ELEC 3030. RF Systems Lab ![PDF Icon](https://eng.auburn.edu/images/icons/pdf-icon.gif)
(1) Lab. 3. Pr., ELEC 2210.
Assembly, testing and analysis of a radio. Integration of basic concepts of electronics, electromagnetics, and signals and systems.
ELEC 3040. Electrical System Design Lab ![PDF Icon](https://eng.auburn.edu/images/icons/pdf-icon.gif)
(1) Lab. 3. Pr., ELEC 2220, ELEC 3030. Coreq., ELEC 3500.
Exploration and integration of electrical engineering concepts and professional practice issues through the design of a contemporary engineering system.
ELEC 3050. Embedded System Design Lab ![PDF Icon](https://eng.auburn.edu/images/icons/pdf-icon.gif)
(1) Lab. 3. Pr., ELEC 2210 and ELEC 2220.
Integration of hardware and software in the design of an embedded computing system; development of professional skills.
ELEC 3060. Wireless Design Lab ![PDF Icon](https://eng.auburn.edu/images/icons/pdf-icon.gif)
(1) Lab. 3. Pr., ELEC 3400.
Laboratory experiments geared towards understanding the implementation and testing of components used in wireless communication systems.
ELEC 3310. Fundamentals of Applied Electromagnetics ![PDF Icon](https://eng.auburn.edu/images/icons/pdf-icon.gif)
(3) Lec. 3. Pr., MATH 2660, ELEC 2110.
Transmission lines are studied as a bridge to understanding electromagnetic theory. Then, electric and magnetic fields are studied using vector algebra, culminating in Maxwell's equations.
ELEC 3320. Electromagnetics for Wireless Communications ![PDF Icon](https://eng.auburn.edu/images/icons/pdf-icon.gif)
(3) Lec. 3. Pr., ELEC 3310.
Maxwell's equations are used in the study of plane waves, guided waves, fiberoptics, electromagnetic compatibility and interference, antennas and radiation, and satellite communication systems.
ELEC 3400. Communication Systems ![PDF Icon](https://eng.auburn.edu/images/icons/pdf-icon.gif)
(3) Lec. 3. Pr., ELEC 3800.
Pulse code modulation, line coding, information rate, equalization, amplitude modulation, angle modulation, noise in communication systems.
ELEC 3500. Control Systems ![PDF Icon](https://eng.auburn.edu/images/icons/pdf-icon.gif)
(3) Lec. 3. Pr., ELEC 2120.
Analog and Discrete Transfer function models, system response specifications, control system characteristics, root locus analysis and design, frequency response analysis and design.
ELEC 3600. Electric Power Engineering ![PDF Icon](https://eng.auburn.edu/images/icons/pdf-icon.gif)
(3) Lec. 3. Pr., ELEC 2110.
Introduction to the basic concepts in electric power engineering.
ELEC 3700. Analog Electronics ![PDF Icon](https://eng.auburn.edu/images/icons/pdf-icon.gif)
(3) Lec. 3. Pr., ELEC 2210 and ELEC 2120.
Amplifier modeling. Design and analysis of single-stage and multistage transistor amplifiers. Biasing for integrated circuit design. Operational amplifier circuits.
ELEC 3800. Random Signals & Systems ![PDF Icon](https://eng.auburn.edu/images/icons/pdf-icon.gif)
(3) Lec. 3. Pr., ELEC 2120.
Introduction to probability, random variables, random processes and basic statistics; analysis of random signals and noise.
ELEC 3810. Fundamentals of Electrical Engineering ![PDF Icon](https://eng.auburn.edu/images/icons/pdf-icon.gif)
(3) Lec. 3. Coreq., MATH 2650.
Electrical circuit analysis; electronic devices, digital systems, amplifier concepts, power devices and systems. (Not open to Electrical Engineering majors.)