This course provides an in-depth exploration of advanced concepts, technologies, and applications in satellite communications, bridging the foundations of physics and engineering with modern system-level challenges. Students begin with the essential mathematical and physical tools — vector calculus, orbital mechanics, electromagnetics, and relativity—that underpin the design and operation of satellite systems. Building on this foundation, the course progresses through the principles of orbital dynamics, antenna theory, propagation effects, and link budget analysis, before advancing into multi-access protocols, payload architectures, and emerging technologies. Hands-on learning is emphasized through simulations, analytical derivations, and applied projects. Students will use MATLAB/Python to model modulation performance, orbital dynamics, beamforming, Doppler effects, and satellite link behavior. They will also analyze real-world case studies such as GPS, Starlink, and deep-space communication links. The course highlights both current and emerging directions in the field, including optical and quantum communications, 5G/6G integration, mega-constellations, interplanetary networks, and space–economics trade-offs. In addition to technical mastery, students will develop the ability to critically assess system design choices, balancing physics, hardware limitations, and mission economics.
Course Prerequisite(s)
EN.525.616 Communication Systems Engineering and EN.525.640 Satellite Communications Systems. Students should have knowledge of material covered in EN.525.201 Circuits, Devices, and Fields and EN.525.202 Signals and Systems.;***Computer Science students only: Must complete core courses first (EN.605.601 AND EN.605.611 AND EN.605.621).;***Cybersecurity students only: Must complete core courses first (EN.605.621 AND EN.695.601 AND EN.695.641).
Course Offerings
There are no sections currently offered, however you can view a sample syllabus from a prior section of this course.