Direct Current Circuits Laboratory (1) Laboratory activities on electronic circuits, Ohm's law, voltage, current, resistance, and basic test instruments. Two hours of laboratory per week. Corequisite: ELET 131.

Laboratory experiments on the application, analysis, and measurement of semiconductor devices in basic amplifier circuits.

Alternating Current Circuits Laboratory (1) Practical experiences in the measurement and analysis of alternating current with voltage, impedance, and phasor experiments. Two hours of laboratory per week. Corequisite: ELET 133.

Laboratory experiments on the application, analysis, and measurement of semiconductor devices in basic amplifier circuits.

Introduction to Structured Programming with C++ (3) Structured methods of developing complex technology computer programs using a high level programming in a networked environment. Use of the C++ language as a problem-solving tool is emphasized. Two hours of lecture and two hours of laboratory per week.

Direct Current Circuits (3) Direct current topics covered: current, voltage, resistance, power, energy, series and parallel circuits, combination circuits, Ohm's law, Kirchhoff's rules, inductance, capacitance, and magnetism. Three hours of lecture per week Corequisite: ELET 111.

Study of the operation and characteristics of semiconductor devices such as bipolar-junction transistors, diodes, field-effect transistors, and other devices

Continuation of ELET 131 with studies of alternating current circuits, impedance concepts, network theorems, transformers, passive filters, and response curves.

Study of the operation and characteristics of semiconductor devices such as bipolar-junction transistors, diodes, field-effect transistors, and other devices.

Application, design, and evaluate operational amplifiers with feedback configurations, linear and nonlinear circuitry, oscillators, and active filters.

Exercises on logic circuits, combinational and sequential logic devices, and flip- flops.

Exercises on logic circuits, combinational and sequential logic devices, and flip- flops. Experiments in digital hardware design.

Study of polyphase circuits, transformers, DC machines, induction machines, and small AC motors.

Design and evaluating of the operational amplifier circuitry with feedback, linear and nonlinear circuitry, oscillators, and active filters.

Introduction to digital technology, Boolean algebra, number systems, codes, truth tables, combinational and sequential logic, and logic devices. Study of digital hardware with emphasis on digital circuits such as memory circuits, A/D and D/A converters.

Introduction to digital technology, Boolean algebra, number systems, codes, truth tables, combinational and sequential logic, and logic devices.

Study of digital hardware with emphasis on digital circuits such as memory circuits, A/D and D/A converters.

Experiments on oscillators, transmitters, receivers, filters, and transmission lines as related to modern electronic communications techniques.

Laboratory experiments on final control elements and closed loop control systems.

Experiments to explore the relationship between hardware and software in microprocessors, input/output operations, and assembly language techniques.

Study of the design and application of digital and linear integrated circuits.

Digital Signal Processing

Study of basic communications systems with emphasis on the applications of Fourier series, Fourier transforms, modulation techniques, and transmission lines.

Study of feedback control systems, Laplace transforms, and control modes and methods of implementation by analog and digital means.

Introduction to microprocessor hardware and software, including: microprocessor principles, organization, machine language programming, and input/output functions.

Study of programming microprocessors and microcomputers using assembly language techniques with emphasis on writing industrial application programs for engineering technology.

Experiments on computer control systems with emphasis on the practical aspects of control principles.

Experiments and written reports where students construct, test, and debug hardware and software components for computer networks.

Experiments on interfacing microprocessors with emphasis on input/output operations, bus systems, peripheral hardware and software applications.

Study of object oriented programming in C++ on workstations with Microsoft C/C++.

Analysis and design of control systems with emphasis on control software, programmable controllers, and data acquisitions.

Study of interfacing with topics on bus timing, input/output timing, serial and parallel input/output methods, subroutine and control signals.

Study of networking components and techniques for a microcomputer network, including the study of standards, protocols, LANs, and WANs.

Opportunity for seniors to engage in a team project in applied electronics where integration of knowledge obtained throughout the program is possible.

Senior Comprehensive examinations for graduating seniors majoring in Electronics Engineering Technology. Students who do not score "Satisfactory" may be required to register in ELET 442 in order to complete the requirements for the course.

Special Topics (3) Direct study, independent study or internship designed to give the student an opportunity to study a particular aspect of the discipline in some depth. Consent of the faculty chair required.