Teach on Udemy

Turn what you know into an opportunity and reach millions around the world.

Learn More

Your cart is empty.

Keep shopping

Microstrip Patch Antenna Design using Keysight PathWave ADS

Name: Microstrip Patch Antenna Design using Keysight PathWave ADS
Rating: 4.3 (26 reviews)

Learn how to Design & Analyze Microstrip Patch Antennas using Different Feeds & Substrates using Keysigh ADS RAHAE209-L

Created byRahsoft Antenna Engineering Certificate - California, Akhilesh Verma

Last updated 9/2021

English

English [Auto],

What you'll learn

Microstrip Patch Antenna Design using Keysight ADS
Design and Analysis of Microstrip Patch Antenna using Rogers5880 with Keysight ADS
Characteristics of Microstrip Patch Antenna, Advantages
Different Feed Technique
Optimization and Result Analysis of MSA

Course content

12 sections • 75 lectures • 7h 31m total length

Microstrip patch antenna introduction13:38
Learn the fundamentals of microstrip patch antennas, including fringing fields, patch and ground plane geometry, substrate dielectric properties, and how patch shapes and dimensions influence radiation and bandwidth.
Before We Start0:50
Meet the instructor and access notes available for download as you begin the microstrip patch antenna design course using Keysight PathWave ADS. Provide feedback to help improve future sessions.
Characteristics of Microstrip Patch Antenna, Advantages6:03
Learn the characteristics of microstrip patch antennas, including resonant frequencies from patch dimensions, fringing fields, input impedance, polarization, bandwidth, and the advantages and drawbacks.
Applications of MSA1:56
Explore microstrip patch antenna applications in satellites, missiles, aircraft, GPS, mobile phones, wireless and biomedical radar, wearable heart-pulse sensors, and remote sensing for cancer detection.
Different Feed Technique10:33
Explore various feeding techniques for microstrip patch antennas—coaxial, microstrip line, electromagnetic (proximity) coupling, aperture coupled, and slot coupling—and learn how each influences input impedance and bandwidth.
Design steps of Microstrip Patch Antenna7:05
Explore the steps to design a microstrip patch antenna, from substrate selection and width calculations to effective permittivity, extension length, and resonant patch length.
Microstrip Patch Antenna Design using FR4 Substrate at 3.5GHz9:28
Explore microstrip patch antenna design on FR4 substrate, calculating width and length for 2.5 GHz to 3.5 GHz, selecting substrates, feed placement, and simulating with Keysight PathWave ADS.
Optimization and Result Analysis of MSA6:32
Optimize a microstrip patch antenna in Keysight PathWave ADS by adjusting the microstrip feed width to improve matching, reduce return loss, and achieve resonance near 2.4–2.5 ghz with 50% efficiency.
Gain, Directivity, Efficiency and Power radiated plot4:30
The lecture demonstrates plotting and interpreting gain, directivity, efficiency, and radiated power for a 2.5 GHz microstrip patch antenna, using linear and scatter views across the 3–4 GHz band.
Optimization of the Microstrip Patch Antenna7:35
Optimize the microstrip patch antenna by adjusting width and delta x, and evaluate gain and efficiency through parametric simulations around 2.5 GHz using PathWave ADS.
Optimization of feed length and width3:54
Optimize the feed length and width of a microstrip patch antenna in PathWave ADS by parametrizing the feed, setting delta x, and creating a reusable model and symbol.
Feed optimization continued5:08
Continuing feed optimization, the lecture shows varying design parameters and simulating nine to twelve gigahertz with 0.1 increments to improve return loss.
Feed optimization simulation results2:47
Demonstrates feed optimization of a microstrip patch antenna in PathWave ADS through parameterized feed length and substrate settings, with frequency-range simulations and line-length calculations.
Design of Microstrip Patch Antenna with 3.2mm thick FR4 substrate7:04
Explore how a 3.2 mm FR4 substrate thickness affects a microstrip patch antenna in Keysight PathWave ADS, altering resonant frequency, patch length, and feed width near 3.5 GHz.
Result Analysis4:32
Analyze microstrip patch antenna results with PathWave ADS, interpret S-parameter markers and resonance around 2.5 GHz and 4.3 GHz, and visualize current distribution, radiation patterns, and efficiency.
Result Analysis Continued...6:52
Analyze the microstrip patch antenna at 2.5 ghz, examining rotation patterns, current density, gain, and efficiency, with parametric analysis to optimize the design in Keysight PathWave ADS.
Microstrip Patch Antenna Optimization4:30
Showcases parametric optimization of a microstrip patch antenna in Keysight PathWave ADS, sweeping bandwidth from 25 to 29 and frequency from 3 to 5 GHz to achieve the desired design.
Design of Microstrip Patch Antenna with 4.8mm thick FR4 substrate5:00
design a microstrip patch antenna on a 4.8 mm FR4 substrate for a 2.5 GHz resonance, calculating patch length about 26.6 mm and width 18.2 mm with a fed line.
Simulations result analysis7:45
Analyze the simulation results of a microstrip patch antenna, evaluating return loss, phase, and current distribution at 2.5 GHz, and assess how substrate thickness affects bandwidth, efficiency, and gain.
Comparative analysis of microstrip patch antenna different substrate thickness6:28
Explore a comparative analysis of substrate thickness on a microstrip patch antenna at 2.5 gigahertz, showing how thickness affects bandwidth, gain, resonance, and efficiency for design optimization.

Design of microstrip patch antenna5:57
design and analysis of a microstrip patch antenna using rogers 5880 substrate, calculating patch dimensions for a 2.5 gigahertz resonance, and visualizing the radiation pattern and current density.
Result Analysis7:40
Analyze simulation results for a microstrip patch antenna in PathWave ADS, examining current density, radiation efficiency around 85.69%, gain at 2.5 GHz, and related power and polarization patterns.
How Rogeers5880 affects the performance of microstrip patch antenna5:19
Explore how the dielectric constant of Rogers 580 affects microstrip patch antenna efficiency, showing that higher dielectric constant reduces efficiency via impedance mismatch and loss.
Effect of permittivity on gain of the MSA3:18
Explore how dielectric permittivity affects the gain and radiation efficiency of a microstrip patch antenna, comparing substrates with permittivity 4.4 and 2.0 (Rojos 5880) and noting improved return loss.
Design of Microstrip Patch Antenna at 3.5 GHz with 3.2mm thick Rogers substrate4:39
Design a microstrip patch antenna on a 3.2 mm Rogers substrate at 3.5 GHz, examining how substrate thickness affects resonance, gain, and efficiency using PathWave ADS.
Far field cut of the MSA antenna3:58
Explore the far field analysis of microstrip antenna design using Keysight PathWave ADS, covering radiation patterns, current density, polarization, gain, and efficiency.
Design of Microstrip Patch Antenna at 3.5 GHz with 4.8mm thick Rogers substrate5:12
Design a microstrip patch antenna at 3.5 GHz using a 4.8 mm Rogers substrate, showing how thickness alters dimensions and performance, with PathWave ADS simulations.
Result Analysis4:16
Analyze microstrip patch antenna results in Keysight PathWave ADS, focusing on gain and radiation efficiency at 2.5 GHz, and compare substrate thickness options 1.6, 3.2, and 4.8.
Comparison of the antenna performance with different substrate thickness8:04
Compare patch antenna performance across substrate thickness levels of 1.6, 3.2, and 4.8, showing how thicker substrates reduce efficiency and increase loss at 2.5 gigahertz, with changes in gain.
Result Analysis of Rogers5880 and FR4 Substrate with different thickness7:58
This lecture compares Rogers 5880 and FR4 substrates across different thicknesses to analyze return loss, gain, and efficiency in microstrip patch antennas.
Frequency range for Rogers5880 and FR4 Substrate and which one is better6:00
Rogers 5880 offers low dielectric loss and reliable performance up to high frequencies, while FR4 degrades beyond about 5 GHz. For high-frequency designs, Rogers substrates are preferred over FR4.

Design of Microstrip Patch Antenna using Rogers6002 on 1.6mm thick substrate5:36
Design of microstrip patch antenna using Rogers 6002 on a 1.6 mm substrate and PathWave ADS analyses yields 2.5 ghz resonance with -16 db return loss and 6.06 db gain.
Result Analysis3:46
Analyze the antenna report and results in PathWave ADS, noting a 2.5 GHz resonance, ~200 MHz bandwidth, and polarization states including linear and circular, with far-field observations.
Design of Microstrip Patch Antenna using Rogers6002 on 3.2mm thick substrate8:43
Design and analyze a microstrip patch antenna on Rogers6002 with a 3.2 mm substrate, detailing patch dimensions and feed to achieve resonance near 2.5 ghz in pathwave ads.
Design of Microstrip Patch Antenna using Rogers6002 on 4.8mm thick substrate6:44
Design a microstrip patch antenna on Rogers 6002 with 4.8 mm thickness, achieving 2.5 GHz resonance and 4.6 dBi gain, while noting thickness reduces efficiency.

Design of Microstrip Patch Antenna using Polystyrene on 1.6mm thick substrate4:21
Design a microstrip patch antenna on a polystyrene substrate with 1.6 mm thickness, achieving a 2.5 GHz resonance and 82.6% efficiency. Explore substrate selection and solution setup in PathWave ADS.
Design of Microstrip Patch Antenna on 1.6mm thick substrate Result analysis3:22
Analyze a microstrip patch antenna on a polystyrene substrate, thickness 1.67 mm, examining gain, efficiency around 82.6%, and polarization plots; compare with other thicknesses in future video.
Design of Microstrip Patch Antenna using Polystyrene on 3.2mm thick substrate8:25
Analyze a microstrip patch antenna on a polystyrene substrate around 3 mm thick, achieving 2.5 GHz resonance with -19.7 dB return loss and about 72% radiation efficiency.
Design of Microstrip Patch Antenna using Polystyrene on 4.8mm thick substrate5:39
Design a microstrip patch antenna on a 4.8 mm polystyrene substrate for 2.5 gigahertz, detailing substrate selection, dimensions, simulation, and evaluating gain, efficiency, and radiation patterns.
Comparative analysis of microstrip patch antenna different substrate thickness6:18
Compare how substrate thickness in a microstrip patch antenna, using a polystyrene substrate, affects current density, radiation pattern, bandwidth, realized gain, and efficiency across different thicknesses.

Design of Microstrip Patch Antenna using Ceramic on 1.6mm thick substrate5:28
design a microstrip patch antenna on a ceramic substrate 1.67 mm thick, examining 2.5 ghz resonance and how substrate thickness affects gain and efficiency through simulation.
Design of Microstrip Patch Antenna using Ceramic on 3.2mm thick substrate4:38
Design and analysis of a microstrip patch antenna on a ceramic substrate 3.2 mm thick, with far-field and current distribution simulations at 2.5 GHz and efficiency metrics.
Design of Microstrip Patch Antenna using Ceramic on 4.8mm thick substrate4:45
Design and analyze microstrip patch antenna on a 4.8 mm ceramic substrate using PathWave ADS, detailing 5 by 6 pattern at 2.5 gigahertz with gain efficiency and current density.
Comparative analysis of microstrip patch antenna substrate (Ceramic)4:07
Assess how ceramic substrate thickness affects a microstrip patch antenna. The analysis shows thicker substrates degrade gain and efficiency, alter current density, and modify return loss.

inset feed microstrip patch antenna using FR4 substrate with 1.6mm5:24
Demonstrates designing a microstrip patch antenna with an inset feed on a FR4 substrate of 1.6 mm thickness for 2.5 GHz, setting dimensions and examining input impedance and current distribution.
inset feed microstrip patch antenna using FR4 substrate with 1.6mm in ADS8:42
Learn how to design an inset-feed microstrip patch antenna on an FR4 substrate (1.6 mm) using Keysight PathWave ADS, including layout, dimensions, and simulation setup.
Result Analysis9:15
Explore simulating and analyzing a microstrip patch antenna design in Keysight PathWave ADS, parameterizing feed slot, length, and width to achieve 2.5 GHz operation and study current flow and radiation.
inset feed microstrip patch antenna using FR4 substrate with 3.2mm4:11
Design an inset-feed microstrip patch antenna on FR4 with 3.2 mm substrate using Keysight PathWave ADS, creating the layout, configuring 2.5 GHz operation, and inspecting radiation pattern and current density.
Result Analysis2:44
Analyze the radio frequency performance of a microstrip patch antenna, examining resonance near 2.5 GHz, patch current density, and the impact of substrate thickness on efficiency.
inset feed microstrip patch antenna using FR4 substrate with 4.8mm7:55
Design and simulate inset-fed microstrip patch antennas on FR4 with 4.8 mm thickness, configure layout and simulation, and compare gain, bandwidth, and efficiency across three thicknesses 2.4 to 3.6 GHz.
Comparison Inset Feed Microstrip Patch Antenna-1.6mm, 3.2mm, 4.8mm FR4 Substrate4:20
Compare inset-feed microstrip patch antennas on FR4 substrates with thicknesses 1.6, 3.2, and 4.8 mm, showing bandwidth expansion and effects on gain and efficiency.

Inset Feed Microstrip Patch Antenna using Rogers6002 on 1.6mm thick substrate11:11
Design an inset-fed microstrip patch antenna on a 1.6 mm Rogers 6002 substrate, detailing feed geometry, layout creation, and preparing for simulation.
Result Analysis7:00
Tune the patch antenna after simulation by adjusting length, height, and feed to target a 2.5 GHz resonance, showcasing iterative optimization.
Result Analysis continued...3:57
Continue analyzing the microstrip patch antenna in Keysight PathWave ADS, examining 3.5 ghz current density on the patch, 3d rotation pattern, and gain and efficiency results.
inset feed microstrip patch antenna using Rogers6002 substrate with 3.2mm6:10
Design and simulate an inset-fed microstrip patch antenna on Rogers6002 substrate (3.2 mm) in PathWave ADS, illustrating layout setup and analysis of gain and efficiency at 2.5 gigahertz.
inset feed microstrip patch antenna using Rogers6002 substrate with 4.8mm6:30
Design an inset feed microstrip patch antenna on Rogers 6002 with a 4.8 mm substrate in Keysight PathWave ADS, optimize for 2.5 gigahertz, achieve 3.4 dBi gain and 51% efficiency.
comparison Inset Feed Microstrip Patch Antenna-1.6mm, 3.2mm, 4.8mm Rogers60022:36
Compare inset-feed microstrip patch antennas on Rogers 6002 with substrate thicknesses of 1.6, 3.2, and 4.8 mm, and analyze efficiency around 50 percent across thicknesses.

inset feed microstrip patch antenna using Rogers5880 substrate with 1.6mm8:02
We design an inset-fed microstrip patch antenna on Rogers 5880 substrate with 1.6 mm thickness, calculate its width, length, and feed gap, and prepare the geometry for simulation.
Result Analysis8:21
Analyze and optimize a microstrip patch antenna design using PathWave ADS by adjusting feed length, patch length, and other dimensions to achieve resonance near 2.5 GHz and assess current distribution.
Result Analysis continued...4:11
Analyze microstrip patch antenna results in PathWave ADS, evaluating current density, gain around 6.8 dB, and about 86% efficiency at 2.5 GHz, with frequency and efficiency plots for performance comparison.

inset feed microstrip patch antenna using Rogers5880 substrate with 3.2mm3:01
Design an inset-feed microstrip patch antenna on a Rogers 5880 substrate with a 3.2 mm thickness using Keysight PathWave ADS. Create and adjust layout and frequency plan for target operation.
Result Analysis4:47
Analyze and refine a microstrip patch antenna design using PathWave ADS, evaluating 2.5 GHz performance, with a gain of about 6.549 and radiation efficiency around 78.659%, plus current density visualization.

inset feed microstrip patch antenna using Rogers5880 substrate with 4.8mm part12:46
Design an inset-feed microstrip patch antenna on a Rogers 5880 substrate with 4.8 mm thickness, covering 2.4 ghz to 3.6 ghz, and apply setup steps in PathWave ADS.
inset feed microstrip patch antenna using Rogers5880 substrate with 4.8mm part26:47
Design and optimize an inset-fed microstrip patch antenna on Rogers 5880 substrate, tuning feed dimensions for impedance matching around 2.5 ghz and evaluating gain and efficiency near 69.78%.
Comparison of Inset Feed Microstrip Patch Antenna with 1.6, 3.2, 4.8mm Roger58806:44
Analyze how substrate thickness (1.6, 3.2, 4.8 mm) with Roger 5880 affects gain and efficiency in inset-fed microstrip patch antennas, and how thickness alters bandwidth and input impedance via fringing.

Requirements

Prerequisite for students planning to get RAHAE209-L course which is a complete package of Microstrip Patch antenna design in ADS using different feeds and substrate courses RAHAE101 and RAHAE201 from Rahsoft Antenna Engineering Certificate or equivalent.
Antenna Fundamentals
Electromagnetics

Description

Hands-On Antenna Design with PathWave Advanced Design System (ADS)

Unlock the world of antenna design with RAHAE 209-L, a practical course dedicated to hands-on antenna design using the powerful PathWave Advanced Design System (ADS). This course will equip you with the knowledge and skills needed to create effective antenna designs and understand critical parameters using ADS software.

Course Highlights:

In RAHAE 209-L, you will delve into the fascinating world of antenna design, focusing on various feed techniques and microstrip patch antennas. Here's what you can expect:

Microstrip Patch Antenna: Gain insights into the characteristics, advantages, and applications of microstrip patch antennas. Learn the step-by-step design process and analyze results using ADS.
Different Feed Techniques: Explore different feeding methods for patch antennas and conduct a comparative analysis to optimize antenna performance.
Substrate Thickness Variation: Understand the impact of substrate thickness on antenna parameters, such as gain, directivity, efficiency, and power radiation.
Rogers5880 Substrate: Design and analyze microstrip patch antennas using Rogers5880 substrate, evaluating its effects on antenna performance and gain.
Comparative Analysis: Conduct a comprehensive comparative analysis of antenna performance with varying substrate thickness and material.
Frequency Range Comparison: Determine the frequency range suitability for both Rogers5880 and FR4 substrates, helping you choose the right substrate for your applications.

Note on Software: Please be aware that PathWave Advanced Design System (ADS) software is not provided with this course. However, you can request a 1-month free trial through Keysight and often extend it by an additional 2 months. If you are a student, consider checking with your school for access to the software.

Join us in RAHAE 209-L and gain hands-on experience in antenna design, optimizing your ability to create efficient and effective antennas for a wide range of applications. Enroll today and take your first steps into the exciting world of antenna engineering!

Who this course is for:

Antenna Engineer
Undergraduate students working projects in antenna field
Post graduate students taking antenna course
Research scholars working in the field of RF/Antenna
This course is set for professionals working in the area of RF/Antenna field.

Microstrip Patch Antenna Design using Keysight PathWave ADS

What you'll learn

Explore related topics

Course content

Microstrip Patch Antenna20 lectures • 2hr 2min

Design and Analysis of Microstrip Patch Antenna using Rogers588011 lectures • 1hr 2min

Design and Analysis of Microstrip Patch Antenna using Rogers6002 Substrate4 lectures • 25min

Design and Analysis of Microstrip Patch Antenna using Polystyrene Substrate5 lectures • 28min

Design and Analysis of Microstrip Patch Antenna using Ceramic Substrate4 lectures • 19min

Design of microstrip patch antenna using inset feed FR4 Substrate7 lectures • 43min

Design of Inset Feed Microstrip Patch Antenna using Rogers6002 Substrate6 lectures • 37min

Design of Inset Feed Microstrip Patch Antenna using Rogers5880 Substrate 1.6mm3 lectures • 21min

Design of of Inset Feed Microstrip Patch Antenna using Rogers5880 Substrate 3.22 lectures • 8min

Design of Inset Feed Microstrip Patch Antenna using Rogers5880 Substrate 4.8mm3 lectures • 16min

Requirements

Description

Who this course is for: