15.5 2nd Semester CHEM MATH ME EN American Heritage Elective 3.0. Total Hours SOPHOMORE YEAR 3rd Semester CE EN

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1 MAP Sheet Engineering and Technology, Mechanical Engineering For students entering the degree program during the curricular year. This is a limited-enrollment program requiring departmental approval. Please contact the College of Engineering and Technology Advisement Center or see the Department of Mechancial Engineering website at: for information regarding requirements for admission to this major. University Core and Graduation Requirements University Core Requirements: Requirements #Classes Hours Classes Religion Cornerstones Teachings and Doctrine of The Book of Mormon REL A 275 Jesus Christ and the Everlasting Gospel REL A 250 Foundations of the Restoration REL C 225 The Eternal Family REL C 200 The Individual and Society American Heritage from approved list Global and Cultural Awareness 1 ENG T 231* Skills First Year Writing 1 from approved list Advanced Written and Oral Communications 1 ENGL 316* Quantitative Reasoning from approved list Languages of Learning (Math or Language) MATH 112* Arts, Letters, and Sciences Civilization 1 1 from approved list Civilization 2 1 from approved list Arts 1 from approved list Letters 1 from approved list Biological Science BIO 100* or BIO 130* Physical Science 1 CE EN 204* Social Science 1 ENG T 231* Core Enrichment: Electives Religion Electives from approved list Open Electives Variable Variable personal choice FOR UNIVERSITY CORE QUESTIONS CONTACT THE COLLEGE ADVISEMENT CENTER FOR PROGRAM QUESTIONS SEE YOUR DEPARTMENT ADVISOR. *THESE CLASSES FILL BOTH UNIVERSITY CORE AND PROGRAM REQUIREMENTS (16 hours overlap). FRESHMAN YEAR 1st Semester First-Year Writing Elective BIO 100 PHSCS 121 MATH ME EN nd Semester CHEM MATH ME EN 101 American Heritage Elective 16.0 SOPHOMORE YEAR 3rd Semester CE EN 203 CE EN 204 ENG T 231 PHSCS 123 MATH th Semester EC EN 301 ME EN 250 ME EN 272 ME EN 273 MATH Suggested Sequence of Courses JUNIOR YEAR 5th Semester STAT 201 ME EN 321 ME EN 330 ME EN 335 ME EN th Semester ENGL 316 ME EN 312 ME EN ME EN 372 ME EN Letters Elective Religion Elective SENIOR YEAR 7th Semester ME EN 340 ME EN 475 Technical Elective Technical Elective Civilization 1 Elective Religion Elective th Semester ME EN 476 Technical Elective Technical Elective Civilization 2 Elective/Arts Elective Religion Elective Note: Students are encouraged to complete between credit hours each semester or credit hours each year, which could include spring and/or summer terms. Taking fewer credits increases the cost and the number of semesters to graduate. Graduation Requirements: Minimum residence hours required 30.0 Minimum hours needed to graduate 120.0

2 Program Requirements ( Credit Hours) On gaining acceptance into the professional program, students must maintain a minimum university cumulative grade point average of 2.0. No more than 6 credit hours of grades below C- in major courses may be applied toward graduation. A professional program course may not be retaken more than once. REQUIREMENT 1 Complete 4 courses BIO Principles of Biology CHEM General College Chemistry 1 with Lab (Integrated) 4.0 PHSCS Introduction to Newtonian Mechanics PHSCS Introduction to Waves, Optics, and Thermodynamics REQUIREMENT 2 Complete 1 option MATHEMATICS CORE SEQUENCES: OPTION 2.1 Complete 4 courses *MATH Calculus MATH Calculus MATH Mathematics for Engineering MATH Mathematics for Engineering OPTION 2.2 Complete 5 courses *MATH Calculus MATH Calculus MATH Elementary Linear Algebra MATH Calculus of Several Variables MATH Ordinary Differential Equations REQUIREMENT 3 Complete 5 courses PREPROFESSIONAL ENGINEERING COURSES: CE EN Engineering Mechanics--Mechanics of Materials *CE EN Engineering Mechanic--Dynamics EC EN Elements of Electrical Engineering ME EN Static Systems in Mechanical Engineering ME EN New Student Seminar 0.5 REQUIREMENT 4 Complete 14 courses PROFESSIONAL MECHANICAL ENGINEERING CORE: ME EN Science of Engineering Materials ME EN Engineering Graphics--Principles and Applications ME EN Introduction to Scientific Computing and Computer-Aided Engin ME EN Fluid Mechanics ME EN Thermodynamics ME EN Design of Mechatronic Systems ME EN Dynamic System Modeling and Analysis ME EN Heat Transfer ME EN Engineering Measurements 2.0 ME EN Mechanical System Design Fundamentals ME EN Manufacturing Processes ME EN Professional Skills in Mechanical Engineering 1.0 ME EN Integrated Product and Process Design 1 ME EN Integrated Product and Process Design 2 REQUIREMENT 5 Complete 3 courses SUPPORTING COURSES: *ENG T Foundations of Global Leadership *ENGL Technical Communication STAT Statistics for Engineers and Scientists REQUIREMENT 6 Complete 12.0 hours from the following option(s) COMPLETE THE 12-HOUR REQUIREMENT WITH COURSES FROM THE FOLLOWING: Complete 12 hours (four courses) of technical electives. The purpose of these courses is to strengthen the engineering education of the student by a) deepening the student's understanding of engineering and/or science fundamentals, b) helping the student learn to apply engineering fundamentals in specific areas of interest, and/or c) helping the student to develop critical skills related to engineering practice. The technical electives are normally 400-level or higher mechanical engineering courses, but other courses may be used as long as the following requirements are met: At least two courses (6 credit hours) must be in mechanical engineering No courses may be below the 300 level. A maximum of 3 credit hours in Me En 497R or other independent project courses may be applied to meet technical elective requirements. All courses must be of an acceptable level from mechanical engineering, civil engineering, chemical engineering, computer engineering, electrical engineering, mathematics, statistics, physics, chemistry, or computer science or be on the approved elective list on the department website. If a student wishes to count a course outside these areas as an elective, approval must be granted before the course is taken. Approval is requested by submitting a one-page petition to the department undergraduate committee that lists all of the proposed electives and demonstrates how the proposed exception meets the purposes described above. No course used to satisfy other major requirements for graduation may be used as an elective. OPTION 6.1 Complete up to 12.0 hours from the following group(s) A. GENERAL ELECTIVE OPTION GROUP Complete up to 12.0 hours from the following course(s) ME EN Applications of Fluid Dynamics ME EN Applied Aerodynamics and Flight Mechanics ME EN Applied Thermodynamics ME EN Internal Combustion Engines ME EN Gas Turbine and Jet Engine Design ME EN (Me En-EC En 483) Design of Control Systems 4.0 ME EN Kinematics ME EN Intermediate Materials ME EN Composite Material Design ME EN Computer-Aided Engineering Applications ME EN Mechanical Systems Design Applications ME EN Design for Manufacture and Assembly ME EN Singapore International Product Design and Development v ME EN Manufacturing Systems Analysis and Design ME EN Automation ME EN 495R - Mentored Learning for Undergraduate Coursework in 6.0v Mechanical Enginee ME EN 497R - Mentored Learning for Undergraduate Projects in Mechanical v Engineering ME EN (MeEn-CEEn) Design and Materials Applications ME EN (MeEn-CEEn) Stress Analysis and Design of Mechanical Structures ME EN (MeEn-CEEn) Plasticity and Fracture ME EN (Me En-CE En) Computer Structural Analysis and Optimization ME EN Applied Engineering Math ME EN (Me En-CE En) Linear Finite Element Methods ME EN (Me En-CE En) Structural Vibrations ME EN Compressible Fluid Flow ME EN Intermediate Fluid Dynamics ME EN Intermediate Thermodynamics ME EN Combustion ME EN (Me En-CE En) Aircraft Structures ME EN Dynamics of Mechanical Systems ME EN Mechanical Vibrations ME EN Advanced Mechanisms, Robotics ME EN Compliant Mechanisms ME EN Intermediate Heat and Mass Transfer ME EN Computational Fluid Dynamics and Heat Transfer ME EN (Me En-EC En) Microelectromechanical Systems (MEMS) ME EN Neuromechanics of Movement ME EN Introduction to Biomechanical Engineering ME EN Materials Modeling: Methods in Atomistic, Mesoscale, and Continuum Simu ME EN Metallurgy ME EN (Me En-Phscs) Fundamentals of Acoustics ME EN (Me En-Phscs 660) Acoustic Systems

3 ME EN (Me En-CE En) Computer-Aided Engineering Software Deve ME EN Product Development Automation ME EN (Me En-CE En) Optimization Techniques in Engineering ME EN Product Design ME EN Systems Engineering and CAD Applications ME EN Global Product Development ME EN Manufacturing Competitiveness: Quality and Productivity ME EN 595R - Topics in Mechanical Design 18.0v ME EN 595R - Topics in Materials 18.0v ME EN 595R - Special Topics in Mechanical Engineering 18.0v ME EN 595R - Advanced Dynamics 18.0v GROUP Complete up to 6.0 hours from the following course(s) C S 301R - Topics in Computer Science C S Algorithm Design and Analysis C S Systems Programming C S Concepts of Programming Languages C S Software Design and Testing C S Operating Systems Design C S Interactive Graphics and Image Processing C S 401R - Topics in Computer Science v C S Ethics and Computers in Society 2.0 C S Creating and Managing a Software Business C S Linear Programming and Convex Optimization C S Bioinformatics C S Software Engineering C S Algorithmic Languages and Compilers C S Introduction to Digital Signal and Image Processing C S Database Modeling Concepts C S Fundamentals of Information Retrieval C S Computer Graphics C S Introduction to User Interface Software C S Computer Communications and Networking C S Large-Scale Distributed System Design C S Computer Security C S Introduction to Artificial Intelligence C S 477R - Secondary Minor Student Teaching 4.0 C S Tools for Machine Learning C S Natural Language Processing C S Parallel Processing C S Verification and Validation C S 493R - Computing Competitions C S Capstone 1 C S Capstone 2 C S 497R - Undergraduate Research C S 498R - Undergraduate Special Projects v C S (C S-Chem-Geol-Math-MthEd-Phscs-Stat) Business Career Esse 1.5 C S 501R - Advanced Topics in Computer Science v C S Robust Control C S Computer-Aided Geometric Design CE EN 300A - Civil and Environmental Engineering Seminar 0.5 CE EN 300B - Civil and Environmental Engineering Seminar 0.5 CE EN Civil Engineering Materials: Metals, Woods, and Composites 1.5 CE EN Civil Engineering Materials: Concrete, Masonry, and Asphalt 1.5 CE EN Structural Analysis CE EN Hydraulics and Fluid Flow Theory CE EN Elementary Soil Mechanics CE EN Introduction to Transportation Engineering CE EN 400A - Civil and Environmental Engineering Seminar 0.5 CE EN 400B - Civil and Environmental Engineering Seminar 0.5 CE EN 400C - Civil and Environmental Engineering Online Seminar 0.5 CE EN Engineering Applications of GIS CE EN Structural Steel Design CE EN Reinforced Concrete Design CE EN International Megastructures CE EN Hydrology CE EN Hydraulic Engineering CE EN Water Resources Study Abroad CE EN Foundation Engineering CE EN Environmental Engineering Processes CE EN Geometric Design of Highways CE EN International Megacities CE EN 471A - Civil Engineering Practice 1.0 CE EN 471B - Civil Engineering Practice 1.0 CE EN Civil Engineering Design CE EN 493R - Civil and Environmental Engineering Practicum 18.0v CE EN 498R - Directed Studies in Civil and Environmental Engineering 18.0v CE EN (CE En-Me En) Design and Materials Applications CE EN (CE En-MeEn) Stress Analysis and Design of Mechanical Structures CE EN (CE En-Me En) Plasticity and Fracture CE EN (CE En-Me En) Computer Structural Analysis and Optimization CE EN Portland Cement Concrete Mixture Design and Analysis CE EN (CE En-Me En) Linear Finite Element Methods CE EN (CE En-Me En) Structural Vibrations CE EN Geospatial Environmental Engineering CE EN Seismic-Resistant Steel Buildings CE EN (CE En-Me En) Aircraft Structures CE EN Bridge Structures CE EN Masonry Design CE EN Timber Design CE EN Principles of Hydrologic Modeling CE EN Hydroinformatics CE EN Hydraulic Design of Channels and Control Structures CE EN Geo-Environmental Engineering CE EN Seepage and Slope Stability Analysis CE EN Geotechnical Analysis of Earthquake Phenomena CE EN Groundwater Modeling CE EN Water Treatment Facilities Design CE EN Environmental Chemistry CE EN Traffic Engineering: Characteristics and Operations CE EN Pavement Design CE EN Urban Transportation Planning CE EN (CE En-Me En) Computer-Aided Engineering Software Development CE EN Computer-Aided Geometric Design CE EN (CE En-Me En) Optimization Techniques in Engineering CE EN 594R - Selected Problems in Civil and Environmental Engineering v CH EN Chemical Engineering and Society-Health, Safety, and the Environment CH EN Chemical Engineering Thermodynamics CH EN Fluid Mechanics CH EN Heat and Mass Transfer CH EN Science of Engineering Materials CH EN Chemical Reaction Engineering CH EN Career Skills 1.0 CH EN Creative Skills in Chemical Engineering 1.0 CH EN Principles of Reservoir Engineering CH EN Introductory Nuclear Engineering CH EN Energy Engineering CH EN Process Control and Dynamics CH EN Chemical Engineering Plant Design and Process Synthesis 4.0 CH EN Unit Operations Laboratory CH EN Separations CH EN Unit Operations Laboratory CH EN Introduction to Semiconductor Processing 2.0 CH EN 493R - Special Topics--Undergraduate v CH EN 498R - Undergraduate Research v CH EN Molecular Modeling CH EN Biomedical Engineering Principles

4 CH EN Biochemical Engineering CH EN Industrial Catalytic Processes 2.0 CH EN Thermodynamics of Multicomponent Systems CH EN Transport Phenomena CH EN Kinetics and Catalysis CH EN Computer Design Methods CH EN Polymer Science and Engineering CH EN 593R - Special Topics - Intermediate v CHEM Guided Learning for Chemistry Instruction CHEM Organic Chemistry 1 CHEM 351M - Organic Chemistry 1 - Majors CHEM Organic Chemistry 2 CHEM 352M - Organic Chemistry 2 - Majors CHEM Organic Chemistry Laboratory--Nonmajors 2.0v CHEM Organic Chemistry Laboratory--Majors 2.0 CHEM Organic Chemistry Laboratory 2 - Nonmajors 1.0 CHEM Technical Writing Using Chemical Literature CHEM Synthesis and Qualitative Organic Analysis CHEM Physical Chemistry 1 CHEM Physical Chemistry 2 CHEM Physical Chemistry Laboratory CHEM Physical Chemistry Laboratory CHEM Physical Chemistry for Engineers CHEM Biophysical Chemistry CHEM 477R - Secondary Minor Student Teaching 4.0 CHEM Biochemistry CHEM 481M - Biochemistry--Majors CHEM Mechanisms of Molecular Biology CHEM Structural Biochemistry CHEM Senior Seminar 1.0 CHEM 496R - Academic Internship: Chemistry and Biochemistry 6.0v CHEM 497R - Mentored Learning in Biochemistry 6.0v CHEM 497R - Mentored Learning in Organic Chemistry 6.0v CHEM 497R - Undergraduate Special Problems 6.0v CHEM 497R - Mentored Learning in Chemistry Education 6.0v CHEM 497R - Mentored Learning in Physical Chemistry 6.0v CHEM 497R - Mentored Learning in Analytical Chemistry 6.0v CHEM 497R - Mentored Learning in Inorganic Chemistry 6.0v CHEM 499R - Honors Thesis 6.0v CHEM (Chem-C S-Geol-Math-MthEd-Phscs-Stat) Business Career 1.5E CHEM Inorganic Chemistry CHEM Advanced Inorganic Laboratory 2.0 CHEM Instrumental Analysis Lecture 2.0 CHEM Instrumental Analysis Laboratory 2.0 CHEM Advanced Organic Chemistry CHEM Advanced Organic Chemistry CHEM Organic Spectroscopic Identification CHEM Chemical Thermodynamics CHEM Reaction Kinetics CHEM Introduction to Quantum Chemistry CHEM Statistical Mechanics CHEM Fundamentals of Spectroscopy CHEM Polymer and Materials Chemistry CHEM Advanced Biochemical Methodology 1 CHEM Advanced Biochemical Methodology 2 CHEM Advanced Biochemistry Methods 1 CHEM Advanced Biochemistry Methods 2 CHEM 594R - General Seminar 0.5 CHEM 596R - Special Topics in Chemistry v EC EN Elements of Electrical Engineering EC EN Computer Organization 4.0 EC EN Introduction to Embedded System Programming 4.0 EC EN Electronic Circuit Design EC EN Electromagnetic Fields and Waves 4.0 EC EN Signals and Systems 4.0 EC EN Junior Team Design Project EC EN Junior Seminar 0.5 EC EN Computer Systems 4.0 EC EN Real-Time Operating Systems 4.0 EC EN Embedded Systems 4.0 EC EN Communication and Power Circuits 4.0 EC EN Introduction to Mixed-Signal VLSI 4.0 EC EN Introduction to Semiconductor Devices EC EN Experiments in Integrated Circuit Development 1.0 EC EN Electromagnetic Radiation and Propagation 2.0 EC EN Wireless Communication Circuits 2.0 EC EN Introduction to Optical Engineering 2.0 EC EN Capstone Design 1 EC EN Capstone Design 2 EC EN (EC En-Me En 431) Design of Control Systems 4.0 EC EN Introduction to Digital Communication Theory 4.0 EC EN Introduction to Discrete-Time Signal Processing 4.0 EC EN Team Design Project 4.0 EC EN 493R - Special Topics in Electrical and Computer Engineering4.0v EC EN Introduction to Algorithm Design EC EN 522R - Special Topics in Computer Systems v EC EN Computer System Reliability EC EN Computer Architecture EC EN Active and Passive Filter Design EC EN 542R - Special Topics in Electronics v EC EN CMOS Amplifier Design EC EN Analog CMOS Circuit Design EC EN VLSI Communication Circuit Design EC EN (EC En-Me En) Microelectromechanical Systems (MEMS) EC EN Introduction to Digital VLSI Circuits EC EN Optoelectronic Devices EC EN Electromagnetic Wave Theory EC EN Optical Communication Components and Systems EC EN Applied Computational Electromagnetics EC EN Radar and Communication Systems EC EN Microwave Remote Sensing EC EN Medical Imaging and Image Reconstruction MATH Modeling with Uncertainty and Data 1 MATH Modeling with Uncertainty and Data 1 Laboratory 1.0 MATH Modeling with Uncertainty and Data 2 MATH Modeling with Uncertainty and Data 2 Laboratory 1.0 MATH 406R - Topics in Mathematics MATH Introduction to Numerical Methods MATH Numerical Methods MATH Mathematical Biology MATH Probability Theory MATH Mathematical Finance MATH Modeling with Dynamics and Control 1 MATH Modeling with Dynamics and Control 1 Laboratory 1.0 MATH Modeling with Dynamics and Control 2 MATH Modeling with Dynamics and Control 2 Laboratory 1.0 MATH Introduction to Partial Differential Equations MATH Combinatorics MATH Introduction to Topology MATH Differential Geometry MATH Group Representation Theory MATH Mathematical Cryptography MATH Number Theory MATH 495R - Readings in Mathematics 2.0v MATH 499R - Senior Thesis v MATH (Math-Chem-C S-Geol-MthEd-Phscs-Stat) Business Career 1.5Essentials in Scien

5 MATH Numerical Methods for Linear Algebra MATH Numerical Methods for Partial Differential Equations MATH 513R - Advanced Topics in Applied Mathematics MATH Methods of Applied Mathematics 1 MATH Methods of Applied Mathematics 2 MATH Complex Analysis MATH Introduction to Dynamical Systems 1 MATH Linear Analysis MATH Real Analysis MATH Advanced Probability 1 MATH Advanced Probability 2 MATH Partial Differential Equations 1 MATH Foundations of Topology 1 MATH Foundations of Topology 2 MATH Introduction to Algebraic Geometry 1 MATH Introduction to Algebraic Geometry 2 MATH Differential Geometry MATH Matrix Analysis MATH Algebra 1 MATH Algebra 2 MATH Introduction to Algebraic Number Theory MATH Introduction to Analytic Number Theory PHSCS Physics By Inquiry: Mechanics PHSCS Physics By Inquiry: Electricity PHSCS 313R - Special Topics in Physics v PHSCS Introduction to Mathematical Physics PHSCS Mechanics PHSCS Observational Astronomy PHSCS Computational Physics Lab PHSCS Statistical and Thermal Physics PHSCS 391R - Seminar in Current Physics 1.0 PHSCS 399R - Academic Internship 9.0v PHSCS Writing in Physics PHSCS Introduction to Astrophysics PHSCS Introduction to Astrophysics PHSCS Computational Physics Lab PHSCS Electrostatics and Magnetism PHSCS Electrodynamics PHSCS Quantum Mechanics PHSCS Applications of Quantum Mechanics PHSCS Introduction to Acoustics PHSCS Principles of Optics PHSCS 477R - Secondary Minor Student Teaching 4.0 PHSCS 492R - Capstone Project in Applied Physics 2.0 PHSCS 497R - Research in Physics v PHSCS 498R - Senior Thesis v PHSCS (Phscs-Chem-C S-Geol-Math-MthEd-Stat) Business Career 1.5 PHSCS 513R - Special Topics in Contemporary Physics v PHSCS Advanced Observational Astronomy PHSCS Electrical Engineering Principles and Practices for Physicis 2.0 PHSCS Introduction to Plasma Physics PHSCS (Phscs-Me En) Fundamentals of Acoustics PHSCS Lasers and Atoms PHSCS Solid-State Physics PHSCS Physics of Nanostructures, Surfaces, and Interfaces STAT Statistical Learning and Data Mining STAT Mixed Model Methods STAT Survival Analysis STAT 590R - Statistical Consulting v STAT 591R - Graduate Seminar in Statistics 0.0 STAT 595R - Theory of Risk v STAT 595R - Quality Methods v STAT 595R - Special Topics in Statistics v STAT 595R - Expert Systems in Statistics v STAT 595R - Sampling Practicum v STAT 595R - Statistical Computations v STAT 595R - Biostatistical Methods v STAT 599R - Academic Internship: Statistics 9.0v PHSCS Thin-Film Physics GROUP Complete up to 6.0 hours from the following course(s) PHSCS Transmission Electron Microscopy for Physical Science and EngineeringBUS M Introduction to International Business PHSCS Physics of Semiconductor Devices CFM Construction Scheduling and Cost Control PHSCS Scanning Electron Microscopy (SEM) for Physical Science and Engineering ENG T 497R - Global Engineering Outreach Projects v PHSCS 599R - Academic Internship 9.0v You may take up to 3 credit hours. STAT Introduction to Regression GEOL Solid Earth Geophysics STAT Inference IT (Not currently offered) STAT Actuarial Problems 1.0 IT Cyber-Physical Systems STAT Statistical Models for Financial Economics MFG Metals Processes 4.0 STAT Statistical Computing MFG Quality Systems in Manufacturing STAT Big Data Science 1 MFG Plastics Materials and Processing STAT Big Data Science 2 MFG Tool Design STAT Nonparametric Statistical Methods MFG Introduction to Manufacturing Automation STAT Applications in Biostatistics MFG Process Planning and Systems Design STAT Applied Bayesian Statistics MFG Advanced Computer-Aided Manufacturing Programming STAT Quality Control and Industrial Statistics MFG Manufacturing Systems STAT Introduction to Reliability MFG Manufacturing Information Systems STAT Applied Time Series and Forecasting MFG Composite Materials and Processes STAT Life Contingencies MFG Advanced Tool Design STAT Statistical Distributions for Actuarial Modeling and Data Analytics MFG Packaging Technologies STAT 495R - Special Topics in Statistics v MFG Manufacturing Simulation STAT 496R - Academic Internship: Statistics 9.0v MFG (Not currently offered) STAT 497R - Introduction to Statistical Research v PDBIO Human Physiology 4.0 STAT 499R - Honors Thesis v RUSS 490R - Special Studies in Russian v STAT (Stat-Chem-C S-Geol-Math-MthEd-Phscs) Business Career 1.5 Essentials in Science You may and take Math this course up to 1 time. STAT Statistical Methods for Research 1 STAT Statistical Methods for Research 2 STAT Experimental Design STAT Linear Models OPTION 6.2 Complete up to 12.0 hours from the following group(s) B. MANUFACTURING OPTION The Society of Manufacturing Engineers has identified four areas of competency for manufacturing engineering as follows: (1) materials and manufacturing processes; (2) process, assembly, and product engineering; (3) manufacturing competitiveness; and (4) manufacturing systems design.

6 An option in manufacturing engineering is available. It may be completed by taking the following 15 hours of technical electives: GROUP Complete hours from the following course(s) ME EN Manufacturing Competitiveness: Quality and Productivity MFG Manufacturing Systems GROUP Complete hours from the following course(s) ME EN Manufacturing Systems Analysis and Design ME EN Automation ME EN Advanced Mechanisms, Robotics GROUP Complete hours from the following course(s) ME EN Intermediate Materials ME EN Composite Material Design ME EN Design for Manufacture and Assembly ME EN Metallurgy ME EN (Not currently offered) GROUP Complete hours from the following course(s) ME EN Intermediate Materials ME EN Composite Material Design ME EN Design for Manufacture and Assembly ME EN Manufacturing Systems Analysis and Design ME EN Automation ME EN Advanced Mechanisms, Robotics ME EN Metallurgy ME EN (Not currently offered) ME EN Manufacturing Competitiveness: Quality and Productivity MFG Manufacturing Systems When combined with required courses for all mechanical engineering majors related to manufacturing, namely Me En 250, 282, 475/476, and Stat 201, this option provides a strong foundation in manufacturing engineering. THE DISCIPLINE: Mechanical engineers work with concepts, ideas, and products that are primarily mechanical or energy related. Mechanical engineering is a broad discipline that prepares a person to contribute in a wide range of fields such as aerospace, computer graphics, power generation, machine tools, petroleum, agricultural and construction equipment, medicine, robotics, government, and all types of transportation. A mechanical engineer may work in research, design, analysis, manufacturing, BS in Mechanical Engineering (394950) testing, operations, sales, or management. Engineers use critical problem-solving methods and basic principles of mathematics and science to creatively solve problems. EDUCATIONAL OBJECTIVES: The objectives of the undergraduate Bachelors of Science program in the Department of Mechanical Engineering at Brigham Young University are to: 1. Teach the fundamental concepts of math, science, and mechanical engineering in order to produce graduates who demonstrate technical excellence and provide service to their profession, community, family, and church. 2. Instill a desire and ability to learn continuously, both through study and faith, to enable graduates to meet the changing demands of their profession and personal life. 3. Provide practical and open-ended engineering experiences in order to develop graduates who think independently and demonstrate leadership and creativity. 4. Engage students in activities to produce graduates who communicate and work effectively and ethically with people of diverse backgrounds. PROGRAM LEARNING OUTCOMES: To assure that these objectives are reached, the department has articulated twelve outcomes of the BS program. Each student graduating from this program is expected to have: 1. A basic understanding of fundamental physical phenomena and governing principles. 2. The ability to develop and solve mathematical models of fundamental physical phenomena and apply them to predict the behavior of engineering systems. 3. The ability to use engineering principles to design an innovative system, component, or process to meet desired needs. 4. The expertise to plan and conduct an experimental program and evaluate the results. 5. The ability to use modern engineering tools and techniques in engineering practice. 6. An understanding of manufacturing processes and planning. 7. Effective oral and written communication skills. 8. The ability to work with and lead others to accomplish goals. 9. An appreciation of history, philosophy, literature, science, and the fine arts and how they influence the culture and behavior of societies. 10. Personal behavior demonstrating and practicing high moral and ethical standards. 11. The ability to practice engineering in a global environment. 12. A desire for and commitment to lifelong learning and service. All courses in the curriculum are designed to help achieve these outcomes. The curriculum in mechanical engineering is accredited by the Engineering Accreditation Commission of the Accreditation Board for Engineering and Technology, Inc. (ABET). CAREER OPPORTUNITIES: A bachelor of science degree in mechanical engineering provides widely recognized professional training for careers in industry, government, and other areas. Most industrial companies hire some mechanical engineers. Companies that make mechanical or energy-related products may hire mostly mechanical engineers. As a result, many mechanical engineering positions are available worldwide. Mechanical engineers have job opportunities in companies involved in such areas as aircraft and spacecraft design; manufacturing processes; product safety and reliability; solar energy; electronic equipment packaging and cooling; power plant design; jet, train, truck, and automobile engines; environmental protection; artificial intelligence; robotics; medical and hospital equipment; new material development and applications; and technical writing. Increasing numbers of positions utilize foreign language experience. A graduate in mechanical engineering is prepared for advanced studies in the field as well as in a variety of other disciplines, including law, medicine, and business administration. Perhaps most important to graduates are the problem-solving strategies and thinking processes acquired in the study of mechanical engineering that help one to succeed in any area of endeavor. UNDERGRADUATE ADMITTANCE REQUIREMENTS: Any student may choose to major in Mechanical Engineering, and to enroll in any of the preprofessional program courses,

7 meeting the necessary prequisites. PROFESSIONAL PROGRAM ACCEPTANCE: Students must be accepted into the professional program before they may take the professional Me En core courses. To apply, students must receive a grade in the courses outlined below. They must also be in good academic standing. Admissions decisions are made by equally weighting the GPA from these courses. (See policies below regarding AP courses and transfer courses.) The first physics course taken at BYU from the sequence: PHSCS 121, PHSCS 123 The first math course taken at BYU from the sequence: MATH 112, 113, 302, 303, 313, 314, 334 The first mechanics course taken at BYU from the sequence: ME EN 101, CE EN 203, CE EN 204 ME EN 191 at BYU (PASS Grade required) AP Courses. These courses can fulfill graduation requirements; however, since there is no grade assigned to AP courses, students must take the next course in the physics, math, or mechanics sequence OR repeat the AP equivalent course for application to the professional program. Transfer Courses. If students have transferred equivalent courses from an ABET-accredited school, the grades from the transferred courses can be used in calculating the Application GPA. Alternatively, transfer students may retake the BYU equivalent course. Credit for non-abet-accredited courses can count toward graduation, but cannot be used to calculate the Admissions GPA. Students must either (a) take the BYU equivalent course or (b) take the next course in the sequence. Transfer students should talk to the undergraduate advisor to ensure compliance with admissions requirements. Acceptance Criteria. 220 students are granted acceptance to the professional program each year based on the Application GPA. Students may apply for admission more than once, however, each course may be retaken only ONE time. When a course is retaken, the higher grade will be used to calculate the Application GPA. Please see our website: byu.edu/content/applying-professional-program, for further information and recent admission data. ACADEMIC STANDARDS AND CONTINUANCE: On gaining acceptance into the ME professional program, students must maintain a minimum university cumulative GPA of 2.0. No more than 6 credit hours or two courses of grades below C in required program courses (including preprofessional and professional courses) may be applied toward graduation. A professional program course may not be retaken more than once. At least 30 of the 48.5 credit hours of Mechanical Engineering courses (ME EN) must be earned at BYU. MAP DISCLAIMER While every reasonable effort is made to ensure accuracy, there are some student populations that could have exceptions to listed requirements. Please refer to the university catalog and your college advisement center/department for complete guidelines. DEPARTMENT INFORMATION The Department of Mechanical Engineering Brigham Young University 435 Crabtree Building Provo, UT Telephone: (801) mecheng@byu.edu ADVISEMENT CENTER INFORMATION Engineering and Technology Advisement Center Brigham Youn University 242 Clyde Building Provo, UT Telephone: (801) engineering_advisement@byu.edu