Explore what I've accomplished to complete my degree.
Spring 2025
Electric and magnetic fields, Gauss's law, Faraday's law, and Maxwell's equations — the physical foundation underlying all of electrical engineering.
Autumn 2025
Ordinary differential equations and Laplace transforms, with direct applications to modeling dynamic circuits and physical systems.
Autumn 2025
Signals, systems, and basic circuit analysis through hands-on lab work with measurement tools, simulation, and electrical prototyping.
Winter 2026
Laplace-domain analysis of first and second-order circuits, frequency response, and the design of analog filters.
Winter 2026
FFT, convolution, FIR and IIR filter design, and audio processing — signal processing concepts applied through programming.
Winter 2026
Advanced data structures including trees, graphs, and hash maps, with algorithm analysis and recursive problem-solving.
Spring 2026
Boolean algebra, combinational and sequential logic, finite state machines, and digital hardware description using Verilog.
Spring 2026
Semiconductor physics, p-n junction diodes, MOSFET operation, and small-signal transistor amplifier circuits.
Spring 2026
Probability theory, random variables, distributions, and statistical inference applied to engineering design and analysis.
Autumn 2026
Wave propagation, transmission lines, Maxwell's equations in dynamic form, and the electromagnetic basis of wireless communication.
Autumn 2026
Processor organization, instruction set architecture, pipelining, and memory hierarchy in modern computer systems.
Autumn 2026
CMOS circuit design, transistor-level layout, timing analysis, and the fundamentals of integrated circuit fabrication.