Corequisite: 3450:221 or 149. Orientation to degree programs and design practice in electrical and computer engineering and in computer science. Introduction to computer applications and resources far engineering studies.

Corequisite: 231. Computation, computer aided circuit analysis, circuit theorem confirmation, report writing to include data analysis and reduction, introduction to electrical measurements.

Prerequisite: 3650:291; Corequisite: 230. Fundamentals at circuit analysis including loop and nodal methods, phasor techniques, resonance, polyphase circuits and magnetic coupling.

Prerequisites: 231. Corequisite: 340. Analysis at computer circuits. Introduction to use of Boolean algebra and mapping techniques in analyzing switching circuits. Sequential circuits.

Prerequisite: junior standing in engineering; Corequisite: 3450:335. Covers fundamental aspects at electrical circuits, electronics and electrical machinery. Not open to an electrical engineering major.

Corequisite: 331. Computation, computer aided circuit analysis, circuit theorem confirmation, report writing to include data analysis and reduction, intermediate electrical measurements.

Prerequisite: 231; Corequisite: 330. Network theorems, Fourier methods, transfer functions. Laplace and Fourier transforms and their use in analyzing dynamic operation at circuits.

Prerequisite: 263, 343. Introduces analog and digital communication systems and signal pro­cessing. Time-Sampling and filtering. Modulation and demodulation techniques. Noise and bandwidth requirements. System design and performance analysis.

Prerequisites: 3450:335 and 4400:231. Linear systems theory and transform analysis techniques for continuous and discrete systems. Convolutions, Laplace transforms, continuous and discrete Fourier transforms. Difference equations and Z transforms.

Prerequisite: 231, 3450:223 or permission. Vector analysis. Electrostatics: electrostatic field, scalar potential, dielectrics, boundary value problems. Magnetostatics: magnetic circuits. Maxwell’s equations: Faraday’s law, time-harmonic fields. Introduction to plane waves.

Prerequisite: 353. Theory and application of transmission lines: transient and steady-state waxes. Plane EM waves: propagation, reflection, and refraction. Wave guides open and closed-boundary guiding structures.

Prerequisite: 263, 332. PN junction, diffusion, tunneling, PET and BJT device physics, equivalent circuits for electronic devices, time and frequency analysis, biasing and logic families.

Prerequisites: 343, 360. Power amplification, feedback, oscillators, linear integrated circuits, modulation and demodulation circuits.

Prerequisite: 343. Introduction to servomechanisms and feedback. Modeling and response of feedback control systems. Stability of linear systems. Experiments include analog simulation and basic servomechanism.

Prerequisites: 332. Corequisite: 353. Nonelectrical to electrical energy conversions and vice versa: thermal, chemical, solar. Fundamentals of electromechanical energy conversion. Principle of operation of transformers, commutator machines, induction and synchronous machines.

(May he taken more than once) Prerequisite: permission of department head. Select comprehensive problems, supervised discussions and computation periods.

Students present Senior Design Project proposals, progress reports, and final reports. Professional and societal impact aspects of design are considered.

Prerequisites: senior standing. Corequisite: 400. Design and preparation phase of an engineering project. Required project presentation, approval of a written proposal, and ordering of required parts.

Prerequisite: 401. Implementation and evaluation phases of an engineering design project. Requires a project presentation and report.

Prerequisite: 343. Applications of operational amplifiers including bilinear transfer functions, scaling, cascade design, biquad circuits, lowpass, high pass, bandpass-filters, Butterworth and Chebyshev response, sensitivity, delay filters, frequency transformations, ladder design, simulated element design, leapfrog simulation and switched-capacitors.

Prerequisite: 343. Applications of set theory, discrete and continuous sample spaces: probability, random variables, distribution functions, density functions, stochastic processes, random signals, system function, power spectrum and correlation functions.

Prerequisite: 341, 354. Optical waveguides and integrated components. Optical transmitters and receivers. Optical communications network design.

Prerequisite: 341. Introduction to digital communication theory and systems: coding of analog and digital information: digital modulation techniques. Introduction to information theory.

Prerequisite: 360. Introduction to electromagnetics, electromagnetic compatibility, crosstalk and effects on computers, communication linen and systems.

Prerequisite: 354. Theory of EM radiation. Wire antennas, arrays, receiving antennas, reciprocity. Integral equations for induced currents, self and mutual impedances. Equivalence principle, radiation from aperture antennas.

Prerequisite: 354. Dynamic fields, Maxwell's equation and wave equations. Field analysis of mace guides, microwave components, techniques and systems.

Prerequisite: 549. Theory and analysis of wireless communication systems, wireless propagation, multiple access, modulation, demodulation, multipath channel characterization, diversity, cellular, and PCS services and standards.

Prerequisite: 360, 341, 354 or 451. Lightwave engineering, photonic principles and optical electronic device technology.

Prerequisite: 263. Digital design with programmable devices. PLD and FPGA architectures. Logic design and technology mapping tools.

Prerequisites: 3460:209 or 4450:208. Microprocessor structure, Bus Interface. Digital controller devices and their relationship to both the microcomputer and physical environment.

Prerequisite: 371. Sampled-data control system analysis and design. Discrete-time representation of sampled-data systems. Cascade, feedforward and state-variable compensation techniques. Digital computer implementation.

Prerequisite: 381. Introduction to electricity utility load flow, faulty analysis, stability, surge protec­tion and relaying.

Prerequisite: 332. Steady-state analysis and design of power electronic converters: AC/DC converters (rectifiers), DC/DC converters, DC/AC PWM and resonant converters, AC/AC converters and cycloconverters.

Prerequisite: 483/583 or equivalent. Experiments on different types of power electronic converters: AC/DC, DC/DC, DC/AC, and AC/AC. Design project to include design, simulation, building, and test­ing of a power electronic circuit.

Prerequisite: 381. Application of electric machines, choice of motor for particular drive. Application of power semiconductor circuits in electric machinery.

(May be repeated for a total of six credits) Prerequisite: senior standing in Honors Program. Individual creative project or design relevant to electrical engineering, supervised by faculty member of the department.

(May be taken more than once) Prerequisite: permission of department head. Special topics in electrical engineering.