Jun 02, 2024  
University Catalog 2017-2018 
    
University Catalog 2017-2018 [ARCHIVED CATALOG]

Course Descriptions


Courses are numbered as follows: freshmen, 100-level; sophomores, 200-level; juniors, 300-level; seniors, 400-level; graduate students, 500- & 600-level. Certain 400-level courses may be taken by graduate students for graduate credit; in such cases, graduate students complete additional research assignments to bring the courses up to graduate level rigor. The letter G in parentheses, (G), appears at the end of those 400-level undergraduate course descriptions which are approved for graduate level work. When taught for graduate credit, those courses are taught by Graduate Faculty. Only students admitted to the Graduate School may enroll in 500- & 600-level courses.

No credit is allowed in any curriculum for any course with a catalog number beginning with zero (0) (e.g. ENGL 099 ).

The numerical listing after each course title gives the following information: the first number represents lab hours per week; the second digit represents the number of 75-minute lecture periods per week; the third digit represents the semester credit hours earned for successful completion of the course. A few courses will have a fourth digit in parentheses. This means the course may be repeated for credit and the fourth digit designates the total amount of semester hour credit that may be earned including repetition of the course. Typically, these courses are research-, performance-, or project-oriented and found in the 300-, 400-levels (undergraduate student) or 500-, 600-levels (graduate student).

Some courses require the student to complete a prerequisite course or to secure special permission from faculty prior to enrolling in the course. These prerequisites are listed immediately after the numerical semester credit hour designations. Each student is responsible for complying with prerequisite course work requirements and special instructions.

NOTES:

  1. Courses designated with an asterisk * mean this course will be accepted for General Education Requirement (GER) transfer credit. A course MAY or MAY NOT be accepted as equivalent to or substitute for a course in a specific discipline or major. Please check the Board of Regents web site at www.regents.state.la.us/ and the school you are transferring to for additional information.
  2. Courses with the designation (IER) meet the Board of Regents International Education Requirement.
  3. Students with a Freshman or Sophomore classification are not eligible to register for 400-level (Senior) courses without the written approval of the Academic Dean (or the Dean’s designated representative) of the college responsible for that specific subject and course)
  4. Course offerings for each term are made available prior to Early Registration via the BOSS website (“Available Course Sections”) and in .pdf format on the Registrars website (Quarterly Schedule of Classes-The Racing Form). Quarterly offerings are subject to change to accommodate the needs of students.

Louisiana Common Course Numbering (LCCN).

Louisiana uses a statewide common course numbersing system “…to facilitate program planning and the transfer of students and course credits between and among institutions.” Faculty representatives from all of the public colleges and universities worked to articulate common course content to be covered for each course included on the Board of Regents Master Course Articulation Matrix. Beginning with General Education Requirements (GER), this initiative will continue with an eye toward expansion throughout the entire Matrix.

Each course is identified by a 4-Alpha character “rubric” (i.e. prefix or department abbreviation) and a four-digit number. Each 4-Alpha rubric begins with “C” to signify that it is a state “Common” number, followed by a standard discipline abbreviation so that when they are included in campus catalogs and web sites, its meaning will be clear. For example, “CMAT” is the standardized LCCN abbreviation for Mathematics courses included in the Statewide Course Catalog. Another example would be “CENL” for English courses.

The 4-Alpha character rubric is followed by four digits, each with their own positional meaning. The first digit of the course number denoteds the academic level of the course (1 = freshman/1st year; 2 = sophomore/2nd year). The second and third digits establish course sequencing and/or distinguish the course from others of the same level, credit value, and rubric. The fourth digit denotes the credit value of the course in semester hours. For example, CMAT 1213 College Algebra (Common, Mathematics, Freshman/1st year, articulated standard sequence 21, 3 semester hours, College Algebra); CENL 1013 English Composition I (Common, English, Freshman/1st year, articulated standard sequence 01, 3 semester hours, English Composition I.

All rubric/number course identifiers correspond to course descriptiors listed in the Statewide Course Catalog, published by the Louisiana Board of Regents with direct faculty input.The Statewide Course Catalog will comprise the academic courses for which there is statewide agreement among discipline faculty representatives as to the minimum course content to be covered so that a student completing the course will be ready for the next course for which it is a prerequisite in a sequence or curriculum. Louisiana Tech University courses that are part of the Statewide Common Course Catalog can be readily identified by the [LCCN: AAAA####] at the end of the course description.

The Master Course Articulation Matrix, and the Louisiana Statewide Common Course Catalogue can be found on the Louisiana Board of Regents website (www.regents.doa.louisiana.gov under the Academic Affairs menu option.)

 

Mathematics

  
  • MATH 535: Graph Theory

    3 Semester Credit Hours . Prerequisite MATH 435  or consent of instructor. Fundamental concepts of graph theory, connectivity and traversability, algebraic and topological methods, graph minors, extremal graph theory, planarity, colorability, and random graphs.
  
  • MATH 551: Research and Thesis in Mathematics

    . Prerequisite 12 semester hours of graduate work. Registration in any quarter is for 3 semester hours credit or multiples thereof. Maximum credit applicable towards the degree is 6 semester hours.
  
  • MATH 551C: Res and Thesis in Mathematics

    . Prerequisite 12 semester hours of graduate work. Registration in any quarter is for 3 semester hours credit or multiples thereof. Maximum credit applicable towards the degree is 6 semester hours.
  
  • MATH 551F: Res and Thesis in Mathematics

    . Prerequisite 12 semester hours of graduate work. Registration in any quarter is for 3 semester hours credit or multiples thereof. Maximum credit applicable towards the degree is 6 semester hours.
  
  • MATH 555: Practicum

    3 Semester Credit Hours . Prerequisite 12 semester hours of graduate work. Solution of a problem in mathematics; appropriate literature survey; development of mathematical research techniques. (Pass/Fail).
  
  • MATH 574: Numerical Solution for Pde I

    3 Semester Credit Hours . Prerequisite MATH 407 , MATH 414  Finite element method, weak form problems. Linear element, triangular element, and rectangular element methods for elliptic and parabolic PDEs.
  
  • MATH 575: Numerical Solution for Pde II

    3 Semester Credit Hours . Prerequisite MATH 407 , MATH 414 , MATH 574  Finite difference schemes and their accuracy, stability, and convergence. Schemes for parabolic, hyperbolic and elliptic PDEs.
  
  • MATH 583: Introductory Analysis

    3 Semester Credit Hours . Prerequisite MATH 482  Functions in abstract spaces, limits and continuity in metric spaces, differentiation in multidimensional spaces and Lebesgue integration in measure spaces.
  
  • MATH 584: Topics in Algebra

    3 (15) Semester Credit Hours . May be repeated for 3 hours credit each time.
  
  • MATH 585: Topics in Discrete Mathematics

    3 (15) Semester Credit Hours . Topics depend on faculty’s area of expertise but can include matroid theory, fixed point theory in ordered sets, order and graph reconstruction, or splitter theorems for graphs.
  
  • MATH 586: Topics in Analysis

    3 (15) Semester Credit Hours . May be repeated for 3 hours credit each time.
  
  • MATH 587: Topics in Applied Mathematics

    3 (15) Semester Credit Hours . May be repeated for 3 hours credit each time.
  
  • MATH 588: Topics in Topology

    3 (15) Semester Credit Hours . May be repeated for 3 hours credit each time.
  
  • MATH 599A: Graduate Training Seminar

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  • MATH 599B: Graduate Training Seminar

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  • MATH 599C: Graduate Training Seminar

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  • MATH 599D: Graduate Training Seminar

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  • MATH 655: Mathematical Modeling

    3 Semester Credit Hours . Prerequisite MATH 350, STAT 620 , or Consent of Instructor Building deterministic and probabilistic models; applications from physical and life sciences. Transient and stationary models, stability, and optimal solutions. Model validation: acceptance, improvement, or rejection.
  
  • MATH 728: Math Statistics

    .

Mechanical Engineering

  
  • MEEN 215: Engineering Materials Laboratory

    1 Semester Credit Hours . Prerequisite Credit or registration in MEMT 201 . Corequisite Credit of registration in MEMT 201 . A laboratory couse studying the experimental behavior of engineering materials. Labs will include hardness testing, impact testing, tensile testing and heat treating of materials.
  
  • MEEN 292: Mechanical Engineering Computer Applications

    3 Semester Credit Hours . Corequisite MATH 245 . Application of modern computer programming principles to mechanical engineering problems. Numerical solutions of linear and nonlinear algebraic equations, numerical quadrature problems, and ordinary differential equations.
  
  • MEEN 321: Manufacturing Processes

    2 Semester Credit Hours . Prerequisite MEMT 201  A study of the processes used in manufacturing machine parts. Designing for manufacturabililty. Laboratory is operational practice and demonstrations of machine tools, foundry, and welding.
  
  • MEEN 332: Thermodynamics II

    3 Semester Credit Hours . Prerequisite ENGR 222 , and cumulative GPA of at least 2.0 on MATH 241  through MATH 244 . Continuation of ENGR 222  Cycle analysis and design, study of gas mixtures, thermodynamic property relations, chemical reactions, combustion, and thermodynamics of fluid flow.
  
  • MEEN 334: Thermodynamics II

    2 Semester Credit Hours . Prerequisite ENGR 222  and cumulative GPA at least 2.0 on MATH 241  through MATH 244 . Study of gas mixtures, thermodynamic property relations, chemical reactions, combustion, and thermodynamics of fluid flow.
  
  • MEEN 350: Computer-Aided Modeling

    1 Semester Credit Hours . Prerequisite ENGR 220 , a GPA of at least 2.0 on MATH 241  through MATH 244  and cumulative following: Mathematics ACT score of 26 or better, or Mathematics SAT score of Construction of Virtual system models using constructive solid geometry, swept volumes, and trimmed parametric surfaces with engineering applications.
  
  • MEEN 351: Computer-Aided Modeling

    2 Semester Credit Hours . Prerequisite Cumulative GPA at least 2.0 in MATH 241  through MATH 244 . Construction of Virtual systems models using constructive solid geometry, swept volumes and trimmed parametric surfaces with engineering applications.
  
  • MEEN 353: Heat Transfer

    3 Semester Credit Hours . Prerequisite MATH 245  AND MEEN 350  AND ENGR 222  Corequisite MATH 313  Fundamental concepts of heat transfer including conduction, convection, and radiation. Introduction to thermal systems design.
  
  • MEEN 361: Advanced Mechanics of Materials

    3 Semester Credit Hours . Prerequisite MEMT 211  or  MEMT 212  and MEEN 350   Theories of stress and strain, failure criteria, energy methods, design for static strength, design for fatigue strength.
  
  • MEEN 363: Dynamics of Machine Elements

    3 Semester Credit Hours . Prerequisite MEEN 350  AND MEMT 203 . Kinematics and kinetics of machine elements such as linkages, cams, and gear trains.
  
  • MEEN 371: Dynamic Systems

    3 Semester Credit Hours . Prerequisite ENGR 221 , MATH 245 , MATH 313 , MEMT 203 , and MEEN 350 . Corequisite ENGR 222  Modeling and design of dynamic mechanical and fluid systems. Introduction to linear Vibrations and automatic controls. Numerical and Laplace transform solutions to ordinary differential equations.
  
  • MEEN 382: Basic Measurements

    2 Semester Credit Hours . Prerequisite ENGR 221  and cumulative GPA at least 2.0 in MATH 241  through MATH 244 . Techniques and instruments for making and analyzing measurements in engineering.
  
  • MEEN 400: Mechanical Engineering Seminar

    1 Semester Credit Hours . Prerequisite Credit or registration in MEEN 480 . Corequisite Credit or registration in MEEN 480 . Professionalism, ethics, and service for mechanical engineers.
  
  • MEEN 401: Engineering Kinematics

    .
  
  • MEEN 403: Machine Design

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  • MEEN 413: Composite Materials Design

    3 Semester Credit Hours . Prerequisite MEEN 361  An introduction to modern composite materials. Application of lamination theory to analysis of composites. Deformation and failure of composites. Structural design using composite materials. (G)
  
  • MEEN 414: Failure Anaysis

    3 Semester Credit Hours . Prerequisite MEEN 361  An introduction to failure analysis. Using analysis of failed parts to determine the cause of failure. Using failure analysis techniques to design to avoid failure.
  
  • MEEN 431: Energy Conversion Systems

    3 Semester Credit Hours . Prerequisite MEEN 332  Analysis and design of energy conversion systems. Emphasis on steam turbine and gas turbine electrical power plants. Introduction to emerging energy conversion technologies.
  
  • MEEN 434: Cryogenic Systems

    3 Semester Credit Hours . Prerequisite MEEN 332  Analysis and design of systems which produce, maintain, or utilize low temperatures; liquefaction systems; refrigeration systems; separation and purification systems; storage systems. (G)
  
  • MEEN 435: Internal Combustion Engines

    3 Semester Credit Hours . Prerequisite MEEN 332  and MEEN 353  Theory of IC engines. Fuels, combustion, and thermodynamics. Carburetion, fuel injection, and lubrication. Mechanical design of a typical engine.
  
  • MEEN 436: Air Conditioning and Refrigeration

    3 Semester Credit Hours . Prerequisite MEEN 332 , MEEN 353 , and MEMT 313  Analysis and design of heating, ventilating, and air conditioning systems for residential, commercial, and industrial applications.
  
  • MEEN 446: Advanced Fluids Mechanics

    3 Semester Credit Hours . Prerequisite MEMT 313  and MATH 245  Principles of Viscous fluid flow including dimensional analysis and similarity, duct flows, boundary layer flow, turbomachinery, flow measurement and control, and design of fluid systems. (G)
  
  • MEEN 448: Gas Dynamics

    3 Semester Credit Hours . Prerequisite MEEN 332  and MATH 245  Study of the fundamental laws applied to compressible fluid flow. Isentropic flow, normal and oblique shocks, Prandtl-Meyer, Fanno, Rayleigh flow, and supersonic design. (G)
  
  • MEEN 449: Introduction To Computational Fluid Dynamics

    3 Semester Credit Hours . Prerequisite MATH 313  AND MEMT 313  The fundamentals of computational fluid dynamics (CFD); review of numerical methods and fluid mechanics; application of numerical techniques for solution of sample fluid dynamics problems.
  
  • MEEN 450: Special Problems

    1-4 Semester Credit Hours . Prerequisite Senior Standing and Consent of Instructor. Topics selected will vary from term to term for the purpose of covering selected topics of current importance or special interest.
  
  • MEEN 450A: Special Problems

    1 Semester Credit Hours . Prerequisite Senior Standing and Consent of Instructor. Topics selected will vary from term to term for the purpose of covering selected topics of current importance or special interest.
  
  • MEEN 450B: Special Problems

    2 Semester Credit Hours . Prerequisite Senior Standing and Consent of Instructor. Topics selected will vary from term to term for the purpose of covering selected topics of current importance or special interest.
  
  • MEEN 450C: Special Problems

    3 Semester Credit Hours . Prerequisite Senior Standing and Consent of Instructor. Topics selected will vary from term to term for the purpose of covering selected topics of current importance or special interest.
  
  • MEEN 450D: Special Problems

    4 Semester Credit Hours . Prerequisite Senior Standing and Consent of Instructor. Topics selected will vary from term to term for the purpose of covering selected topics of current importance or special interest.
  
  • MEEN 450E: Special Problems

    . Prerequisite Senior Standing and Consent of Instructor. Topics selected will vary from term to term for the purpose of covering selected topics of current importance or special interest.
  
  • MEEN 450F: Special Problems

    . Prerequisite Senior Standing and Consent of Instructor. Topics selected will vary from term to term for the purpose of covering selected topics of current importance or special interest.
  
  • MEEN 450G: Special Problems

    . Prerequisite Senior Standing and Consent of Instructor. Topics selected will vary from term to term for the purpose of covering selected topics of current importance or special interest.
  
  • MEEN 450H: Special Problems

    . Prerequisite Senior Standing and Consent of Instructor. Topics selected will vary from term to term for the purpose of covering selected topics of current importance or special interest.
  
  • MEEN 451: Thermal Design

    3 Semester Credit Hours . Prerequisite MEEN 353  and MEMT 313  Design of thermal components and systems.
  
  • MEEN 462: Machine Element Design

    3 Semester Credit Hours . Prerequisite MEEN 361  Application of strength of materials to the design of typical machine elements.
  
  • MEEN 465: Machine Element Design

    2 Semester Credit Hours . Prerequisite MEEN 361  Application of principles of strength of materials to the design of typical machine elements.
  
  • MEEN 469: Prevention of Mechanical Failure

    3 Semester Credit Hours . Prerequisite MEEN 361  Analysis, prediction and prevention of failures in a structure or machine part during the design phase. (G)
  
  • MEEN 475: Mechatronics

    3 Semester Credit Hours . Prerequisite MEEN 371  A study of the interface between controllers and physical systems; principles of electromechanical design, digital and analog, circuitry, actuation, sensing, embedded control, and real-time programming.
  
  • MEEN 476: Feedback Control Systems

    3 Semester Credit Hours . Prerequisite MEEN 371  The analysis, design and synthesis of mechanical systems employing feedback control. methods of determining system stability. Typical mechanical control elements and their transfer functions.
  
  • MEEN 477: Mechanical Vibrations

    3 Semester Credit Hours . Prerequisite MEEN 371  Introduction to free and forced linear Vibration of discrete and continuous mechnaical systems. Analysis of translational and rotational systems using analytical and numerical methods.
  
  • MEEN 478: Engineering Acoustics

    3 Semester Credit Hours . Prerequisite MATH 245  Analysis and design of systems for noise control, including Vibration isolation, silencers, room acoustic treatment, and acoustic barriers. (G)
  
  • MEEN 480: Capstone Design Project I

    1 Semester Credit Hours . Prerequisite MEEN 215 , MEEN 321 , AND CREDIT OR REGISTRATION IN MEEN 451  AND MEEN 462   Open-ended, team-based engineering design project that draws on the student’s entire academic experience with emphasis on idea generation and conceptual design.
  
  • MEEN 481: Capstone Design Project II

    1 Semester Credit Hours . Prerequisite MEEN 480 . A continuation of MEEN 480  project with emphasis on detailed system design.
  
  • MEEN 482: Capstone Design Project III

    1 Semester Credit Hours . Prerequisite MEEN 481 . A continuation of MEEN 481  project with emphasis on prototype construction and testing.
  
  • MEEN 486: Mechanical Engr Laboratory

    1 Semester Credit Hours . Prerequisite MEEN 353 , MEEN 361 , MEEN 382  and MEMT 313  Design and performance of laboratory experiments in mechanical engineering.
  
  • MEEN 488: Solids Modeling in Engineering Design

    3 Semester Credit Hours . Prerequisite MEEN 350  Engineering design using 3-D graphics, constructive solid geometry, boundary representations, parametric surfaces, and data exchange standards. (G)
  
  • MEEN 497: Finite Element Methods for Engineers

    3 Semester Credit Hours . Prerequisite MEEN 350 , MEEN 353 , and MEEN 361  Introduction to approximation methods in engineering using finite elements. Physical and mathematical theory, computer applications.
  
  • MEEN 499: Technical Enrichment Course

    1 (6) Semester Credit Hours . Prerequisite Consent of Instructor Varying new technologies. Does not count toward graduation in Mechanical Engineering. Contact the department for more information.
  
  • MEEN 517: Adv Durability of Materials

    3 Semester Credit Hours . Prerequisite ENGR 220  and MEMT 201  This course examines advanced engineering aspects of corrosion, fatigue, and fracture, how service environment influences design, and how to analyze, predict or prevent these influences.
  
  • MEEN 531: Advanced Thermodynamics

    3 Semester Credit Hours . Fundamental laws of thermodynamics; entropy and entropy production; kinetic theory of gasses; statistical thermodynamics; quantum thermodynamics for various systems.
  
  • MEEN 542: Advanced Heat Transfer I

    3 Semester Credit Hours . Steady and transient conduction heat transfer; analytical solutions; approximate solutions; numerical methods.
  
  • MEEN 543: Advanced Heat Transfer II

    3 Semester Credit Hours . Continuation of MEEN 542 . Principles of forced and natural convection in laminar and turbulent flow; thermal radiation.
  
  • MEEN 545: Potential Flow

    3 Semester Credit Hours . Basic principles and analytical methods for the motion of an inviscid, incompressible fluid. Eulerian equations. Conformal transformation. Mapping of flows. Rotation, circulation, and vorticity.
  
  • MEEN 546: Viscous Flow I

    3 Semester Credit Hours . Study of the governing principles and methods in Viscous fluid flow. solutions of the integral and differential equations for laminar flow. Digital computer applications.
  
  • MEEN 547: Viscous Flow II

    3 Semester Credit Hours . Prerequisite MEEN 546  Study of transition, turbulence, and compressibility in Viscous flow. Theory of stability of laminar flows. Fundamentals of turbulent flow.
  
  • MEEN 549: Computational Fluid Dynamics

    3 Semester Credit Hours . The fundamentals of computational fluid dynamics (CFD); review of numerical methods and fluid mechanics; application of numerical techniques for solution of sample fluid dynamics problems.
  
  • MEEN 550: Special Problems

    1-4 Semester Credit Hours . Advanced problems in mechanical engineering. The problems and projects will be treated by current methods used in professional practice.
  
  • MEEN 550A: Special Problems

    1 Semester Credit Hours . Advanced problems in mechanical engineering. The problems and projects will be treated by current methods used in professional practice.
  
  • MEEN 550B: Special Problems

    2 Semester Credit Hours . Advanced problems in mechanical engineering. The problems and projects will be treated by current methods used in professional practice.
  
  • MEEN 550C: Special Problems

    3 Semester Credit Hours . Advanced problems in mechanical engineering. The problems and projects will be treated by current methods used in professional practice.
  
  • MEEN 550D: Special Problems

    4 Semester Credit Hours . Advanced problems in mechanical engineering. The problems and projects will be treated by current methods used in professional practice.
  
  • MEEN 551: Research and Thesis in Mechanical Engineering

    . Prerequisite 12 semester hours of graduate work. Registration in any quarter is for 3 semester hours credit or multiples thereof. Maximum credit applicable towards the degree is 6 semester hours.
  
  • MEEN 551C: Res and Thesis in Mechanical Engr

    .
  
  • MEEN 551F: Res and Thesis in Mechanical Engr

    .
  
  • MEEN 553: Thermal Stresses

    3 Semester Credit Hours . Thermal stresses in structures; plane stress problems; thermal stresses in plates and shells; thermoelastic instability; thermal fatigue; creep and inelastic thermal stresses at high temperatures.
  
  • MEEN 555: Practicum

    3 (6) Semester Credit Hours . Prerequisite 12 semester hours of graduate work Analytical and/or experimental solution of an engineering problem; technical literature survey required; development of engineering research techniques. (Pass/Fail)
  
  • MEEN 557: Special Topics: Mechanical Engineering

    3 (9) Semester Credit Hours . The topic or topics will be selected by the instructor from the various sub-areas of mechanical engineering. May be repeated as topics change.
  
  • MEEN 566: Design Optimization

    3 Semester Credit Hours . Prerequisite MEEN 467 or Consent of Instructor Constrained nonlinear minimization algorithms applied to mechanical engineering design problems.
  
  • MEEN 568: Advanced Vibrations

    3 Semester Credit Hours . Analytical and numerical treatment of nonlinear and multidegree-of-freedom Vibration problems in mechanical engineering.
  
  • MEEN 571: Advanced Engineering Dynamics

    3 Semester Credit Hours . Fundamentals of Newtonian dynamics principles of work and energy, D’Alembert’s principle, Hamilton’s principle, LaGrange equation. Central force motion, Virial theorem. Rigid body motion and robotics.
  
  • MEEN 593: Advanced Finite Element Methods

    3 Semester Credit Hours . Development of the finite methods element using the variational formulation. Applications in structures, fluid mechanics, and heat transfer.

Mechanics and Materials

  
  • MEMT 201: Engineering Materials

    2 Semester Credit Hours . Prerequisite ENGR 122  A study of the basic principles which relate the internal structure of materials to their mechanical, physical, and electrical properties.
  
  • MEMT 203: Dynamics

    3 Semester Credit Hours . Prerequisite ENGR 220  Kinematics and kinetics of particles and solid bodies in rectilinear, rotational, and plane motion; energy methods, linear impulse and momentum.
  
  • MEMT 206: Statics and Strength of Materials

    3 Semester Credit Hours . Prerequisite PHYS 209  Mechanics of rigid and deformable bodies, force systems, stresses and strains, fundamental concepts of static equilibrium, centroids, moments of inertia, and friction, and basic beam design.
  
  • MEMT 211: Intermediate Strength of Materials

    2 Semester Credit Hours . Prerequisite ENGR 220  and cumulative GPA at least 2.0 for MATH 241  through MATH 243 . Mechanics of deformable bodies. Axial, shear, torsion and bending. Inelastic and indeterminate problems.
  
  • MEMT 212: Intermediate Statics and Mechanics of Materials

    3 Semester Credit Hours . Prerequisite ENGR 220  and cumulative GPA of at least 2.0 for MATH 241  through MATH 243 . Continuation of ENGR 220 . Mechanics of rigid and deformable bodies. Axial, shear, torsion and bending. Inelastic and indeterminate problems.
  
  • MEMT 312: Dynamics

    2 Semester Credit Hours . Prerequisite ENGR 220  and PHYS 201  Kinematics and kinetics of particles and solid bodies in rectilinear, rotational and plane motion, energy methods, linear impulse and momentum.
  
  • MEMT 313: Elementary Fluid Mechanics

    3 Semester Credit Hours . Prerequisite ENGR 222 , MEMT 203  and cumulative GPA at least 2.0 in MATH 241  through MATH 244 . Properties of flids, fluid statics. Continuity, energy, and impulse-momentum equations. Steady flow in pipes and open channels. Fluid measurements. General fluid mechanics/hydraulics laboratory.
  
  • MEMT 411: Advanced Engineering Materials

    3 Semester Credit Hours . Prerequisite MEMT 201  and MEEN 361  or Consent of Instructor Introduction to advanced materials. Examination of self-healing, shape memory, electrorhealogicals, peizolectrics and other smart materials. Diffusion, thermal processing, advanced welding practice are also presented.
  
  • MEMT 417: Durability of Materials

    3 Semester Credit Hours . Prerequisite ENGR 220  and MEMT 201  This course examines the engineering aspects of corrosion, fatigue, and fracture, how service environment influences design life, and how to predict or prevent these influences.
  
  • MEMT 508: Finite Element Analysis

    3 Semester Credit Hours . Linear and nonlinear finite element analysis of continual and discretized structures; use of finite element computer programs to solve typical structural problems.
 

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