200

This course introduces students to the processes, tools and techniques of engineering design, including the use of Computer-Aided Design (CAD) tools in various stages of the engineering design process. Major design phases are covered, including requirements analysis, system design of functional and physical architectures, and design verification. Students are introduced to tools for creating 3D models and parts used in project prototyping. CAD graphics modeling topics are covered, including orthographic projection, pictorials, dimensioning, sectioning, tolerances, and assembly drawings.

This course provides a modern introduction to logic design and technology .It covers a survey of common combinational circuit components, sequential circuit design and timing analysis and use of modern HDL CAD Tools for digital systems design, synthesis, and simulation. Topics include representation and manipulation of information, combinational and sequential logic fundamentals, digital logic technology, combinational and sequential functions, finite state machines, hardware descriptive language, programmable logic devices, memories, and register transfer logic (RTL) design.

This course provides an in-depth coverage of RLC circuit analysis techniques such as nodal, mesh, superposition, Thevenin and Norton theorems. Other topics include op-amp, RC transient, 2nd order circuit analysis, phasors, transfer functions, bode plots as well as operations of diodes and transistors.

This course focuses on the design and analysis of analog and digital circuits, particularly AC circuits, resonant circuits, two-port networks, filters and polyphase circuits. Other topics include pole-zero analysis, mutual inductance and circuit analysis using Laplace and Fourier techniques.

This course provides an introduction and methodology of linear dynamic systems in relation to discrete- and continuous-time signals. Topics include representation of systems and signals; Fourier, Laplace, and Z-transforms; and convolution. Linear systems are described in terms of inputs and outputs and expressed as transfer functions. Systems are analyzed in the time domain and frequency domain. Filtering and processing of signals will be discussed as application of the theory. System response will be modeled and visualized using simulation software.

This course covers the material properties of semiconductors, the physics of semiconductor operation and the operating principles of diodes, bipolar and field-effect transistors. Circuit analysis techniques are applied and industry-standard tools and applications are used to model and understand the characteristics, operation, performance and limitations of fundamental electronic devices. Topics include semiconductor energy bands, formation of n and p-type carriers, p-n junctions, I-V characteristics, BJT and FET operating modes and switching effects.

This course examines the principles of electromagnetic phenomena and their effects and applications. Topics include Maxwell’s equations, wave equations, propagation and wave guides. Applications to transmission lines, wireless communication systems, antennae design, energy storage and electromagnetic effects on modern electronics, optical and photonic devices are studied.