Microwave Transmission Engineering

Master the Art of Microwave Transmission Engineering: Design, Plan, and Deploy Reliable Networks The Microwave Transmission Engineering course is designed for engineers, researchers, and professionals who want to gain a deep understanding of microwave and millimeter-wave transmission technologies.

This course provides you with a comprehensive exploration of microwave electromagnetic theory, practical microwave network design, and the planning of robust microwave transmission systems used in today’s most advanced digital communication networks.

As 5G, 6G, and satellite communication (SATCOM) continue to shape the future of global connectivity, the ability to design and optimize microwave transmission networks has become a critical skill.

This course equips you with the knowledge and tools needed to address challenges in wireless communication, satellite broadcasting, and high-speed internet delivery.

If you are seeking to advance even further, it also serves as a stepping stone to millimeter-wave transmission engineering.

A key component is a Microwave Link Design project , where you apply LTspice simulations, frequency planning, link budget analysis, fading prediction, and link optimization to a real-world microwave transmission scenario.

As part of the Microwave Link Design project, the course also introduces Artificial Intelligence (AI) , specifically Supervised Machine Learning (ML) as a state-of-the-art intelligent design tool for Microwave Link Design.

You will use your data generated from the microwave link design project to train a regression-based ML model that can help predict the optimizations such as the microwave transmitter's optimal power and the sweet spot for the microwave transmitter's power efficiency relative to link distance.

Using Python programming available via Google Colaboratory (free) to edit and run the ML model, you will gain practical experience applying AI/ML techniques to microwave transmission engineering problems.

Course Highlights Maxwell’s Equations and Uniform Plane Waves in Free Space: Understand the fundamental equations governing electromagnetic fields and wave propagation in free space.

Fields and Waves in Material Media: Explore how electromagnetic waves behave when propagating, reflecting, refracting, transmitting, or being absorbed in different materials.

Transmission Line Essentials for Digital Electronics – Learn the principles of transmission lines and their importance in high-frequency digital systems.

Principles of Guided Wave for Electronics and Optoelectronics – Study guided wave structures used in microwave circuits, optical fibers, and photonic devices.

Principles of Radiation and Antennas: Gain insight into how antennas radiate and receive electromagnetic energy for wireless communication.

Transmission Network Fundamentals: Understand the architecture and core components of microwave transmission networks.

Basics of Microwave Communications: Learn the operating principles of microwave systems used for wireless communication and data transfer.

Microwave Link Design: Acquire the skills to design reliable point-to-point microwave links for voice, data, and multimedia transmission.

Microwave Network Plan: Learn how to plan a complete microwave network considering topology, coverage, and system requirements.

Microwave Network Design: Integrate theory and practice to design robust, high-capacity microwave networks for real-world applications.

Fading and Optimization: Fading prediction and techniques for improving link performance.

LTspice Simulation: Simulation and analysis of antenna characteristics and S-parameters.

AI and Machine Learning: Apply supervised ML and regression techniques to analyze engineering data and optimize microwave system performance.

Python and Google Colab: Develop and run AI/ML models using a web-based Python environment.

Integrated Design Project: Combine engineering analysis, simulation, optimization, and AI/ML in a complete microwave link design.

Course Benefits Gain a strong understanding of microwave propagation, system design, and challenges involved in MW transmission projects.

Learn how to perform microwave path calculations for network planning and optimization.

Understand the challenges involved in MW link installation and network deployment, ensuring smooth and efficient project execution.

Why You Should Take This Course By the end of this course, you will Recognize and understand in detail microwave transmission and network design issues from high-frequency electromagnetic perspectives.

Analyze problems and challenges in microwave transmission networks and identify effective solutions and technologies.

Design reliable microwave transmission systems and networks for modern communication needs.

Gain the skills to design, analyze, simulate, and optimize microwave transmission systems while applying emerging AI/ML techniques to modern engineering challenges.

Course Details and Next Steps Course Typically Offered: Summer and Fall quarters.

Prerequisites: Basic math skills and understanding of telecommunications are required.

Next steps: Upon completion of this course, consider taking other courses in the RF Engineering Certificate.

More information : Contact unexengr@ucsd.edu to learn more about RF Engineering and course offerings.