CST Studio
Lecture 6 How to Draw a Circle and Semi-circle Geometry in CST Studio
Lecture 7 Creating Hexagonal, Octagonal and slotted Structures in CST Studio
Lecture 8 Learn Techniques for Drawing Complex Irregular Structures in CST
Lecture 9 Designing slotted shapes with a range of geometric patterns through CST Studio
Lecture 10 Drawing Complex Geometries with Multiple slots - Subtracting Geometries in CST
Lecture 11 Learn Geometries with circular slots - Subtracting Geometries in CST
Lecture 12 Uniting geometries in CST and creating a complex structure
Section 3: Designing a patch in CST Studio
Lecture 13 Creating a Patch Antenna Geometry, Defining the Ports, and Simulating it in CST
Lecture 14 Describing the Simulation Results - Reflection Coefficient (S11)
Lecture 15 Describing the Simulation Results - Antenna Gain, and Polar Plots
Lecture 16 Optimizing the antenna structure through parametric sweep analysis
Section 4: Designing an Efficient Antenna for a Specific Frequency Band
Lecture 17 Calculating antenna patch dimensions through analytical mathematical formula
Lecture 18 Construct the Antenna Geometry for Given Frequency with Analytical Dimensions
Lecture 19 Simulation setup for antenna geometry in CST
Lecture 20 Optimizing Antenna Geometry in CST for Given Frequency via Parametric Sweep
Lecture 21 Optimizing Antenna Geometry for Given Frequency via Parametric Sweep - Part 2
Lecture 22 Optimizing Antenna Geometry for specific band via Parametric Sweep - Part 3
Lecture 23 Optimizing Antenna Geometry for specific band via Parametric Sweep - Part 4
Lecture 24 VSWR - S11 and Gain Calculations
Lecture 25 Antenna Efficiency Measurement
Students and Professional working in Industry