The flipped format required studying before class, and the material demanded a mix of memorization and application that could stack up quickly if you fell behind.
A laboratory course covering Kirchhoff's laws, inductors, operational amplifiers, and frequency response through hands-on circuit assembly and measurement.
The labs were described as lengthy, and the final test was open book, open note, and open internet. However, students noted that the practice bench exam did not resemble the actual exam.
Laboratory course on terminal characteristics, speed control, voltage regulation, and system applications of electric machines, emphasizing experimental problem-solving.
Laboratory course introducing semiconductor material and device properties via characterization techniques, covering charge carriers, energy bands, space charge regions, carrier transport, light emission, and lattice vibrations.
Optoelectronics Lab covers light detection, generation, and transmission with LEDs, lasers, and optical fibers; students perform optical characterization measurements.
The primary burden came from writing 5-8 page individual lab reports after each session. Students noted these reports required detailed sections and took approximately five hours to complete.
Introductory Microprocessor Laboratory covers software and hardware experiments with microcomputers, including assembly language programming, I/O interfacing, and interrupt processing.
Hands-on lab course introducing various sensor types and addressing implementation issues like interference, isolation, linearity, amplification, and grounding in electronic circuits.
State Space Systems Analysis covers matrix methods for solving state-variable differential equations, focusing on stability, controllability, observability, and controller design.
Microelectronic Devices covers semiconductor characteristics, physical mechanisms, and circuit modeling of solid-state electronic and photonic devices, plus microelectronic processing principles.
Electronic Circuits I covers modeling, characterization, and application of semiconductor devices and integrated circuits, focusing on diodes, transistors, and op-amps for linear amplifier design.
Online quizzes were due twice weekly before lectures, covering material not yet taught. Students reported that homework and tests required self-study from the textbook because in-class examples were trivial or absent.
Introduction to microprocessor architecture, operation, and application. Covers programming, address decoding, system timing, I/O, interrupts, DMA, and RAM interfacing for microcontrollers.
The class is described as heavy on coding and self-directed learning, often involving lengthy datasheets and in-exam coding. Significant effort is expected for homework and the final project.
Covers energy storage/conversion, force/emf production, and coupled circuit analysis for systems with electrical and mechanical inputs, applied to motors, generators, and transducers.
Covers DC and AC circuit analysis, including nodal/mesh methods, Thevenin/Norton equivalents, op-amp circuits, transient response, phasors, and power characterization.
Covers transmission lines, electromagnetic waves in waveguides/optics, and radiation/antennas using frequency-domain analysis and graphical/computer methods.
Covers sampling, reconstruction, DFT spectral analysis, FFT, z-transforms, FIR/IIR filter design, signal flow graphs, and filter implementation in digital signal processing.
PHOTONICS covers ray and physical optics, interference, Fourier optics, absorption, dispersion, polarization, light sources including lasers, and modulation/detection.
Communication Systems II covers statistical analysis of information transmission, receiver design for AWGN and bandlimited channels, spread spectrum, channel capacity, and error control coding.
Embedded Microprocessor System Design covers hardware and software design for modern microprocessor-based embedded systems, focusing on the design process and a major team project.