53 courses with the subject ELN, each shown exactly as we captured it from the college's catalog, with every element we hold. Where the wording looks broken, that is our reading of the catalog, not the college's text.
for ECE Lec. 3./Credit 3. Fundamentals of high-level programming languages (e.g. Python, C++, etc), complexity and efficiency analysis, numerical precision and representations, and applications to solving electrical and computer engineering problems.
Introduction of the fundamentals of computer architecture and organization, including CPU, memory, registers, arithmetic unit, control unit, and input/ output components. The course will also include the introduction to hardware descriptive languages. Prerequisite: EGR 213, ELN 101.
Lec. 3./Credit 3. Application-based multivariable analysis covering topics in linear algebra (vector and matrix operations, eigenvalues/eigenvectors, matrix exponentials, etc.), vector calculus, linear vector differential equations, discrete linear systems and vector difference equations. tor; Co-requisite: EGR 208.
Ohm’s law, Kirchhoff’s voltage and current laws, nodal analysis, mesh analysis, Thevenin’s theorem, Norton’s theorems, power, capacitors, induc- tors, transient analysis of RL and RC circuits and magnetic circuits. Prerequi- sites: PHY 204, MAT 260. Corequisite: ELN 308.
Basic principles of electric measurements, use of test instruments and labora- tory techniques, Ohm’s law, Kirchhoff’s law, Network Theorem and introduc- tion to capacitance and inductance. Prerequisite: PHY 204. Corequisite: ELN 309.
Phasors, steady-state AC circuit analysis, operational amplifier AC circuits, AC power analysis, transformers frequency response, resonance. Prerequisites: EGR 218 and EGR 208. Corequisite: ELN 310.
Semiconductor diodes, diode applications, zener diodes, bipolar junction transistor, DC biasing, FET, FET biasing, transistor models, small-signal analysis of BJT and FET. Prerequisite: EGR 218 (or ELN 300). Corequisite: ELN 311.
Multistage RC, direct and transformer coupled amplifiers, large signal ampli- fiers, operational amplifiers, oscillator circuits, linear/digital ICS, integrated circuits, SCR and other semiconductor devices. Prerequisite: ELN 303.
Review of vector analysis, electric field intensity, Gauss’s law of divergence, electric potential, conductors, dielectrics and capacitors, steady-state, magnetic field, magnetic materials and inductance, time-varying fields, and Maxwell’s Equations and introduction to uniform plane wave and transmis- sion lines. Prerequisite: ELN 302, MAT 260 , MAT 251. Co-requisite: ELN313.
ELN Technical Elective . ........................................................... - 4* Total 17 17 Senior Year Semester 1st 2nd
Laboratory experiments consistent with ELN 300. Corequisite: ELN 300.
Application-based multivariable analysis covering topics in linear algebra (vector and matrix operations, eigenvalues/eigenvectors, matrix exponentials, etc.), vector calculus, linear vector differential equations, discrete linear systems and vector difference equations. tor; Co-requisite: EGR 208. 300 Course Descriptions – Main Campus
ELN Technical Elective . ........................................................... 3 -
Laboratory experiments consistent with ELN 303. Prerequisite: EGR 220.
Laboratory experiments consistent with ELN 304. Corequisite: ELN 304.
Total 17 17 Senior Year Semester 1st 2nd
Systems Security Lec. 3./Credit 3. ar This course surveys topics in cyber-physical systems security. The course covers security challenges at the physical system level, tools and techniques used by hackers, and approaches used to defend networks and embedded systems. Prerequisite: EGR 213 and ELN 101
This course reviews the fundamental principles of computer and network security by studying attacks on computer systems, network, and the internet. Course Descriptions – Main Campus 303
Review of Boolean Algebra and Karnaugh maps, arithmetic logic units, multiplexors, demultiplexers, encoders, decoders, program- mable logic devices, latches, flip-flops, registers, counters and sequence recognizers. Prerequisite: EGR 213. Corequisite: ELN 431.
Crystal structure, carrier transport, recombination and generation, continuity equation, pn junction, bipolar devices, JFET, MOSFET, crystal growth and epitaxy, lithography and etching, diffusion and ion implantation, integrated devices, photovoltaic cells and environmental stress on devices. Prerequisite: ELN 303.
Control system design process, mathematical modeling, block diagrams, state variable models, feedback control system characteristics, performance criteria, stability, root locus, frequency response methods, design of feedback control systems, robustness, introduction to digital control. Prerequisite: ELN 307. Co-requisite: ELN433.
ELN Technical Elective . . . . . . . . . . . . . . . . . . . . . . 3
Fundamentals of electromechanical energy conversion, transform- ers, DC generators, DC motors, polyphase AC generators, induction motors, synchronous motors, fractional horsepower motors and transient analysis of electric machines. Prerequisite: ELN 302, ELN 310. Corequisite: ELN 435.
Review of Fourier series and Fourier transforms, signals and linear systems, amplitude modulation (AM) system, frequency modula- tion (FM) system, probability and random processes, pulse modula- tion systems. Prerequisites: ELN 307, MAT 305.
Additional engineering design process, project planning and implementation, library search and technical research of design projects. Software verification of design projects. Group design projects are presented, approved and super- vised by course instructors or other electrical engineering faculty. Student will present his/ her project technical paper in a pre-arranged seminar.
Technical Elective .................................................................... 3 -
Technical Elective .................................................................... 3 - HUM Humanities Elective ....................................................... - 3
Total 14 14 TOTAL CREDITS FOR GRADUATION 129 Technical electives are selected from 300, or higher, number courses in EGR or ELN with department permission. One course must be selected from EGR 303 or 307, ELN 415 or 417; or mathematics, with at least two courses selected from computer/electrical engineering. * EGR 315 is a substitute for economics class ECO 201/202 Hampton University 2018-2020
Digital data transmission, multiple access techniques, communication channel models, coding techniques for communication channels and system design consideration. Prerequisite: ELN 307.
School of Engineering and Technology 75
Electronics Laboratory Lab 3./Credit 1. Laboratory experiments consistent with ELN 404. Corequisite: ELN 404.
ELN Technical Elective . . . . . . . . . . . . . . . . . . . . . . - ELN Technical Elective . . . . . . . . . . . . . . . . . . . . . . -
ELN Technical Elective . ........................................................... 3 3
Laboratory experiments consistent with ELN 411. Corequisite: ELN 411.
Design II Laboratory Lab 3./Credit 1. Implementation of the design projects from ELN 413. Design performance judged by a faculty panel. Corequisite: ELN 413.
Lec. 3./Credit 3. Assembly language programming, microprocessor arithmetic, microprocessor architecture and operation, buses and system con- cepts. Prerequisite: ELN 304 and ELN 403. Course Descriptions – Main Campus 301
2nd EGR 204 Engineering Ethics and Safety . . . . . . . . . . . - 3 3 TOTAL 12 12 3 TOTAL CREDITS FOR GRADUATION 120 - - DEPARTMENT OF MECHANICAL 3 ENGINEERING 3 Students who earn a Bachelor of Science degree in 12 Mechanical Engineering will be involved in a variety of 120 mechanical-related problems in their careers. To ensure the necessary breath of knowledge, the mechanical engineering curricula includes basic (core) engineering courses in fluid dynamics, mechanics, and thermodyana- mics. The burgeoning field of AI and Machine Learning will School of Engineering, Architecture and Aviation 85
Measurement Techniques Lec. 3./Credit 3. An introduction to measurement science and techniques, application to electrical circuits, applications to systems with transducers, application to analog and digital systems, and applications involving microprocessors and personal computers. Prerequisite: ELN 403, ELN 431, ELN 460.
Sampling processes and theorems, z-transform, modified transforms, transfer functions, stability criteria, analysis in frequency and time domains, discrete state model of systems containing digital computers, and experimental exercises in controlling dynamic processes. Prerequisite: ELN 408.
Systems approach to manufacturing, tools and concepts needed to integrate the computer in the manufacturing process such as numerical control and programmable controllers, flexible manufacturing systems, group technology, process planning and control, and modeling and simulation of factory opera- tions. Prerequisite: ELN 409.
Study of semiconductor devices, photonics devices, principles of device physics, and applications in integrated electronics and photonics systems.
Lec. 3./Credit 3. Electromagnetic basis of laser optics, propagation and diffraction of laser beams, Gaussian beams, basic laser spectroscopy, gas laser systems, solid-state laser systems, semiconductor laser sys- tems, and some laser system applications. Prerequisite: ELN 306.
Types of antenna systems, radiation characteristics, waveguides, imped- ance loading, atmospheric propagation, and electromagnetic considerations. Hampton University 2026-2028
ELN Technical Elective . . . . . . . . . . . . . . . . . . . . . . 3
Additional engineering design process, project planning and implementation, library search and technical research of design projects. Software verifica- tion of design projects. Group design projects are presented, approved and supervised by course instructors or other electrical/computer engineering faculty. Student will present his/ her project technical paper in a prearranged seminar: Prerequisite: ELN 482.
Design Lab I Lab 3./Credit 1. Implementation of the design projects from ELN 482. Design performance judged by a faculty panel. Co-requisite: ELN 482.
Design Lab II Lab 3./Credit 1. Implementation of the design projects from ELN 483. Design performance judged by faculty panel. Co-requisite: ELN 483. ELN (Electrical Engineering –
SOC Social Sciences Elective. ................................................. - 3
General concepts of digital signal processing, continuous-time system analysis, Fourier analysis, the sampling theorm, discrete- time system analysis and realization, z-transforms, finite impulse response (FIR) filters, infinite impulse response (IIR) filters, fast Fou- rier transforms (FFT), applications of the discrete Fourier transform.
Microcomputer architecture, bus inter connections, memories, serial inter- facing, parallel interfacing, magnetic recording techniques, CRT-controller design and software development. Prerequisite: ELN 515. Corequisite: ELN 531.
Lec. 3./Credit 3. Study of semiconductor devices, photonic devices; device physics as well as application in integrated electronic design technology.
Lec. 3./Credit 3. Facility in the use of design simulations in CMOS design and verifi- cation using software packages such as SUPREME, SPICE, SEDAN PICES, ISED, etc. Prerequisites: ELN 304, 403, 431. Hampton University 2018-2020
Laboratory experiments or projects, testing and design (hardware and/or software). Consistent with ELN 523. Corequisite: ELN 523.
Source: Hampton University's catalog, linked per course · table learning_unit · CourseShelf publish 59
