Materials Engineering
Undergraduate Study
For the undergraduate curriculum in materials engineering leading to the degree bachelor of science. This curriculum is accredited under the General Criteria and the Materials Engineering Program Criteria by the Engineering Accreditation Committee of ABET, 111 Market Place, Suite 1050, Baltimore, MD 21202-4012 – telephone: (410) 347-7700, http://www.abet.org. Materials engineering is a broadly-based discipline relating the composition, microstructure, and processing of materials to their properties, uses and performance. Materials engineering includes a variety of traditional and modern technologies involving metals, ceramics, polymers, composites, and electronic materials.
Because of its interdisciplinary nature, career opportunities for materials engineers bridge all industrial and government sectors including: materials based technologies (materials production), communication/information technologies (semiconducting materials, fiber optics), medical/environmental technologies (biomedical, energy production, waste containment), nanotechnologies, consumer products (building and construction, durable goods), and transportation industries (automotive, aerospace).
The objectives of the materials engineering program are to produce graduates who:
- practice materials engineering in a broad range of industries including materials production, semiconductors, medical/environmental, consumer products, and transportation products
- respond to environmental, social, political, ethical and economic constraints to improve the quality of life in Iowa and the world
- work independently and in teams and are proficient in written, oral and graphical communication
- engage in lifelong learning in response to the rapidly expanding knowledge base and changing environment of our world
- engage in advanced study in materials and related or complementary fields
Graduates in materials engineering are able to apply scientific and engineering principles to select or design the best materials to solve engineering problems. They are also able to control the microstructure of materials through processing to optimize properties and performance. They are skilled in creative, independent problem solving under time and resource constraints. Graduates will have gained experience in materials engineering practice through cooperative work experience or internships in industry, national laboratories, or other funded research work. They will have hands-on skills with a broad range of modern materials processing and characterization equipment and methods.
A degree in materials engineering relies on a strong foundation of math, chemistry and physics. The core materials courses include fundamentals of materials, kinetics and thermodynamics, mechanical properties, computational methods, design, and professional practice experience. Students tailor their programs to their goals and interests through the selection of two areas of specialization from the four available: ceramic materials, electronic materials, metallic materials and polymeric materials. In lieu of the second specialty from the four listed, a student may propose an individually designed, materials related technical specialty to meet specific career goals. Students must have a 3.00 gpa and a B+ in MAT E 215 Introduction to Materials Science and Engineering I. Students may learn other requirements and procedures for applying in the Undergraduate Handbook or by speaking with their adviser. Approval of this proposal rests with the department’s curriculum committee. Additional technical electives can be taken in other areas of interest. The breadth and depth of the program provide excellent preparation for both immediate entry into industry or further study in graduate school.
The department also offers a cooperative education program that combines classroom learning with work experience.
Well qualified juniors in materials engineering who are interested in graduate study may apply for concurrent enrollment during their senior year in the Graduate College to simultaneously pursue both bachelor of science and master of science degrees. See Materials Science and Engineering for more information.
Curriculum in Materials Engineering
Administered by the Department of Materials Science and Engineering.
Leading to the degree bachelor of science.
Total credits required: 127.5 cr. See also Basic Program and Special Programs.
International Perspectives: 3 cr.1
U.S. Diversity: 3 cr.1
Communication Proficiency/Library requirement (minimum grade of C):
| ENGL 302 | Business Communication | 3 |
| ENGL 309 | Report and Proposal Writing | 3 |
| ENGL 314 | Technical Communication | 3 |
| JL MC 347 | Science Communication | 3 |
General Education Electives: 15 cr.
Complete 12 cr. from approved list with a minimum of 6 cr. but no more than 9 cr. from one designator, and a maximum of 9 cr. of 100-level courses2 . Complete one course (3 cr.) from the following with a minimum grade of C:
| ENGL 302 | Business Communication | 3 |
| ENGL 309 | Report and Proposal Writing | 3 |
| ENGL 314 | Technical Communication | 3 |
| JL MC 347 | Science Communication | 3 |
Basic Program: 26.5 cr.
Complete with 2.00 GPA including transfer courses:
| CHEM 167 | General Chemistry for Engineering Students | 4 |
| or CHEM 177 | General Chemistry I | |
| ENGL 150 | Critical Thinking and Communication | 3 |
| ENGL 250 | Written, Oral, Visual, and Electronic Composition (see above for grade requirements) | 3 |
| ENGR 101 | Engineering Orientation | R |
| ENGR 160 | Engineering Problems with Computer Applications Laboratory | 3 |
| LIB 160 | Library Instruction | 0.5 |
| MATH 165 | Calculus I | 4 |
| MATH 166 | Calculus II | 4 |
| PHYS 221 | Introduction to Classical Physics I (See Basic Program) | 5 |
| Total Credits | 26.5 | |
Math and Physical Science: 18 cr.
| CHEM 177L | Laboratory in General Chemistry I | 1 |
| CHEM 178 | General Chemistry II | 3 |
| CHEM 178L | Laboratory in College Chemistry II | 1 |
| MATH 265 | Calculus III | 4 |
| MATH 267 | Elementary Differential Equations and Laplace Transforms | 4 |
| PHYS 222 | Introduction to Classical Physics II | 5 |
| Total Credits | 18 | |
Materials/Specialties Engineering Core: 50 cr.
Complete with 2.00 GPA including transfer courses:
| MAT E 214 | Structural Characterization of Materials | 3 |
| MAT E 215 | Introduction to Materials Science and Engineering I | 3 |
| MAT E 215L | Introduction to Materials Science and Engineering I - Lab | 1 |
| MAT E 216 | Introduction to Materials Science and Engineering II | 4 |
| MAT E 311 | Thermodynamics in Materials Engineering | 3 |
| MAT E 314 | Kinetics and Phase Equilibria in Materials | 3 |
| MAT E 316 | Computational Methods in Materials | 3 |
| MAT E 317 | Introduction to Electronic Properties of Ceramic, Metallic, and Polymeric Materials | 3 |
| MAT E 413 | Materials Design and Professional Practice I | 3 |
| MAT E 414 | Materials Design and Professional Practice II | 3 |
| MAT E 418 | Mechanical Behavior of Materials | 3 |
| Students must choose two from the four areas of specialization (18 cr.): ceramic, electronic, metallic and polymeric materials. | 18 | |
| Total Credits | 50 | |
Students must choose two from the four areas of specialization (18 cr.): ceramic, electronic, metallic and polymeric materials. In lieu of the second specialty from the four listed, a student may propose an individually designed, materials related technical specialty to meet specific career goals. Students must have a 3.00 gpa and a B+ in MAT E 215 Introduction to Materials Science and Engineering I. Students may learn other requirements and procedures for applying in the Undergraduate Handbook or by speaking with their adviser. The options below meet that expectation by using the following specialization courses:
Ceramic Materials:
| MAT E 321 | Introduction to Ceramic Science | 3 |
| MAT E 322 | Introduction to Ceramic Processing | 3 |
| MAT E 425 | Glasses and Advanced Ceramics | 3 |
Electronic Materials:
| MAT E 334 | Electronic Properties of Materials | 3 |
| MAT E 332 | Semiconductor Materials and Devices | 3 |
| MAT E 433 | Advanced Electronic Materials | 3 |
Metallic Materials:
| MAT E 342 | Structure/Property Relations in Nonferrous Metals | 3 |
| MAT E 443 | Physical Metallurgy of Ferrous Alloys | 3 |
| MAT E 444 | Corrosion and Failure Analysis | 3 |
Polymeric Materials:
| MAT E 351 | Introduction to Polymeric Materials | 3 |
| MAT E 453 | Physical and Mechanical Properties of Polymers | 3 |
| MAT E 454 | Polymer Composites and Processing | 3 |
Other Courses: 18 cr.
| E M 274 | Statics of Engineering | 3 |
| E M 324 | Mechanics of Materials | 3 |
| Technical Electives from approved departments | 9 | |
| Non-remedial course | 3 | |
| Total Credits | 18 | |
Seminar/Co-op/Internships
| MAT E 201 | Materials Science and Engineering - Professional Planning | R |
| Co-op and internships are optional | ||
- These university requirements will add to the minimum credits of the program unless the university-approved courses are also approved by the department to meet other course requirements within the degree program. U.S. diversity and international perspectives courses may not be taken Pass/Not Pass.
- Choose from department approved list.
- See Basic Program for Professional Engineering Curricula for accepted substitutions for curriculum designated courses in the Basic Program.
Note: A Mat E student may take up to 9 credit hours from General Education and free electives on a P/NP basis, except for courses used to meet the diversity and international perspectives requirement. S/F courses (different from P/NP) will be considered for these requirements on a course-by-course basis.
Courses primarily for undergraduate students
MAT E 201. Materials Science and Engineering - Professional Planning.
Cr. R.
F.
Prereq: Sophomore classification in Mat E
Preparation for a career in materials engineering; experiential learning, resumes, interviewing, Myers-Briggs Type Indicator, leadership, undergraduate research, international opportunities, graduate school preparation and opportunities, and alternative career paths.
Offered on a satisfactory-fail basis only.
MAT E 214. Structural Characterization of Materials.
(2-3) Cr. 3.
S.
Prereq: 215, credit or enrollment in PHYS 221
Structural characterization of ceramic, electronic, polymeric and metallic materials. Techniques include optical and electron microscopy, x-ray diffraction, and thermal analysis. Identification of materials type, microstructure, and crystal structure.
MAT E 215. Introduction to Materials Science and Engineering I.
(3-0) Cr. 3.
F.
Prereq: CHEM 177 or 167
Materials Engineering majors only. Structure and properties of ceramic, electronic, polymeric and metallic materials, emphasizing differences based on structure and bonding. Phase equilibria and phase transformations.
Only one of Mat E 215, 272, or 392 may count toward graduation.
MAT E 215L. Introduction to Materials Science and Engineering I - Lab.
(0-3) Cr. 1.
F.
Prereq: Credit or enrollment in 215 or 272 or 392
Materials Engineering majors only. Laboratory exercise in materials.
MAT E 216. Introduction to Materials Science and Engineering II.
(3-2) Cr. 4.
S.
Prereq: 215, Credit or enrollment in PHYS 222
Materials Engineering majors only. Fundamentals of ceramic, polymeric, and composite materials; degradation, electronic, thermal, magnetic, and optical properties of materials. Materials for energy, biomaterials, and nanomaterials. Laboratory exercises in materials property measurements.
MAT E 220. Globalization and Sustainability.
(Cross-listed with ANTHR, ENV S, GLOBE, M E, SOC, T SC). (3-0) Cr. 3.
F.S.
An introduction to understanding the key global issues in sustainability. Focuses on interconnected roles of energy, materials, human resources, economics, and technology in building and maintaining sustainable systems. Applications discussed will include challenges in both the developed and developing world and will examine the role of technology in a resource-constrained world.
Cannot be used for technical elective credit in any engineering department.
Meets International Perspectives Requirement.
MAT E 273. Principles of Materials Science and Engineering.
(3-0) Cr. 3.
F.S.SS.
Prereq: Sophomore classification; CHEM 167 or 177; MATH 165
Introduction to the structure and properties of engineering materials. Structure of crystalline solids and imperfections. Atomic diffusion. Mechanical properties and failure of ductile and brittle materials. Dislocations and strengthening mechanisms. Phase equilibria, phase transformations, microstructure development, and heat treatment principles of common metallurgical systems including steels and aluminum alloys. Structure and mechanical properties of ceramic, polymeric and composite materials. Thermal properties of materials. Corrosion and degradation. Basic electronic properties of materials. Engineering applications.
Only one of Mat E 215, 272, 273. or 392 may count toward graduation
MAT E 298. Cooperative Education.
Cr. R.
F.S.SS.
Prereq: Permission of department and Engineering Career Services
First professional work period in the cooperative education program. Students must register for this course before commencing work.
MAT E 311. Thermodynamics in Materials Engineering.
(3-0) Cr. 3.
F.
Prereq: 216, CHEM 178, PHYS 222, credit or enrollment in MATH 267
Basic laws of thermodynamics applied to materials systems. Thermodynamics of chemical reactions. Homogeneous and heterogeneous equilibrium. Phase diagrams for materials systems.
Nonmajor graduate credit.
MAT E 314. Kinetics and Phase Equilibria in Materials.
(3-0) Cr. 3.
S.
Prereq: 216, 311
Kinetic phenomena and phase equilibria relevant to the origins and stability of microstructure in metallic, ceramic and polymeric systems. Application of thermodynamics to the understanding of stable and metastable phase equilibria, interfaces and their effects on stability: defects and diffusion, empirical rate equations for transformation kinetics, driving forces and kinetics of nucleation, diffusional and diffusionless phase transformations.
Nonmajor graduate credit.
MAT E 316. Computational Methods in Materials.
(2-2) Cr. 3.
S.
Prereq: 215
Use of mathematical and statistical computer tools for materials design and analysis. Applications of statistical principles to problems concerned with materials. Computer-assisted design of experiments.
Nonmajor graduate credit.
MAT E 317. Introduction to Electronic Properties of Ceramic, Metallic, and Polymeric Materials.
(3-0) Cr. 3.
F.
Prereq: 216 and PHYS 222
Materials Engineering majors only. Introduction to electronic properties of materials and their practical applications. Classical conduction models and electronic properties of metallic and ceramic materials. Elementary quantum mechanics and band theory of electron states in solids. Quantum theory of metallic conduction. Elementary semiconductor theory and devices. Polarization and dielectric properties of materials. Electron conduction in polymeric systems. Magnetic properties and applications of metals and ceramics.
MAT E 321. Introduction to Ceramic Science.
(3-0) Cr. 3.
F.
Prereq: 216
Ceramic crystal structures, defects, diffusion and transport. Phase equilibria and microstructures. Powder packing. Thermal, electronic, optical and magnetic properties of ceramics.
Nonmajor graduate credit.
MAT E 322. Introduction to Ceramic Processing.
(2-3) Cr. 3.
S.
Prereq: 321
Synthesis and characterization of ceramic powders. Colloidal phenomena, rheology of suspensions, ceramic forming methods, and drying. High temperature ceramic reactions, liquid and solid-state sintering, grain growth, microstructure development. Processing/microstructure/property relationships.
Nonmajor graduate credit.
MAT E 332. Semiconductor Materials and Devices.
(Cross-listed with E E). (3-0) Cr. 3.
S.
Prereq: PHYS 222; Mat E majors: MAT E 334; Cpr E and E E majors: E E 230
Introduction to semiconductor material and device physics. Quantum mechanics and band theory of semiconductors. Charge carrier distributions, generation/recombination, transport properties. Physical and electrical properties and fabrication of semiconductor devices such as MOSFETs, bipolar transistors, laser diodes and LED's.
Nonmajor graduate credit.
MAT E 334. Electronic Properties of Materials.
(2-2) Cr. 3.
S.
Prereq: 317
Electronic properties of conductors, semiconductors and dielectric materials. Quantum mechanical description of electron wave-particle duality and solutions of Shrodinger equation for free and bound electrons. Development of band theory of electron states in solids. Statistical mechanics and the density-of-states in energy bands. Thermal properties of lattices. Quantum model for metallic conduction. Semiconductor theory and semiconductor device physics. Polarization phenomena and dielectric properties of materials. Superconductivity and BCS Theory.
Nonmajor graduate credit.
MAT E 342. Structure/Property Relations in Nonferrous Metals.
(2-3) Cr. 3.
S.
Prereq: 216
Processing of metals and alloys to obtain desired mechanical properties by manipulation of their microstructure and composition of constituent phase(s). Relevance of defects to mechanical properties, plastic flow. Strengthening mechanisms in metals and alloys. Microstructure, heat treatment and mechanical properties of engineering alloys. Metal-matrix composites.
Nonmajor graduate credit.
MAT E 351. Introduction to Polymeric Materials.
(3-0) Cr. 3.
F.
Prereq: 216
Introduction to polymeric materials, synthesis, structure and properties. Relationship between polymer composition, processing and properties.
Nonmajor graduate credit.
MAT E 362. Principles of Nondestructive Testing.
(Cross-listed with E M). (3-0) Cr. 3.
S.
Prereq: PHYS 112 or 222
Radiography, ultrasonic testing, magnetic particle inspection, eddy current testing, dye penetrant inspection, and other techniques. Physical bases of tests; materials to which applicable; types of defects detectable; calibration standards, and reliability safety precautions.
Nonmajor graduate credit.
MAT E 362L. Nondestructive Testing Laboratory.
(Cross-listed with E M). (0-3) Cr. 1.
S.
Prereq: Credit or enrollment in 362
Application of nondestructive testing techniques to the detection and sizing of flaws in materials and to the characterization of material's microstructure. Included are experiments in hardness, dye penetrant, magnetic particle, x-ray, ultrasonic and eddy current testing. Field trips to industrial laboratories.
Nonmajor graduate credit.
MAT E 370. Toying with Technology.
(Cross-listed with CPR E). (2-2) Cr. 3.
F.S.
Prereq: C I 201
A project-based, hands-on learning course. Technology literacy, appreciation for technological innovations, principles behind many technological innovations, hands-on laboratory experiences based upon simple systems constructed out of LEGOs and controlled by small microcomputers. Future K-12 teachers will leave the course with complete lesson plans for use in their upcoming careers.
MAT E 388. Sustainable Engineering and International Development.
(Cross-listed with A E, C E, E E, M E). (2-2) Cr. 3.
F.
Prereq: Junior classification in engineering
Multi-disciplinary approach to sustainable engineering and international development, sustainable development, appropriate design and engineering, feasibility analysis, international aid, business development, philosophy and politics of technology, and ethics in engineering. Engineering-based projects from problem formulation through implementation. Interactions with partner community organizations or international partners such as nongovernment organizations (NGOs). Course readings, final project/design report.
Meets International Perspectives Requirement.
MAT E 389. Applied Methods in Sustainable Engineering.
(Cross-listed with M E). (3-0) Cr. 3.
Repeatable, maximum of 2 times. SS.
Learning how to work in a cross disciplinary engineering team to develop and implement appropriate solutions for cooking, lighting, farming, and sanitation in a rural village in Mali. Engineering principles necessary for the projects to be worked on including lighting solutions in a village without electricity, new construction materials, water, etc. Application of engineering principles from core courses. Design conception, feasibility, production, and implementation within context of local cultures and needs. Emphasis on creating real solutions that can be implemented with the constraints imposed by cost, time, manufacturing capability, and culture.
Meets International Perspectives Requirement.
MAT E 391. Introduction to US Women's roles in Industry and Preparation for Summer Study.
(3-0) Cr. 3.
S.
Introduction to the historical role of women as related to US industry, family and community with emphasis on the years 1830 - 1945, but also related to the current climate. Topics completed in 392 with arranged lectures at Brunel University. Orientation for Brunel summer study program.
Offered on a satisfactory-fail basis only. Credit for graduation allowable only upon completion of Mat E 392.
Meets U.S. Diversity Requirement
MAT E 392. Principles of Materials Science and Engineering.
(3-0) Cr. 3.
SS.
Prereq: 391, CHEM 167 or 177
Structure and properties of ceramic, electronic, polymeric and metallic materials, emphasizing differences based on structure and bonding. Phase equilibria and phase transformations. Taught on Brunel University campus.
Offered on a satisfactory-fail basis only. Only one of Mat E 215, 272, or 392 may count toward graduation.
Meets International Perspectives Requirement.
MAT E 396. Summer Internship.
Cr. R.
Repeatable. SS.
Prereq: Permission of department and Engineering Career Services
Summer professional work period.
MAT E 397. Engineering Internship.
Cr. R.
Repeatable. F.S.
Prereq: Permission of department and Engineering Career Services; junior classification
Professional work period, one semester maximum per academic year.
MAT E 398. Cooperative Education.
Cr. R.
F.S.SS.
Prereq: 298, permission of department and Engineering Career Services
Second professional work period in the cooperative education program. Students must register for this course before commencing work.
MAT E 413. Materials Design and Professional Practice I.
(2-2) Cr. 3.
F.
Prereq: Senior status in Mat E
Fundamentals of materials engineering design, information sources, team behavior, professional preparation, quantitative design including finite-element analysis and computer aided design, materials selection, informatics and combinatorial methods. Analysis of design problems, development of solutions, selected case studies. Oral presentation skills. Preparations for spring project.
MAT E 414. Materials Design and Professional Practice II.
(2-2) Cr. 3.
S.
Prereq: Senior status in Mat E
Integration of materials processing, structure/composition, properties and performance principles in materials engineering problems. Multi-scale design of materials, materials processing, case studies including cost analysis, ethics, risk and safety. Team projects specified by either industry or academic partners. Written and oral final project reports.
MAT E 418. Mechanical Behavior of Materials.
(3-0) Cr. 3.
S.
Prereq: 216 and credit or enrollment in E M 324
Mechanical behavior of ceramics, metals, polymers, and composites. Relationships between materials processing and atomic aspects of elasticity, plasticity, fracture, and fatigue. Life prediction, stress-and failure analysis.
Nonmajor graduate credit.
MAT E 425. Glasses and Advanced Ceramics.
(2-3) Cr. 3.
F.
Prereq: 321
Composition, structure, properties and manufacturing of inorganic glasses. Properties and applications of advanced ceramics. Structural, thermal, optical, electronic, magnetic and biological applications of ceramic materials. Contemporary topics in ceramic engineering. Laboratory exercises in preparation and characterization of glasses and advanced ceramics.
Nonmajor graduate credit.
MAT E 432. Microelectronics Fabrication Techniques.
(Cross-listed with E E). (2-4) Cr. 4.
Prereq: PHYS 222, MATH 267. EE 332 or MAT E 334 recommended
Techniques used in modern integrated circuit fabrication, including diffusion, oxidation, ion implantation, lithography, evaporation, sputtering, chemical-vapor deposition, and etching. Process integration. Process evaluation and final device testing. Extensive laboratory exercises utilizing fabrication methods to build electronic devices. Use of computer simulation tools for predicting processing outcomes. Recent advances in processing CMOS, ICs and micro-mechanical systems (MEMS).
Nonmajor graduate credit.
MAT E 433. Advanced Electronic Materials.
(2-3) Cr. 3.
F.
Prereq: 334
Advanced concepts in band theory of solids including chemical bonding in solids and the linear combination of atomic orbitals, phase transitions in electronic, magnetic, and optical materials. Dielectric materials, ferroelectricity, piezoelectricity, sensors, and non-stoichiometric conductors. Optical properties, optical spectra of materials, optoelectronic devices. Magnetic and superconducting materials.
Nonmajor graduate credit.
MAT E 443. Physical Metallurgy of Ferrous Alloys.
(2-3) Cr. 3.
F.
Prereq: 214, 216, 311
Production and processing of ferrous metals. Extraction of pig iron from ore. Steelmaking processes. Equilibrium and nonequilibrium phases in the Fe-C system. Properties and processing of cast irons, plain carbon and alloy steels, stainless and specialty steels. Transformation diagrams, hardenability, and surface treatments. Continuous casting, forging, hot rolling, quenching, and tempering as they apply to ferrous materials. Cost and mechanical performance considerations in cast iron and steel selection and heat treatment.
Nonmajor graduate credit.
MAT E 444. Corrosion and Failure Analysis.
(2-2) Cr. 3.
S.
Prereq: 216 and credit or enrollment in 418
Corrosion and corrosion control of metallic systems. Corrosion fundamentals, classification of different types of metallic corrosion, corrosion properties of various engineering alloys, corrosion control. Failure analysis. Characteristics of common types of metallic failures, case studies of failures, designing to reduce failure risk.
Nonmajor graduate credit.
MAT E 453. Physical and Mechanical Properties of Polymers.
(Dual-listed with 553). (2-3) Cr. 3.
F.
Prereq: 351
Overview of polymer chemical composition, microstructure, thermal and mechanical properties, rheology, and principles of polymer materials selection. Intensive laboratory experiments include chemical composition studies, microstructural characterization, thermal analysis, and mechanical testing.
Nonmajor graduate credit.
MAT E 454. Polymer Composites and Processing.
(Dual-listed with 554). (3-0) Cr. 3.
S.
Prereq: 351
Basic concepts in polymer composites, blends, and block copolymers. Phase separation and miscibility, microstructures and mechanical behavior. Fiber reinforced and laminated composites. Viscosity, rheology, viscoelasticity of polymers. Polymer melt processing methods such as injection molding and extrusion; selection of suitable processing methods and their applications.
Nonmajor graduate credit.
MAT E 456. Biomaterials.
(Dual-listed with 556). (3-0) Cr. 3.
S.
Prereq: 216 or 272 or 392
Presentation of the basic chemical and physical properties of biomaterials, including metals, ceramics, and polymers, as they are related to their manipulation by the engineer for incorporation into living systems. Role of microstructure properties in the choice of biomaterials and design of artificial organs, implants, and prostheses.
MAT E 466. Multidisciplinary Engineering Design.
(Cross-listed with A E, AER E, CPR E, E E, ENGR, I E, M E). (1-4) Cr. 3.
Repeatable. F.S.
Prereq: Student must be within two semesters of graduation and receive permission of the instructor
Application of team design concepts to projects of a multidisciplinary nature. Concurrent treatment of design, manufacturing and life cycle considerations. Application of design tools such as CAD, CAM, and FEM. Design methodologies, project scheduling, cost estimating, quality control, manufacturing processes. Development of a prototype and appropriate documentation in the form of written reports, oral presentations, computer models and engineering drawings.
MAT E 488. Eddy Current Nondestructive Evaluation.
(Dual-listed with 588). (Cross-listed with E E). (3-0) Cr. 3.
Alt. F., offered 2012.
Prereq: MATH 265 and (MAT E 216 or 272 or E E 311 or PHYS 364)
Electromagnetic fields of various eddy current probes. Probe field interaction with conductors, cracks and other material defects. Ferromagnetic materials. Layered conductors. Elementary inversion of probe signals to characterize defects. Special techniques including remote-field, transient, potential drop nondestructive evaluation and the use of Hall sensors. Practical assignments using a 'virtual' eddy current instrument will demonstrate key concepts.
MAT E 490. Independent Study.
Cr. arr.
Repeatable.
Investigation of individual research or special topics.
MAT E 498. Cooperative Education.
Cr. R.
Repeatable. F.S.SS.
Prereq: 398, permission of department and Engineering Career Services
Third and subsequent professional work periods in the cooperative education program. Students must register for this course before commencing work.