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Course Descriptions

 

Department Subject(s)
Aerospace & Mechanical Engineering AENG--Aerospace Engineering
ESCI--Engineering Sciences
MENG--Mechanical Engineering
Aviation Science AMGT--Aviation Management
ASCI--Aviation Science
FSCI--Flight Science
PP--Professional Piloting
Biomedical Engineering BME--Biomedical Engineering
Electrical & Computer Engineering EENG--Electrical Engineering
Physics PHYS--Physics

Aerospace Engineering

AENG200 Introduction to Aeronautics and Astronautics (3)
The nature of aerodynamic forces; incompressible and compressible fluid flow; lift and drag; introduction to performance, stability and control; propulsion; structures; rocket performance and orbits. The design process.
Prerequisite: MATH142 and PHYS161.
AENG201 Engineering Shop Practice (1)
This course conditions the students in the shop environment and the use of common hand and machine tools found in a typical fabrication shop. The students will be prepared for the design-build class projects. Emphasis is placed on using the right processes and right tools for the job. Safety in a fabrication shop is introduced and practiced.
AENG275 Co-op with Industry (0)
A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field.This course is used for the first experiential learning session. Grading system is determined by department offering course. Offered every semester.
Prerequisite: Sophomore standing.
AENG297 Co-op in Aerospace Engineering (0)
Aerospace Engineering (AE) - Lower Division Course An optional supervised work experience with an agency, firm or organization which employs engineers. The student receives a Pass or No Pass grade.
AENG302 Structure and Design (4)
Material properties; Statically indeterminate structures; weld and rivet analysis; working stresses, torsion of non circular sections. Torsion of thin-walled structures, unsymmetrical bending. Spring Semester.
Prerequisite: ESCI200 or ESCI210 and ESCI310 ESCI311.
AENG310 Gas Dynamics (3)
One-dimensional gas dynamics; normal and oblique shock waves; Prandtl-Meyer flows; Rayleigh and Fanno-line flow; method of characteristics. Spring semester.
Prerequisite: ESCI220 and ESCI322 Corequisite: MATH370
AENG311 Aerodynamics (3)
Aerospace Engineering (AE) - Upper Division Course
Circulation and vorticity; irrotational flows and potential flow theory; Kutta-Joukowski theorem, subsonic thin airfoil and finite wing theory; subsonic compressible flow; supersonic thin airfoil theory; slender body theory, Newtonian impact theory. Spring semester.
AENG422 Flight Simulation (3)
Overview of various types of simulators; introduction to major software and hardware components of state-of-the-art simulators; development of computer models of aircraft systems and performance characteristics and interfacing the models with each other to achieve high-fidelity, real time aircraft simulation. Use of reconfigurable flight simulator, whenever possible.
Prerequisite: AENG420.
AENG423 Flight Testing (3)
Theory and practice of obtaining flight-test data on vehicle drag polar; performance and stability of aircraft from actual flight tests; students plan the flight, fly the mission, record, reduce data, evaluate and compare with theory, engineering simulator, FAR, Navy, Air Force manuals, owners manual, etc. Permission of Instructor.
Prerequisite: AENG320.
AENG424 Helicopter Theory and Performance (3)
Airfoil theory as applied to propellers and rotors. Momentum and blade element theories, rotor dynamics during climb, hover, descent and autorotation; preliminary design techniques and rotor blade dynamics.
Prerequisite: AENG320.
AENG425 V/STOL Vehicles (3)
Performance analysis of V/STOL vehicles. Lifting rotor and propeller analysis. Transition problems, stability and control analysis.
Prerequisite: AENG320.
AENG430 Aerospace Structures II (3)
Joints and fittings; bending, shear, and torsion of open and closed, thin-walled beams followed by applications to aircraft structures; energy methods; introduction to finite element analysis, elementary aeroelasticity. The course includes a design laboratory wherein students complete a variety of design projects.
Prerequisite: AENG330.
AENG432 Aeroelasticity (3)
AENG433 Composite Materials for Structure and Design (3)
Aerodynamic loads on a flexible surface. General formulation of aeroelastic problems. Control effectiveness and reversal. Wing divergence. Two - and three dimensional flutter theory. Empennage vibration and flutter analysis. Flutter prevention. Testing techniques. Prerequisite: AENG430 and ESCI330.
AENG441 Orbital Mechanics(3)
Orbital dynamics of space vehicles with emphasis on engineering design and application to specific mission analysis. Orbit determination and maneuvers; interplanetary transfer and trajectory optimization; proximity operations; perturbation effects.
Prerequisite: AENG440.
AENG442 Introduction to Space Dynamics (3)
Motion in moving reference frames; Euler?s equations; attitude dynamics; motion of a rigid spacecraft; attitude control systems and maneuvers; spacecraft and attitude feedback control; attitude stabilization; attitude determination.
Prerequisite: AENG440 and ESCI430.
AENG450 Flight Vehicle Analysis and Design I (3)
Application of aerospace engineering to the design methodology of a flight vehicle. Fall Semester.
Prerequisite: AENG320.
AENG451 Flight Vehicle Analysis and Design II (3)
Application of aerospace engineering to the detail design of a flight vehicle, model design, fabrication testing, evaluation and analysis. Spring Semester.
Prerequisite: AENG420 and AENG450.
AENG452 Hypersonic Propulsion and Design (3)
Application of aerodynamic, propulsion, and thermodynamics to the design of an integrated airframe/propulsion system from a first principles approach. Identification of converged design space in which a possible solution can exist is inherent in approach.
Prerequisite: AENG410.
AENG453 Introduction to Computational Fluid Dynamics (3)
This course is designed to establish the fundamentals of computational fluid dynamic schemes and methods to solve the PDEs. The students will learn how various schemes are applied to proposed to model equations, and analyze the resulting solutions.
Prerequisites: ESCI322, CSCI125
AENG475 Co-op with Industry (0)
A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the third experiential learning session. Grading system is determined by department offering course.
Prerequisites: AENG375. Offered every semester.
AENG476 Internship with Industry (0-3)
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. Grading system is determined by department offering course. Offered every semester.
Prerequisites: AENG376 or Senior standing.
AENG493 Special Lectures in Aerospace Engineering (3)
Selected topics of special interest to aerospace engineering majors.
AENG498 Special Topics in Aerospace Engineering (3)
Credit to be arranged. Independent study on an aerospace engineering topic

Aerospace Engineering Technology

AETP104 Federal Aviation Regulations (3)
Selected Federal Aviation Regulations covered; controls exercised by Federal Aviation Administration (FAA) over the production, operation and maintenance of aircraft; mechanics of compliance with regulations.
AETP201 Concepts in Aerodynamics (3)
Aircraft types, theory of flight, aerodynamics of the airplane, aircraft performance, effects of atmospheric conditions on performance, theory of aircraft stability and control, effects of flight loads on aircraft structure.
AETP219 Airframe Analysis (3)
This course included the basic theory, construction, and design principles of aircraft components and systems, maintenance, inspection and servicing.
AETP220 Airframe Analysis Laboratory (1)
This course includes laboratory projects to reinforce and supplement the lecture material in AETP219.
Prerequisite: Concurrent enrollment with AETP219.
AETP221 Powerplant Analysis (3)
This course includes the basic theory, construction, and design principles of reciprocating and gas turbine engines, and propeller components and systems, maintenance, inspection, and servicing.
AETP222 Powerplant Analysis Laboratory (1)
This course includes laboratory projects to reinforce and supplement the lecture material in AETP221.
Prerequisite: Concurrent enrollment with AETP221.
AETP 275 Co-op with Industry
Sophomore standing is required for students to register for this zero credit hour course.. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the first experiential learning session.
AETP301 Advanced Aircraft Systems (3)
This course includes the theory, analysis, maintenance factors and procedures of hydraulic and pneumatic aircraft power systems; ice and rain protection systems; cabin atmosphere systems; and fire protection systems. Included are topics involving the operation, maintenance, servicing, and inspection of aircraft reciprocating and gas turbine engines.
Prerequisite: AETP219, AETP221
AETP302 Advanced Aircraft Systems Laboratory (1)
This course includes laboratory projects to reinforce and supplement the lecture material in AETP301.
Prerequisite: Concurrent enrollment in AETP301.
AETP 375 Co-op with Industry
Junior standing is required for students to register for this zero credit hour course.. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the second experiential learning session.
AETP 376 Internship with Industry
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. This course is used for the first experiential learning session. Grading system is determined by department offering course.
Prerequisite: Junior standing.
AETP401 Design and Repair of Aircraft Structures (3)
This course presents analysis techniques for the evaluation and disposition of aircraft structural discrepancies. The emphasis of the course is on the design of effective repairs and returning damaged structure to design equivalent stiffness and strength.
Prerequisite: ET-P301, ET-P331, ET-P341
AETP 475 Co-op with Industry
Senior standing is required for students to register for this zero credit hour course.. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the third experiential learning session.
AETP 476 Internship with Industry
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. This course is used for the first experiential learning session. Grading system is determined by department offering course.
Prerequisite: Senior standing.
AETP490 Senior Design Project I (2)
The first course of a two-course sequence intended to demonstrate the student?s mastery of prior coursework and serve as a culminating experience for the student. This group project includes identification of a project of interest to the group members and the associated research required to determine the feasibility of the project. A formal report and presentation to the department faculty and students highlights the semester activities.
Prerequisite: Senior standing.
AETP491 Senior Design Project II (3)
The second course of a two-course sequence intended to demonstrate the student?s mastery of prior coursework and serves as a culminating experience for the student. This group project provides the student with the opportunity to plan, design, execute, evaluate, and implement a project in its entirety based on the proposed design/research objectives as stated in the first course of the sequence. A formal report and presentation to the department faculty and students highlights the semester activities.
Prerequisite: AETP490.
AETP498 Special Topics in Aerospace Technology (1-6)
Independent or lecture based study in an appropriate engineering technology subject area under the direction of an ET faculty member.
Pre-Requisites: Senior Status

Aviation Management

AMGT275 Co-op with Industry (0)
A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the first experiential learning session. Grading system is determined by department offering course.
Prerequisite: Sophomore standing.
AMGT360 Airport Management (3)
This course is designed to acquaint the student with the basic concept of airport planning and management. A comprehensive survey of a typical community with an eye toward present and future business potential is made. This includes a study of the socioeconomic characteristics, and the political and governmental influences, followed by various stages and types of airport construction.
AMGT375 Co-op with Industry (0)
A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the second experiential learning session. Grading system is determined by department offering course.
Prerequisite: AMGT275.
AMGT376 Internship with Industry (0-3)
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. This course is used for the first experiential learning session. Grading system is determined by department. Offered every semester.
Prerequisite: Junior standing.
AMGT405 Aviation Law (3)
Basic principles of law which impinge on the use of the air; history of air law; principles and rules governing use of air space by aircraft; multilateral conventions pertaining to the use of air space among nations; aviation security procedures; product liability.
Prerequisite: MGT300.
AMGT440 Economics of Air Transportation (3)
A detailed study of present and future air carrier operations including organization, operating costs and revenues, aircraft utilization and scheduled operations, equipment analysis, aircraft performance in relation to efficient and economic operation, passenger service and cargo operations as they are integrated with the overall economics of efficient air operation.
Prerequisite: ECON190. Pre or Corequisite AMGT405
AMGT450 Seminar in Air Carrier Management (3)
This course is the capstone experience for the Aviation Management degree and is taken along with an internship with an air carrier. This seminar will provide an opportunity for students to study and present information on important and current air carrier management issues. Topics may include, but not be limited to: History of Air Carriers, Government Regulations, Safety, Leadership Issues, Marketing and Finance.
Prerequisite: AMGT440.
AMGT476 Internship with Industry (0-3)
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. Grading system is determined by department. Offered every semester.
Prerequisite: AMGT376 or senior standing.
AMGT497 Practicum (3)
Designed to encourage breadth of study and understanding of the field of management, emphasizing the practical application of theory. Practicums in aviation-related industries will be used to the maximum extent possible.
Prerequisite: Senior standing and permission of practicum coordinator.
AMGT498 Research Problems (1-3)
No formal class session but weekly appointment with course advisor is required. This course requires the practical use of the methods of organizing theoretical and experimental research, formulation of problems, project planning, research proposal preparation, and submission of a final research report.
Prerequisite: Senior standing and permission of the Department Chair.

Aviation Science

ASCI101 Professional Orientation (3)
This course will provide an orientation to the University system, the teaching philosophy of the Department, and opportunities for professional development in specific career tracks such as professional pilot, system safety, and quality management. Opportunities such as internships, scholarships, research assistantships, and general networking and social events on campus, etc. will be discussed.
ASCI275 Co-op with Industry (0)
A full-time supervised work experience with an agency, firm, or organization that employs persons in this degree field. This course is used for the first experiential learning session. Grading system is determined by department offering course.
Prerequisite: Sophomore standing.
ASCI298 Special Topics in Aviation Science (credit to be arranged)
Prerequisite: Approval of the Department Chair.
ASCI320 Fundamentals of Air Traffic Control (3)
A study of the history and function of the ATC system. Theory of ATC taught in the classroom will be reinforced by 10 hours of "hands-on" instruction on the ATC radar simulators.
Prerequisite: PP220.
ASCI325 Applied Professional Ethics (3)
This course will provide a review of ethical theory as it relates to ethical decision-making. The student will examine the question of professionalism and the moral issues that relate to the work environment. The student will make practical applications to his/her specific career interests through case study development.
ASCI350 Air Carrier Systems-Jet (3)
This course includes an introduction to a typical jet aircraft currently used in commercial aviation. The systems will be covered from a pilot?s perspective. Normal and emergency operating procedures will be covered as presented by the aircraft flight manual.
Prerequisite: ASCI300.
ASCI365 Applied Statistics (3)
In this course, the students will apply fundamental statistical analysis techniques to interpret data from their professional career interests. Discussion topics will include data collection, set-up of statistical analysis software, statistical sampling, parametric and non-parametric data analysis, report writing, and interpretation of previously published statistical reports.
Prerequisite: MATH141.
ASCI375 Co-op with Industry (0)
A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the second experiential learning session. Grading system is determined by department offering course.
Prerequisite: ASCI275.
ASCI376 Internship (3)
Seniors in the Department of Aviation Science are afforded the opportunity of working in a commercial airline or a corporate flight department environment for a semester. Students compete for limited spaces.
Prerequisite: Senior standing and permission of the Department Chair.
ASCI385 Humanitarian Action (3)
This course introduces the student to the field of humanitarian action and related issues by examining the logic and history of humanitarian work, the similarities and differences between faith-based aid agencies, governmental and non-governmental organizations, practical aspects of aviation located within the broader context of humanitarian aid, the student?s personal belief systems and motivations for humanitarian work in light of the Jesuit character of the university mission. As service is an integral component of humanitarian work, students will engage in community service in the local area, reflect upon their experience, and draw from it to inform their study of humanitarian action.
Prerequisite: THEO100 or instructor approval.
ASCI397 Internship (3)
Seniors in the Department of Aviation Science are afforded the opportunity of working in a commercial airline or a corporate flight department environment for a semester. Students compete for limited spaces.
Prerequisite: Senior standing and permission of the Department Chair.
ASCI405 Human Factors (3)
This course will introduce the student to the concepts of human factors as applied to Flight, System Safety, and Quality Management. Particular emphasis will be placed on improving safety, judgment, and decision-making strategies. The student will make direct applications to the work environment.
Prerequisite: PSY101.
ASCI410 Air Carrier Operations (3)
This course includes the study of the operations of a representative air carrier in commercial aviation. All aspects of the operation important to the flight crew will be covered, including environmental, physiological, regulatory, and performance factors.
Prerequisite: ASCI350.
ASCI420 Crew Resource Management (3)
This course includes an expansion of Crew Resource Management principles emphasizing human factors theory. Leadership styles along with other elements of a multicrew environment are the foundation subject areas. A practical application of the principles involved may be offered in a small group setting.
Prerequisite: ASCI150, ASCI350, PSY101.
ASCI430 Flight Guidance Systems (3)
This course will examine the principles, procedures, and regulations regarding the use of integrated flight and navigation systems for use in domestic, international, and oceanic flight.
Prerequisite: ASCI350. Corequisite: ASCI410.
ASCI435 Team Resource Management (3)
This course will prepare students to build high-performance teams in critical sectors such as flight, maintenance, safety, and quality. Concepts of team building and technology management under normal as well as emergency conditions will be discussed. Case studies will be used to analyze team performance in a variety of high-consequence sectors.
Prerequisite: PP260, Corequisite: FSCI425
ASCI450 Flight Crew Techniques and Procedures (3)
The student will integrate the operation of advanced aircraft systems, air carrier flight crew techniques, and crew resource management principles through a Line Oriented Flight Training simulator experience.
Prerequisite: ASCI410, ASCI420, ASCI430 and PP351.
ASCI475 Co-op with Industry (0)
A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the third experiential learning session. Grading system is determined by department offering course.
Prerequisite: ASCI375.
ASCI476 Internship with Industry (0-3)
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. Grading system is determined by department offering course.
Prerequisite: ASCI376 or Senior standing.
ASCI491 Senior Project (3)
This course is the culminating experience to integrate the academic knowledge, professional skill, and overall Jesuit Education ideals. The students will pick a specific project related to their career interests and present it to demonstrate their teamwork and communication skills.
Prerequisite: Senior status.

Aircraft Maintenance Management

ATP301 Aircraft Maintenance Management (3)
The study of theory and practical application of aircraft maintenance management. An understanding of the principles of modern aircraft maintenance management, related technical aspects of maintainability, labor management and systems safety.
ATP320 Manufacturing Science (3)
An introduction to materials, assorted manufacturing processes and production systems. A fundamental understanding of material selection in manufacturing, the assorted processes used to manufacture finished goods and production systems used to monitor the entire process.
ATP325 Human Factors/MRM (2)
Human factors and the effects on an Aircraft Maintenance Technician, including on-the-job safety, human errors that compromise public safety, and the overall cost of aircraft maintenance. Case study analysis of aircraft accidents caused by aircraft maintenance technicians.
ATP405 Quality Systems Management (3)
This course is designed to acquaint the student with the concepts of managing for quality. A comprehensive survey of quality management theories and tools is made. This includes data and documentation systems, as well as statistical process control.
ATP429 Capstone in Aircraft Maintenance. Management (3)
Synthesis and integration of the learning experience related to the management of aircraft maintenance and technology to evaluate research with an in-depth investigation of an appropriate

Avionics Engineering Technology

AVNP 275 Co-op with Industry (0)
Sophomore standing is required for students to register for this zero credit hour course. A full-time supervised work experience with an agency, firm or organization that employs persons in the field of avionics. This course is used for the first experiential learning session.
AVNP 353 Advanced Digital Communication Systems (3)
Principles and applications of digital transmission, data communications, microwave systems and satellite communications. The goals are to understand the principles of digital, data, microwave and satellite communication systems and to apply the principles to current applications in Avionics and Engineering Technology.
Prerequisite: Communication Electronics EET-P351.
AVNP 354 Advanced Digital Communication Systems Lab (1)
Laboratory experiments emphasizing the material covered in AVN-P353.
Prerequisites: Communications Electronics Lab EET-P352.
AVNP 355 Electronic Navigation and Surveillance Systems (3)
Principles, applications, and maintenance concepts of electronic navigation and surveillance systems.
Pre-requisites: AVN-P353 Advanced Digital Communications.
AVNP 356 Electronic Navigation and Surveillance Systems Lab (1)
Laboratory experiments emphasizing the material covered in AVN-P355.
Prerequisites: Advanced Communications Systems Laboratory EET-P354.
AVNP 375 Co-op with Industry (0)
Junior standing is required for students to register for this zero credit hour course.. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the second experiential learning session.
AVNP 376 Internship with Industry (0-6)
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. This course is used for the first experiential learning session. Grading system is determined by department offering course.
Prerequisite: Junior standing.
AVNP 391 Avionics Radar (3)
Introduction to radar principles and applications. The technology necessary to understand radar operations. Basic microwave measurements and techniques are introduced. Microwave devices are reviewed. The course covers all functions of a radar system.
Prerequisite: AVNP 353
AVNP 392 Avionics Radar Laboratory (1)
Laboratory experiments to accompany the course material covered in AVNP 391. Laboratories designed to provide integral instruction in the operation and maintenance of radar equipment and systems.
Prerequisite: AVNP 354
AVNP 421 Global Positioning Systems: Theory and Applications
This course defines the major system elements of GPS and covers trajectory and atmospheric characteristics which affect performance and coverage. Signal characteristics and coding are related to the performance objectives of the GPS. Interfacing characteristics are presented for some of the major GPS receivers. Laboratory exercises cover interfacing receivers with computers as well as typical navigation displays and lead up to a laboratory project to illustrate a GPS application.
Prerequisites: MT-P254 Engineering Calculus III,PH-P161 Engineering Physics I, and electrical circuit analysis.
AVNP 475 Co-op with Industry
Senior standing is required for students to register for this zero credit hour course.. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the third experiential learning session.
AVNP 476 Internship with Industry
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. This course is used for the first experiential learning session. Grading system is determined by department offering course.
Prerequisite: Senior standing.
AVNP 490 Senior Project I
Principles of avionics engineering technology in practice. A study of unified, methodical approach to engineering technology project development. Project planning, scheduling, prototyping, production and presentation of a project.
Pre-requisite: Senior Status and ET ?P 403
AVNP 491 Senior Project II
Implementation of a design project. Completion of the development of a detailed project in EET under faculty supervision.
Pre-requisite: EET-P 490.
AVNP 498 Special Topics in Avionics Engineering Technology (1-6)
Independent or lecture based study in an appropriate avionics engineering technology subject area under the direction of an ET faculty member.
Pre-Requisites: Senior Status

Biomedical Engineering (BME)

BME 100 Biomedical Engineering Orientation (1)
Introduction to BME Faculty and Students. Discussion of BME-related topics that involve math, chemistry, biology, physics, and engineering.
Prerequisites:  Freshman standing or consent of instructor
BME 101 Biomedical Engineering Introduction (1)
Continuation of BME100. Discussion of BME-related topics that involve math, chemistry, biology, physics, and engineering.
Prerequisites:  Freshman standing or consent of instructor
BME 200 Biomedical Computing (3)
Introduction to computer modeling and analysis in biomedical engineering. Introduction to the MATLAB programming environment, develop algorithms and computer programs that address biomedical engineering problems.
Prerequisites:  CHEM162, BIOL106, PHYS161; Co-requisite: MATH244
BME 275 Co-op with Industry (0)
A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the first experiential learning session. Grading system is determined by department offering course. Offered every semester.
Prerequisite: Sophomore standing.
BME 305 Measurements (3)
A study of various measurement techniques in engineering and statistical analysis of experimental data. Instrumentation concepts including linearity, frequency response, energy transduction, sensor fundamentals, signal-to-noise ratio, data acquisition. Measurement of pressure, flow, motion, force, temperature, electric and magnetic fields. Measurement system design from sensor to recording or display.
Prerequisites:  BME310
BME 310 Signals and Systems (3)
Signal representations, Fourier methods, Laplace transforms, linear systems, transfer functions, system response in time and frequency, feedback, analog and digital processing of signals. Relating signal properties to physical parameters.
Prerequisites:  BME200, EENG201&202, MATH355
BME 320 Mechanics (3)
Topics include analyses of systems at static equilibrium; analyses of the deformation and stress of elastic and plastic materials under various loading modes; and an introduction to viscoelasticity.
Prerequisites: PHYS 161, MATH 143, BIOL 106, CHEM 162
BME 330 Transport Fundamentals (3)
Introductory topics in fluid, heat, and mass transfer including both integral and differential analysis. Develop and utilize Bernoulli's equation, Navier-Stokes relationships, Fourier heat transfer relationships, and Fick's laws. Analysis of problem statements and determination of assumptions for each set of equations is covered.
Prerequisites: BME200, BME320, MATH355, PHYS341
BME 340 Materials Science (3)
Materials Science is a multidisciplinary field requiring knowledge of chemistry, physics, and mechanics. In this “first course” we examine effect of chemistry on molecular structure and physical and mechanical properties of materials, and we examine methods of controlling those properties. Examples from the various engineering disciplines are used.
Prerequisites:  ESCI210, ESCI310; or BME320
BME 375 Co-op with Industry (0)
A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the second experiential learning session. Grading system is determined by department offering course. Offered every semester.
Prerequisite: BME275
BME 376 Internship with Industry (0-3)
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. This course is used for the first experiential learning session. Grading system is determined by department offering course. Offered every semester.
Prerequisite: Junior standing.
BME 395 Design of BME Laboratory Experiments (0-2)
Laboratory to provide an experience in engineering research and design at a level appropriate to the student's background. Students will work on developing their laboratory skills and ability to successfully design and implement a research plan.
Prerequisites:  MATH403 and/or consent of instructor
BME 396 Experimental Design & Analysis (0-2)
Laboratory to provide experience in engineering research design and analysis at a level appropriate to the student's advanced background. Students will assist others in designing laboratory experiments to further develop laboratory skills. Key components are the statistical analysis of the experiment and presentation of the project.
Prerequisites:  BME 395 and/or consent of instructor.
BME 405 Biomedical Instrumentation (3)
Building on the foundations of the Measurements course, this course covers both clinical and medical research instrumentation. Specific examples include the design and application of electrodes, biopotential amplifiers, biosensors, therapeutic devices, clinical measurements, implantable devices, non-invasive methods, and medical imaging machines. Electrical safety, noise analysis, and the FDA approval process for medical devices are also discussed.
Prerequisites:  BME305, BIOL260
BME 410 Biomedical Signals (3)
Physiological origins of measured signals. Digital processing of 1-dimensional (1D) and 2-dimensional (2D) biosignals. Digital processing of bioimages. Computational tools in 1D & 2D. Relating signal properties to physiological parameters.
Prerequisites:  BME-310, BIOL260
BME 415 Sensory Systems (3)
Topics include: relevant background in neuroscience; structure and function of central nervous system, perception, and movement. Integration of sensory and motor function. Specific sensor modalities including touch, pain, vision, hearing, smell, and taste.
Prerequisites:  BME305, BIOL260
BME 420 Biomechanics (3)
Advanced topics in skeletal tissue mechanics, including: skeletal biology, fracture healing, and bone remodeling; the mechanical properties, fracture resistance, and adaptability of bone to external forces; and the mechanics of synovial joints, cartilage, tendons, and ligaments.
Prerequisites:  BME 320, BME 340, BIOL 260
BME 430 Biotransport (3)
With the foundations of fluid, heat and mass transfer established in Transport Fundamentals, this course focuses on specific biological examples of transport including oxygen transport, blood flow and solute transport in biological systems. Additionally, discussion will include integration of fluid, heat and mass transfer in specific biomedical examples such as artificial organ development and extracorporeal devices.
Prerequisites:  BME200, BME330, BIOL360, MATH403
BME 431 Advanced Topics in Biotransport (3)
This course will explore advanced topics in transport phenomena, including utilizing dimensional analysis & unsteady state equations and studying multiple forms of transport simultaneously. Mathematical techniques to reduce and solve partial differential equations will be investigated to model biomedical systems more accurately.
Prerequisites:  BME430, BME440, BME310, & consent of instructor
BME 440 Biomaterials(3)
Biomaterials is a multidisciplinary field requiring knowledge of biology, chemistry, materials science, mechanics, transport and medicine. In this course we will examine aspects of chemistry, biology, material science and mechanics as they apply to the interaction of a material with a biological system. Our examination of the field will lead to a general understanding of biocompatibility and how to design experiments that assess biocompatibility.
Prerequisites:  BME340, BIOL260, PHYS341, MTA403
BME 441 Tissue Engineering (3)
Topics include: relevant background in biology, biomaterials, biotransport & biomechanics; engineering analysis of artificial tissue; product development and analysis of tissue-engineered device. Specific systems will be analyzed using current literature and products.
Prerequisite: BME305, BME420, BME430, BME440, consent of instructor
BME 442 Tissue/Material Interfaces and Related Phenomena (3)
Biomaterials is a multidisciplinary field requiring knowledge of biology, chemistry, materials science, mechanics, transport and medicine. We will examine aspects of material and device function, integration with tissues, improving biocompatibility, and modeling of these or other events.
Prerequisites:  BME430, BME440, consent of instructor
BME 475 Co-op with Industry (0)
A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the third experiential learning session. Grading system is determined by department offering course. Offered every semester.
Prerequisite: BME375
BME 476 Internship with Industry (0-3)
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. Grading system is determined by department offering course. Offered every semester.
Prerequisite: BME376 or Senior standing.
BME 493 Special Topics in Biomedical Engineering (1-3)
Experimental or one-time courses of special interest. Course must be approved by BME faculty prior to offering.
Prerequisite: Approval of instructor
BME 495 Senior Projects I (3)
Capstone project; process of design; proposal development; project planning and scheduling; prototyping; quality; testing; regulatory issues; biomedical ethics; design review; teamwork; oral and written reports. 
Prerequisites: Completion of BME core requirements (BME 100, 101, 200, 305, 310, 330, 340), or consent of project advisor and consent of BME Chair
BME 496 Senior Projects II (3)
Continuation of first Senior Project I.
Prerequisites: BME495, consent of research advisor, or consent of BME Chair. (This class must normally be taken in the same academic year as BME 495.)
BME 498 Independent Research (0-3)
Individual or small group investigation of a topic.
Prerequisites:  Consent of instructor

Electrical & Computer Engineering

EENG101 Introduction to Electrical Engineering (1)
Electrical devices, magnetic devices, electronic devices, digital logic, computer organization, communication systems. Design concepts in electrical and computer engineering. Hands-on experience on familiar pieces of electronic gear. Introduction to software packages applicable to electrical engineering. Fall semester.
Co-requisite: MATH142 or equivalent.
EENG201 Electrical Engineering (3)
Basic DC circuit analysis techniques including current, voltage and power concepts, mesh analysis, node analysis, and circuit reduction techniques. Basic AC circuit analysis techniques including impedance concepts, phasor notation, power principles, principles of circuit frequency response and filter concepts. Transient analysis of simple inductive and capacitive networks. Principles of operational amplifier circuit analysis including basic active filter design. Introduction to transformers, power supplies and motors.
Prerequisite: PHYS163 and MATH244, or equivalent.
EENG202 Electrical Engineering Laboratory (1)
Laboratory experiments to emphasize materials covered in EENG201. Not for EE majors.
Prerequisite or Corequisite: EENG201.
EENG205 Digital Design (3)
Number systems. Boolean algebra. Logical function. Combinational circuits. Flip-flops, registers and counters. Arithmetic, memories. Introduction to digital computers and microprocessors. Spring semester.
Prerequisites: MATH135.
EENG206 Digital Design Laboratory (1)
Laboratory experiments to emphasize materials covered in EENG205. Spring semester.
Corequisite or Prerequisite: EENG205.
EENG210 Engineering Circuits I (3)
Physical foundations of electrical circuits. Ohm’s Law, Kirchhoff’s Laws, node and mesh analysis, Thevenin’s/Norton’s equivalents, and the principle of superposition. Transient analysis of simple RL, RC and RLC circuits. Operational amplifier circuits. Fall semester.
Prerequisites: MATH143, EENG101 and PHYS161, or equivalent.
EENG211 Engineering Circuits II (3)
Sinusoidal steady-state analysis, sinusoidal steady-state power calculation, balanced 3-phase systems. Mutual inductance and transformers, series and parallel resonance. Applications of Laplace and Fourier transforms to circuit analysis. Spring semester.
Prerequisite: EENG210.
EENG212 Electrical Science Laboratory (1)
Laboratory experiments to emphasize materials covered in EENG210 and EENG211. Spring semester.
Prerequisite or Corequisite: EENG211.
EENG275 Co-op with Industry (0)
A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the first experiential learning session. Grading system is determined by department offering course. Offered every semester.
Prerequisite: Sophomore standing.
EENG297 Co-op in Electrical Engineering (0)
An optional supervised work experience with an agency, firm or organization which employs engineers. The student receives a PASS or NO PASS grade. Every semester.
EENG301 Signals and Systems (3)
Introduction to signals and systems. Linear time-invariant systems. Fourier analysis of continuous-time signals and systems. Fourier analysis of discrete-time signals and systems. The Laplace transforms, Z-transforms. Fall semester.
Prerequisite: EENG211 and MATH355 or equivalent.
EENG302 Electromagnetic Fields (3)
The electromagnetic model. Vector analysis. Static electric fields, static magnetic fields. Time-varying fields and Maxwell’s equations. Plane electromagnetic waves. Spring semester.
Prerequisite: EENG211 and MATH355 or equivalent.
EENG303 Semiconductor Devices (3)
An introduction to fundamentals of semiconductors and semiconductor devices. Electrical properties of solids, energy band diagrams, semiconductor theory. Introduction to workings of devices such as p-n junctions, bipolar junction transistors, field effect transistors (JFETs, MOSFETs, MODFETs). Fall semester.
Prerequisite: EENG211, MATH355, MATH403, or equivalent.
EENG305 Microprocessors (3)
Review of number systems. Microprocessors/microcomputer structure, input/output. Signals and devices. Computer arithmetic, programming, interfacing and data acquisition. Fall semester.
Prerequisite: EENG205.
EENG306 Microprocessors Laboratory (1)
Concurrent registration with EENG305. Laboratory experiments to emphasize materials covered in EENG305. Fall semester.
EENG307 Electric Energy Conversion (3)
Magnetic theory and circuits. Transformers. Electromechanical energy conversion. Induction motors. Direct current machines. Electromechanical components of control systems. Direct energy conversion methods. Fall semester.
Prerequisite: EENG211 and MATH355 or equivalent.
EENG309 Electronic Circuit Design (3)
Review of semiconductor materials and their electronic properties and applications to electronic devices. Introduction to designing circuits using P-N junction (diodes), bipolar junction transistors (BJTs), and field effect transistors (FET). Introduction to design of Class A, B, and AB amplifiers. Analysis and design of single and multi-stage amplifiers using BJTs and FETs transistors. Spring semester.
Prerequisite: EENG303.
EENG310 Electronics Laboratory (1)
Laboratory experiments to emphasize materials covered in EENG309. Spring semester.
Prerequisite or Corequisite: EENG309.
EENG311 Computer Systems Design (3)
Organization and design considerations of the computer; performance and cost analysis, representation of data and instructions; register transfer operations, instruction set format and design and its effect on the internal microengine, computer arithmetic; hardware implementation of processors and ALUs, hardware and microprogrammed control design, comparative architectures. Fall semester.
Corequisite or Prerequisite: EENG312, EENG205 and EENG206.
EENG312 Computer Systems Design Laboratory (1)
Laboratory investigation of microcomputing systems covering the material in EENG311. Practical aspects of computer design and implementation. Design, construction, microprogramming, programming, and testing of significant digital subsystems using computer simulators, hardware description languages, and software development tools. Fall semester.
Corequisite or Prerequisite: EENG311, EENG205 and EENG206.
EENG375 Co-op with Industry (0)
A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the second experiential learning session. Grading system is determined by department offering course. Offered every semester.
Prerequisite: EENG275.
EENG376 Internship with Industry (0-3)
A work experience with an agency, firm, or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. This course is used for the first experiential learning session. Grading system is determined by department offering course. Offered every semester.
Prerequisite: Junior standing.
EENG401 Spacecraft Communications (3)
Overview of satellite systems. Orbits and launching methods. The space segment and the earth segment. Baseband signals and modulation, the space link. Satellite access: single access, preassigned FDMA, demand-assigned FDMA, spade system, TDMA, CDMA. On demand.
Prerequisite: Instructor’s permission.
EENG402 Filter Design (3)
Transfer functions. Op-amp RC circuits. Design of Butterworth, Chebyshev, elliptic and delay filters. Frequency transformation and switched capacitor filters. On demand.
Prerequisite: EENG309 and MATH355 or equivalent.
EENG403 Communication Systems (3)
Review of signal analysis and probability theory. Amplitude modulation systems. Frequency and phase modulation systems. Pulse modulation systems. Noise in CW modulation. Spring semester.
Prerequisite: EENG301 and MATH403.
EENG404 Automatic Control Systems (3)
Linear time-invariant systems. Transfer functions, block diagrams and signal flow graphs. Stability, time and frequency response, and root locus analysis. Compensator design in time and frequency domain. Spring semester.
Prerequisite: EENG301, MATH355.
EENG407 Transmission Lines and Waveguides (3)
Introduction, elementary transmission line concepts. Standing-wave AC configurations. Smith chart and matching problems. Plane waves and wave impedance. Mode theory of rectangular waveguides. Microstrips, stripline and other practical transmission lines. Fall semester.
Prerequisite: EENG302.
EENG408 Antenna Engineering (3)
Antenna parameters. Polarization. Basic antenna types. Antenna arrays. Broadband antenna design. Antenna measurements. On demand.
Prerequisite: EENG302.
EENG409 Radar Systems (3)
Nature of radar, basic elements of the radar systems. Radar waveforms and applications. Tracking radar techniques and applications, radar electronic counter countermeasures (ECCM). On demand.
Prerequisite: Instructor’s permission or EENG403.
EENG410 Microwave Theory and Techniques (3)
Introduction. Microwave frequencies. Microwave devices and systems. Microwave measurements. Microwave components and tubes. Measurement of microwave fields and their components. On demand.
Prerequisite: EENG302.
EENG415 Digital Signal Processing (3)
Filtering, convolution, and Fourier transform of digital signals. Analysis, design and implementation of FIR and IIR filters. Quantization, round-off and scaling effects. DFT and circular convolution. FFT algorithms and implementation. On demand.
Prerequisites: EENG301, MATH355.
EENG416 Modern Control Theory (3)
State-space representation (discrete and continuous) of linear systems. Observability and controllability. Controller design, estimator design and stability concepts. Digital control: continuous and discrete design. Hardware characteristics - A/D, D/A, prefilters. Quantization and sampling effects in digital control. On demand.
Prerequisite: EENG404.
EENG417 Microcomputer-Based System Design (3)
Study of 16-bit microprocessors architecture, programming, and interfacing. On demand.
Prerequisite: EENG405.
EENG418 Physical Electronics (3)
Introduction to the physics of solids via quantum mechanics. Physical principles of existing semiconductor devices such as diodes, bipolar and field effect transistors. On demand.
Prerequisite: CHEM151, EENG211, PHYS163, and MATH355 or equivalent.
EENG419 Digital IC Design (3)
Introduction to digital electronics. Metal-oxide semiconductor transistors, (MOST’s), MOS inverters and gate circuits. Design of MOSFET based combinational and sequential circuits. Issues related to design of modern Digital Integrated Circuits is covered. Fall semester.
Prerequisite: EENG205 and EENG309.
EENG420 Advanced Filter Design (3)
Frequency transformations, high-pass and low-pass band elimination filters, sensitivity. Passive ladder, ladder design with simulated elements, leap frog simulation of ladders. Switched-capacitor filters, delay filters, delay equalization. The Z-transform, IIR and FIR digital filters. On demand.
Prerequisite: EENG402.
EENG421 Image Processing (3)
Introduction to digital images and image capture. Image transforms: DFT, FFT, Walsh, Hadamard, DCT, Hough and Hotelling transforms. Image enhancement, image restoration, image encoding, and image segmentation. On demand.
Prerequisites: EENG301, MATH355.
EENG425 Computer Systems Organization (3)
Review of organization and design considerations of a computing system; data path and control design; microprogramming; pipelining and pipelined systems; pipeline hazards; memory hierarchy; design of caches, main and virtual memories; storage systems; I/O devices, buses, and peripherals interfacing; parallel and vector architectures; multiprocessing; system design issues in high-performance computers; case studies. On demand.
Prerequisites: EENG311 and EENG312.
EENG427 Advanced Digital Systems Design (3)
Design with Programmable Logic Devices (PLDs) and Field Programmable Gate Arrays (FPGAs); ASIC alternatives; design entry methods and logic simulation; logic block architectures and technologies; routing for FPGAs; rapid prototyping; commercial boards; dynamic architectures using FPGAs; reconfigurable computing. On demand.
Prerequisites: EENG205 and EENG206.
EENG429 Systems Performance Evaluation (3)
Methodologies for performance evaluation of various computer systems through measurement, analytic modeling, and simulation techniques. Topics include performance metrics; workload characterization; evaluation tools; statistical modeling; hybrid techniques; and case studies. On demand.
Prerequisites: EENG425 and MATH403.
EENG431 Parallel Processing and Architectures (3)
This course surveys the field of parallel computing, covering parallel systems hardware design and architecture, interconnection networks, and parallel algorithms. Topics include concurrency fundamentals and computing paradigms; parallel and multiprocessors architectures; interprocessor communication costs; load balance; task scheduling; parallelization; and case studies. On demand.
Prerequisite: EENG425.
EENG433 Computer Networks Design (3)
Introduction to modern computer communication networks. Topics include point to point communication links and transmission of digital information; packet switching; multiplexing and concentrator design; multiaccess and broadcasting; Local Area Networks; Wide Area Networks; ATM Networks; and ISDN; architectures and protocols for computer networks; the concept of the OSI reference model; discussion of the OSI seven layers; physical interfaces and protocols; data link control layer; network layer; design issues and modeling techniques; case studies. On demand.
Corequisite or Prerequisite: EENG311, EENG312, and EENG434.
EENG435 VLSI Principles (3)
A first course in VLSI design with NMOS and CMOS technologies. Introduction to MOS technology and the operation of the CMOS inverter. Design rules and layout diagrams. Subsystem design and layout: switch (pass transistor and transmission gate) logic, gate (restoring) logic, structured (combinational) logic, and clocked sequential circuits. VLSI design methodologies, including the relevant CAD tools and suites. Design manufacturability and testability. On demand.
Corequisite or Prerequisite: EENG419 and EENG436.
EENG475 Co-op with Industry (0)
A full-time supervised work experience with an agency, firm, or organization that employs persons in this degree field. This course is used for the third experiential learning session. Grading system is determined by department offering course. Offered every semester.
Prerequisite: EENG375.
EENG476 Internship with Industry (0-3)
A work experience with an agency, firm, or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. Grading system is determined by department offering course. Offered every semester.
Prerequisite: EENG376 or Senior standing.
EENG490 Electrical Engineering Design I (3)
Principles of engineering experimentation and design. Development of engineering design proposal. Fall Semester.
Prerequisite: Senior EE standing.
EENG491 Electrical Engineering Design II (3)
Development, analysis, and completion of detailed design in electrical engineering. Completion of a project under faculty supervision. Project results are presented in a formal report. Spring semester.
Prerequisite: EENG490.
EENG493 Special Lectures in Electrical Engineering (3)
Selected topics of special interest to electrical engineering majors. On demand.
Prerequisite: Senior EE standing.
EENG498 Special Topics in Electrical Engineering (1-3)
Independent study on any electrical engineering topic under the direction of a faculty member. On demand.
Prerequisite: Senior EE standing.

Electronics Engineering Technology

EETP155 Circuit Layout and Fabrication (1)
Computer Aided Design (CAD) and fabrication of Printed Circuit Boards. Documentation of PCB's including Hot Lists, Bill of Materials, Gerber and Computer Numerically Controlled (CNC) Drill files.
Pre-Requisites: EETP207 Electrical Circuit Analysis an ET-P131 CAD with Unigraphics
EETP207 Electrical Circuit Analysis (4)
The course covers DC and AC circuits Analysis. For DC it covers: units, notations, current, voltage, resistance, Ohm?s Law, power, energy, series and parallel circuits, Kirchoff's Laws, series-parallel networks, methods of analysis, network theorems, capacitors, inductors, and magnetic circuits. For AC it covers: sinusoidal alternating current, phasors, series and parallel circuits, series-parallel AC networks, methods of analysis and network theorems applied to AC networks, AC power, resonance, polyphase systems, non-sinusoidal circuits and transformers.
Pre-Requisites: MT-A141
EETP208 Electrical Circuit Analysis Lab (2)
Laboratory experiments to emphasize material covered in lectures of EETP207.
Pre-Requisites: MT-A141, concurrent registration of 207
EETP210 Survey of Electricity and Electronics (3)
This course includes a survey of electricity and electronics for non-majors. DC and AC circuit analysis, and electromagnetism; electronics, diodes, transistors (BJT and JFET) and applications; operational amplifiers, digital concepts.
Prerequisites: MT-A142, PH-P131
EETP211 Survey of Electricity and Electronics Laboratory (1)
This course includes laboratory projects to reinforce and supplement the lecture material in EETP303.
Prerequisite: Concurrent enrollment with EETP303.
EETP 275 Co-op with Industry
Sophomore standing is required for students to register for this zero credit hour course.. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the first experiential learning session.
EETP293 Electronic Devices I (3)
The course covers diode characteristics and circuits, bipolar transistor?s circuits and applications, field-effect transistor?s (JFETs and MOSFETs ) circuits and applications.
Pre-Requisites: EETP207, EETP208 and MT-P143
EETP294 Electronic Devices Lab I. (1)
Laboratory experiments to emphasize material covered in lectures of EETP293.
Pre-Requisites: EETP208, concurrent registration EETP293.
EETP295 Electronic Devices II (3)
The course covers amplifiers? frequency response, power amplifiers, thyristors, differential amplifier, operational amplifier and applications, oscillators and regulated power supplies.
Pre-Requisites: EETP293, EETP294
EETP296 Electronic Devices Lab II. (1)
Laboratory experiments to emphasize material covered in lectures of EETP295.
Pre-Requisites: EETP293, EETP294, concurrent registration EETP295.
EETP 305 Digital and State Machine Design
The course covers number systems, logic gates, Boolean algebra, combinational logic, PLD?s, multiplexers, decoders, encoders, flip-flops, registers, counters, state machine design, memories and VHDL.
Pre-Requisites: CS-P125 and EETP293
EETP306 Digital and State Machine Design Lab (1)
Laboratory experiments to emphasize material covered in lectures of EETP305.
Pre-Requisites: Concurrent registration of EETP305.
EETP307 Microprocessor/Microcontroller (3)
The course covers microprocessors/microcontrollers basics, Motorola M68HC12 hardware, the M68HC12 instruction set, assembly language programming, assembler, interrupts, memory mapping, interfacing and applications.
Prerequisite: EETP305
EETP308 Microprocessors / Microcontrollers Laboratory (1)
Laboratory experiments to emphasize material covered in lectures of EETP307.
Pre-Requisites: Concurrent registration of EETP307.
EETP 351 Electronic Communications
Frequency generation, amplitude modulation transmission and reception, angle modulation transmission and reception, introduction to spread spectrum techniques, transmission lines, wave propagation, antennas.
Pre-requisites: EETP295
EETP 352 Electronic Communication Laboratory
Practical applications of basic principles of electronic communications including signal generation, transmission reception and processing, methods of modulation and demodulation.
EETP 353 RF Signals and Systems
Wave propagation and microwave circuit elements are covered. The background for continued study of RF communications is covered in this course.
Pre-requisites: EETP 351 and ET ?P403.
EETP 354 RF Signals and Systems Laboratory
Lab emphasizes the lecture covered topics. Use of RF and microwave equipment in making testing and measurement. Comparison of analytical and measured RF signals. Practical applications of RF signal and systems.
Pre-requisites: EETP 353.
EETP 375 Co-op with Industry
Junior standing is required for students to register for this zero credit hour course.. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the second experiential learning session.
EETP 376 Internship with Industry
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. This course is used for the first experiential learning session. Grading system is determined by department offering course.
Prerequisite: Junior standing.
EETP 421 Computer Interfacing and Applications
A general approach to the uses of computers as embedded systems. Computer interfaces, serial, parallel, USB, LAN, etc. Interfacing projects using Serial, Parallel and the USB ports will be emphasized.
Prerequisite: CS-P125 or equivalent.
EETP 475 Co-op with Industry
Senior standing is required for students to register for this zero credit hour course.. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the third experiential learning session.
EETP 476 Internship with Industry
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. This course is used for the first experiential learning session. Grading system is determined by department offering course. Prerequisite: Senior standing.
EETP 490 Senior Design Project I
Principles of electrical and electronics engineering technology in practice. A study of unified, methodical approach to engineering technology project development. Project planning, scheduling, prototyping, production and presentation of a project.
Pre-requisite: Senior Status and ET ?P 403
EETP 491 Senior Design Project II
Implementation of a design project. Completion of the development of a detailed project in EET under faculty supervision.
Pre-requisite: EETP 490.
EETP 498 Special Topics In EET
Independent or lecture based study in an appropriate electronics engineering technology subject area under the direction of an EET faculty member.
Pre-requisite: Senior Status.

Engineering Technology

ETP101 Introduction to Engineering Technology (1)
An introductory course into the philosophy of engineering technology designed to assist the student's transition into an academic program.
ETP102 Introduction to Engineering Technology Laboratory (1)
A laboratory projects to reinforce and supplement the lecture material in ETP101.
Prerequisite: Concurrent enrollment in ETP101.
ETP105 Safety Systems and Human Factors (3)
The course involves the study of the theoretical and practical application of safety concepts utilized in the technology environment. Included is an in-depth examination of safety philosophy from design onset through the manufacturing, utilization, and ultimate disposal of a system. Additionally, the study of human performance and its relationship with error and cost reduction and associated safety issues are examined.
ETP131 Computer Aided Design with Unigraphics I (2)
This course involves an introduction to solid modeling, geometric dimensioning and tolerancing methods.
ETP231 Computer Aided Design with Unigraphics II (2)
This course is a continued study of CAD, emphasizing the creation of assemblies and components and associated engineering drawings.
ETP 275 Co-op with Industry
Sophomore standing is required for students to register for this zero credit hour course. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the first experiential learning session.
ETP301 Structure and Design (3)
This course introduces the student to static and fatigue analysis, failure theories, and analysis of riveted and bonded joints. Emphasis is on application of analysis procedures, industry standards, and cost-effective design.
Prerequisite: ES-P310, ETP331.
ETP302 Structure and Design Laboratory (1)
This course includes laboratory projects to reinforce lecture material in ETP301.
Prerequisite: Concurrent registration with ETP301.
ETP303 Technology and Project Management (3)
This course allows the student to identify and understand the elements of project management in relation to an organizational strategy. Specific emphasis on tools and techniques as well as philosophies applicable to the management of technology oriented projects.
ETP307 Materials Testing (2)
This course includes an introduction to the methods of nondestructive testing of materials. Flaw detection.
ETP308 Material Testing Laboratory (1)
Laboratory work in destructive and nondestructive testing. Laboratory projects include the use of tensile machines, hardness testing machines, industrial radiographic, magnetic particle, ultrasonic, eddy current, and liquid penetrant testing machines.
Prerequisite: Concurrent enrollment with ETP307.
ETP309 Logistics (3)
This course introduces the student to the structure, application, and concepts of contemporary logistics and associated systems.
ETP310 Information Technology Networking (2)
Design, operation, application and management of LANs and topologies, cabling systems, protocols, bridges, routers, hubs, switches, security; media and transport systems; Internet and TCP/ICP topics including the protocol stack, router operation and addressing issues.
Pre-Requisites: CS-P125 Introduction to Computer Science or equivalent.
ETP331 Metallic Materials (3)
This course is a survey of the sources, preparation, properties and uses of engineering materials. Topics include the following: the iron-carbon system, ferrous metallurgy, nonferrous metallurgy, heat treatment, properties, manufacturing and repair, and NDI of metals.
Prerequisite: CH-A151.
ETP332 Metallic Materials Laboratory (1)
This course includes laboratory projects to reinforce the lecture material in ETP332.
Prerequisite: Concurrent registration with ETP331.
ETP341 Composite Materials (3)
This course is designed to develop the student?s knowledge of advanced composite materials, including their use in the design, manufacture, and repair of products, systems, and components.
ETP342 Composite Materials Laboratory (1)
This course includes laboratory projects to reinforce the lecture in ETP341.
Prerequisite: Concurrent registration with ETP341.
ETP351 Quality Engineering I (3)
This course provides participants the fundamental concepts of quality engineering. On successful completion of this course the participants will have a working knowledge of probability and statistics commonly used in engineering, and will have an understanding of quality philosophies, principles, systems, methods, tools, organizational and team dynamics, customer expectations and satisfaction, leadership, improvement systems, and professional ethics.
ETP352 Quality Engineering II (3)
This course will continue the study of quality engineering subjects. The course will cover documentation and quality audits, planning, controlling, and assuring product and process quality, including acceptance sampling and measurement systems. The participant will be introduced to reliability, statistical process control, and design of experiments.
ETP 354 Methods in Engineering Technology (3)
Introduction to analytical and numerical methods used in engineering technology problem solving. Introduction to transforms and their use in the analysis of electrical networks.
Pre-Requisites: MT-P 143 Calculus II and structured programming
ETP375 Co-op with Industry
Junior standing is required for students to register for this zero credit hour course.. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the second experiential learning session.
ETP 376 Internship with Industry
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. This course is used for the first experiential learning session. Grading system is determined by department offering course.
Prerequisite: Junior standing.
ETP401. Network Analysis (3)
Network analysis stresses time and frequency domain analysis of electrical and electronics networks. Use of Fourier and Laplace transform techniques in the analysis of networks.
Prerequisites: ETP354
ETP403 Control Systems (3)
Introduction to servomechanism analysis under transient and steady state conditions. Negative and positive feedback. Laplace transform analysis of feedback systems. Frequency response. System stability analysis using Bode plots and Root locus methods. Analog computers. Microprocessor control and the analog/digital interface.
Pre-Requisites: ETP401 Network Analysis
ETP 475 Co-op with Industry
Senior standing is required for students to register for this zero credit hour course.. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the third experiential learning session.
ETP 476 Internship with Industry
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. This course is used for the first experiential learning session. Grading system is determined by department offering course.
Prerequisite: Senior standing.
ETP498 Special Topics in Engineering Technology (1-6)
Independent or lecture based study in an appropriate engineering technology subject area under the direction of an ET faculty member.
Pre-Requisites: Senior Status

Engineering Sciences

ESCI101 Freshman Engineering I (1-2-2) Cr. 2
An introduction to the philosophy of engineering and engineering design. Introduction to the various laboratory and computing facilities on campus. Introduction to engineering drawing and computer aided drafting techniques.
ESCI102 Introduction to Computer Aided Design (1-2-2) Cr. 1
Further topics in the philosophy of engineering and engineering design. Further topics in skills and tools used in engineering.
Prerequisite: ESCI101.
ESCI200 Engineering Mechanics (4)
Vectors/force, moments, couples, equilibrium of particles and rigid bodies, trusses, frames, machines, friction, centroids, moments of inertia of areas, shear and moment diagrams, kinematics and kinetics of particles and rigid bodies.
Prerequisite: MATH153 (or concurrent registration); PH A151 or PHYS161.
ESCI210 Statics (3)
Study of force systems acting on particles and rigid bodies, 2-D and 3-D equilibrium, trusses, frames machines, shear and moment diagrams, friction, centroids, area moment of inertia.
Prerequisite: PHYS163 (or concurrent registration).
ESCI211 Dynamics (3)
Particle kinematics and kinetics in rectangular, cylindrical and normal-tangential coordinates; projectiles; relative motion using translating axes; work; conservative forces; conservation of energy; linear and angular impulse and momentum, conservation of momentum, rigid body kinematics and kinetics.
Prerequisite: ESCI210 and MATH153.
ESCI220 Thermodynamics (3)
Properties, characteristics and fundamental equations of gases, application of first and second laws of thermodynamics in evaluation of engines, cycles and processes.
Corequisite: MATH244.
ESCI303 Fluid Mechanics (3)
Fluid statics; kinematics of fluid flow; energy equation for steady flow of any fluid; viscosity; flow of incompressible and compressible fluids in pipes; fluid measuring instruments; momentum relations for steady flow; resistance of immersed bodies; dynamic lift and propulsion; flow of liquids in open channels; pumps, turbines.
Prerequisite: ESCI200.
ESCI310 Mechanics of Solids (3)
Stress and deformation due to axial load, torsion, bending and shear; properties of materials; statically indeterminate problems, analysis of plane stress and strain; combined loading; pressure vessels; beam deflections.
Prerequisite: ESCI200 or ESCI210 and MATH254.
ESCI311 Mechanics of Solids Laboratory (1)
Laboratory experiments to emphasize material covered in lectures of ESCI310.
Concurrent Registration: ESCI310.
ESCI322 Fluid Dynamics (3)
Fluid mechanics, conservation of mass, momentum and energy, stream function; dimensional analysis and similitude; application to problems of inviscid and viscous flows, drag, flow measurements.
Prerequisite:ESCI210,MTA244.
ESCI330 Linear Vibrations (3)
Single and two degrees-of-freedom with and without damping, vibration dampers and absorbers; model properties of vibrating systems; vibration of lumped parameter and continuous systems; approximate numerical methods and digital computation. Review of test equipment and methods.
Prerequisite:ESCI211,MTA355.
ESCI430 Analysis and Control of Linear Systems (3)
Linear vibration theory; control system block diagrams; analog and digital simulation; frequency and time domain analysis techniques; state space; and introduction to optimal control theory. Spring semester.
Prerequisites: ESCI330 and MATH370.
ESCI450 Engineering Economic Analysis and Project Management (3)
Development and use of time value of money interest formulas. Bases for comparison of alternatives, including present worth, annual worth, rate of return and payout period methods. Depreciation and depletion methods. Engineering project planning, implementation and management. Spring semester.
Prerequisite:MTA143 or equivalent.

Flight Science

FSCI130 Aviation Weather (3)
This course will provide the fundamentals of meteorological theory with a specific application to aviation and flight. Appropriate weather services that are available to the pilot will be covered.
Corequisites: PP110 and PP120.
FSCI275 Accident Investigation (3)
An introduction to aircraft accident investigation and its use as a tool in hazard identification, risk analysis and mishap prevention. Students will apply theory and practical skills developed in the classroom to an actual aircraft accident during the field work portion of the course.
Prerequisite: PP210 and all associated pre/corequisites and PHYS122. Corequisite: PHYS124
FSCI335 Advanced Aircraft Systems (3)
This course will provide the technical knowledge necessary to understand advanced aircraft systems on board typical modern turboprop/turbojet aircraft.
Prerequisites: PP253, PP260, PHYS124
FSCI395 Air Charter Operations (3)
This course includes the study of the operation of a representative air charter operation. All aspects of the operation important to the flight crew will be covered, including environmental, physiological, regulatory, and performance factors.
Prerequisite: FSCI335, PP260
FSCI415 Air Carrier Operations (3)
This course includes the study of the operation of a representative air carrier in commercial aviation. All aspects of the operation important to the flight crew will be covered, including environmental, physiological, regulatory, and performance factors.
Prerequisite: FSCI335, Corequisite: FSCI425
FSCI425 Flight Deck Automation (3)
This course emphasizes effective management of technology and people in a modern flight deck through an understanding of situational awareness under normal, extended duration and emergency conditions. Line Oriented Flight Training (LOFT) Scenarios are used to reinforce theoretical principles.
Prerequisite: FSCI335
FSCI445 Aviation Law (3)
Basic principles of law which impinge on the use of the air; history of air law; principles and rules governing use of air space by aircraft; multilateral conventions pertaining to the use of air space among nations; aviation security procedures; product liability.
Prerequisite: Junior standing.
FSCI455 Corporate Aviation Management (3)
This course will emphasize development of an aviation business.
Prerequisite: FSCI335
FSCI465 Economics of Air Transportation (3)
A detailed study of present and future air carrier operations including organization, operating costs and revenues, aircraft utilization and scheduled operations, equipment analysis, aircraft performance in relation to efficient and economic operation, passenger service and cargo operations as they are integrated with the overall economics of efficient air operation.
Pre or Corequisite AMGT405 or FSCI455

Mechanical Engineering Technology

MECP201 Mechanical Design (3)
This course applies the principles of engineering graphics to problems dealing with the drawing and design of machines and parts. The emphasis is to produce accurate and complete detail and assembly drawings utilizing the latest industrial drafting procedures and practices.
Prerequisite: ET-P241.
MECP202 Mechanical Design Laboratory (1)
This course includes laboratory projects to reinforce and supplement the lecture material of METP201.
Prerequisite: Concurrent registration with METP202.
MECP275 Co-op with Industry
Sophomore standing is required for students to register for this zero credit hour course.. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the first experiential learning session.
MECP290 Manufacturing Technology (2)
This course will demonstrate the fundamentals of manufacturing processes, tools and systems. The participants will be introduced to advanced manufacturing technologies encompassing a wide variety of machinery, equipment and tooling with various levels of automation, including computers, robots, and material-handling equipment.
MECP359 Mechanical Stress Analysis (3)
The course is designed to help participants acquire knowledge-based understanding of basic stress analysis of deformable solids. The goal is to provide participants with the basic treatment of structural failure analysis due to stresses induced under axial, bending, torsional loads. The course will utilize Unigraphics finite element package to support the course materials and address technologically challenging problems. Emphasis is on application of analysis procedures, industry standards, and cost-effective design. On successful completion of the course, the participants should be able to apply their working knowledge to analyze actual engineering structures and machine components in a technologically sound and logical manner, and to apply to their solutions a few fundamental and well-understood principles.
MECP360 Mechanical Stress Analysis Lab (1)
This course includes laboratory projects to reinforce the lecture material in MECP 359. The participants explore both the virtual laboratory using Unigraphics and the in-situ laboratory testing. Laboratory works include the use of tensile, bending, and torsion testing equipments. The participants prepare lab reports illustrating the test setup, procedure, and results, and describe reasons for any differences in the test results from the theoretical predictions.
MECP409 Advanced Mechanical Design (3)
This course provides the participants with fundamental concepts of Mechanical Engineering Design. The participants design a component, system or process that will perform a specified task subject to certain problem-solving and solution constraints. Utilizing the latest industrial drafting procedures and practices, the participants will apply the principles of engineering graphics to problems dealing with the drawing and design of machines and components. Upon completion of this course the participants will have a creative outlook to design a technologically demanding product that must be functional, safe, reliable, competitive, usable, manufacturable, and marketable.
MECP410 Advanced Mechanical Design Lab (1)
This course includes virtual laboratory projects (using Unigraphics design package) to reinforce and supplement the lecture material of MECP 409. The participants are asked to design a complete mechanical tool for a given set of design parameters and constraints.
MECP375 Co-op with Industry
Junior standing is required for students to register for this zero credit hour course.. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the second experiential learning session.
MECP376 Internship with Industry
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. This course is used for the first experiential learning session. Grading system is determined by department offering course.
Prerequisite: Junior standing.
MECP401 Design of Mechanical Elements
This course involves an overview of machine design parameters. Included are topics such as design deflection, strength, material selection, bearings, screws, gears, joining methods, fatigue, and failure analysis.
Prerequisite: ET-P301, ET-P331, ET-P341.
MECP475 Co-op with Industry
Senior standing is required for students to register for this zero credit hour course.. A full-time supervised work experience with an agency, firm or organization that employs persons in this degree field. This course is used for the third experiential learning session.
MECP476 Internship with Industry
A work experience with an agency, firm or organization that employs persons in this degree field. This experience may be full time or part-time as required by the industry sponsor. This course is used for the first experiential learning session. Grading system is determined by department offering course.
Prerequisite: Senior standing.
MECP490 Senior Design Project I (2)
The first course of a two-course sequence intended to demonstrate the student?s mastery of prior coursework and serve as a culminating experience for the student. This group project includes identification of a project of interest to the group members and the associated research required to determine the feasibility of the project. A formal report and presentation to the department faculty and students highlights the semester activities.
Prerequisite: Senior standing.
MECP491 Senior Design Project II (3)
The second course of a two-course sequence intended to demonstrate the student?s mastery of prior coursework and serves as a culminating experience for the student. This group project provides the student with the opportunity to plan, design, execute, evaluate, and implement a project in its entirety based on the proposed design/research objectives as stated in the first course of the sequence. A for