The Master of Science in Engineering (MSE) - may be characterized as being both career-oriented and flexible. Program plans and options are available to accommodate the needs of nearly every engineering graduate student. Graduate students enrolled in any of the engineering graduate programs must complete:
- 30 semester hours for the thesis plan,
- 30 semester hours for the non-thesis/course plan,
- 30 semester hours for the management plan,
- 30 semester hours for the internship plan, or
- 30 semester hours for the 4+1 Bachelor's/Master's Program*.
*The 4+1 Bachelor's/Master's Program is only available to students already in the YSU Engineering undergraduate program.
The degree requirements consist of core courses, technical courses, and project courses. The management plan also requires a series of business courses. These degree programs are designed to provide graduate students with the knowledge and skills to excel in professional careers and/or pursue a Ph.D. or doctorate degree in engineering. To obtain a list of discipline-specific technical course requirements for a particular engineering discipline, students should contact the program director for the program of interest.
Program Plans
Thesis Plan
Graduate students choosing the thesis plan are required to complete 30 semester hours of graduate coursework. This plan is strongly recommended for candidates who wish to continue their graduate studies beyond the master’s degree. The thesis provides firsthand experience in experimental design, literature review, research methodology, technical report writing, and oral presentation of results. It also enables students to develop deeper expertise in their chosen area of specialization.
- 9 semester hours of Mathematics, Computer Science and Engineering Courses
- 3 semester hours of seminar course
- 6 semester hours of thesis
- 12 semester hours of discipline-specific technical courses
| COURSE | TITLE | S.H. |
|---|---|---|
| Mathematics, Computer Science and Engineering Courses Courses | 9 s.h. | |
| Advanced Engineering Mathematics 1 | ||
| Advanced Engineering Mathematics 2 | ||
or CSCI 6951 | Data Science and Machine Learning | |
| Project Planning and Management | ||
| Seminar Course | 3 s.h. | |
| Seminar (Course is repeated 3 times at 1 s.h. each time.) | ||
| Master'sThesis | 6 s.h. | |
| Thesis | ||
| Discipline-Specific Technical Courses A minimum of 6 s.h. must be 6900 level. | 12 s.h. | |
Mechanical Engineering Courses | ||
Non-thesis Course Plan
The non-thesis plan is designed for students who wish to deepen their knowledge and skills for careers as practicing engineers and who do not intend to pursue doctoral study. This plan requires 30 semester hours of coursework:
- 9 semester hours of Mathematics, Computer Science and Engineering Courses
- 3 semester hours of seminar course
- 3 semester hours of graduate project
- 15 semester hours of discipline-specific technical courses
Students enrolled in the graduate project must present and defend their results in a public presentation to the engineering faculty and students.
| COURSE | TITLE | S.H. |
|---|---|---|
| Mathematics, Computer Science and Engineering Courses Courses | 9 s.h. | |
| Advanced Engineering Mathematics 1 | ||
| Advanced Engineering Mathematics 2 | ||
or CSCI 6951 | Data Science and Machine Learning | |
| Project Planning and Management | ||
| Seminar Course | 3 s.h. | |
| Seminar (Course is repeated 3 times at 1 s.h. each time.) | ||
| Graduate Project | 3 s.h. | |
| Graduate Project | ||
| Discipline-Specific Technical Courses A minimum of 6 s.h. must be 6900 level. | 15 s.h. | |
Mechanical Engineering Courses | ||
Management Plan
Students who have been in the work arena and are moving into an engineering management role may wish to choose the management plan. A total of 30 semester hours of coursework is required for this plan. This consists of:
- 9 semester hours of Mathematics, Computer Science and Engineering Courses
- 3 semester hours seminar course
- 9 semester hours of business and engineering courses
- 9 semester hours of discipline-specific technical courses
| COURSE | TITLE | S.H. |
|---|---|---|
| Mathematics, Computer Science and Engineering Courses Courses | 9 s.h. | |
| Advanced Engineering Mathematics 1 | ||
| Advanced Engineering Mathematics 2 | ||
or CSCI 6951 | Data Science and Machine Learning | |
| Project Planning and Management | ||
| Seminar Course | 3 s.h. | |
| Seminar (Course is repeated 3 times at 1 s.h. each time.) | ||
| Business and Engineering Management Courses | 9 s.h. | |
| Operations & Supply Chain Strategy | ||
Business Courses OMBA 69XX 6 s.h. | ||
| Discipline-Specific Technical Courses A minimum of 6 s.h. must be 6900 level. | 9 s.h. | |
Mechanical Engineering Courses | ||
Internship Plan
Students who have internship credits may wish to choose the Internship plan. A total of 30 semester hours of coursework is required for this plan. This consists of:
- 9 semester hours of core courses,
- 3 semester hours of seminar courses
- 6 semester hours of Internship courses
- 12 semester hours of technical courses
Course List COURSE TITLE S.H. Mathematics, Computer Science and Engineering Courses 9 s.h. Advanced Engineering Mathematics 1 Advanced Engineering Mathematics 2 or CSCI 6951Data Science and Machine Learning Project Planning and Management Seminar Course 3 s.h. Seminar (Course is repeated 3 times at 1 s.h. each time.) Internship 6 s.h. STEM Graduate Internships Discipline-Specific Technical Courses A minimum of 6 s.h. must be 6900 level. 12 s.h. Mechanical Engineering Courses
4+1 Bachelor's/Master's Program Plan
A total of 30 semester hours of coursework is required for this plan. This consists of:
- 9 semester hours of core courses
- 12 semester hours of technical courses
- 3 semester hours of Seminar
- 6 semester-hour graduate project or 6 semester-hour thesis
Undergraduate students can apply for admission into the 4+1 Bachelor's/Master's Program after completing 78 semester hours with a GPA of 3.3 or higher. After being admitted into the program, students can take a maximum of nine semester hours of graduate coursework that can count toward both a bachelor's and master's degree. The courses chosen to count for both undergraduate and graduate coursework must be approved by the Graduate Program Director upon admission into the program. An additional three hours of graduate coursework can be completed as an undergraduate and used exclusively for graduate credit.
Learning Outcomes:
- Demonstrate subject mastery and competence in the area of mechanical engineering specialization in order to practice as an influential mechanical engineer
- Demonstrate the ability to use common theoretical, experimental, and computational techniques in mechanical engineering
- Demonstrate the ability to use effectively oral and written communication to convey engineering concepts to a broad audience and to successfully practice engineering in a multi-disciplinary team
- Demonstrate an understanding of the need for, and ability to engage in life-long learning by participation in professional societies, professional registration, publications, technical and scientific presentations at professional meetings, enrollment in a doctoral program, etc.
- Demonstrate an understanding the impact of engineering solutions in a global, environmental, social, and economic context. Understand the importance of sustainability in contemporary global context
- Demonstrate the ability to conduct independent research relevant to solve in an original and effective manner the problem(s) at hand
- Demonstrate an understanding of professionally and ethically responsible practices in mechanical engineering
MECH 5811 Solar Engineering 3 s.h.
Radiational characteristics of solar energy, glass materials and selective coatings. Analysis of flat plate collectors, concentrators, and thermal storage. System simulation and economic analysis for optimization of basic solar systems.
Prereq.: PHYS 2611, MECH 3725 or consent of chairperson.
MECH 5820 Turbulence 3 s.h.
Physics of turbulence in thermal-fluid engineering systems; statistical descriptions, energy cascade and scales of turbulent motion. Modeling and simulation of turbulent flows. Examples of turbulence in mixing layers, combustion, and wall-bounded flows.
Prereq.: MECH 3720 or PHYS 3705 or CHEN 3786 (or equivalent).
MECH 5825 Heat Transfer 2 3 s.h.
Advanced topics in heat transfer. Multi-dimensional conduction, free convection, phase change heat transfer and thermal radiation. Integration of analytical, numerical, and computational methods into design projects.
Prereq.: MECH 3708 and MECH 3725.
MECH 5836 Fluid Power and Control 3 s.h.
Theory of prime movers, turbomachinery, and control systems. Modeling of hydraulic and pneumatic systems and components. Hydraulic fluids, pumps, cylinders, valves, motors, compressors, and actuators. Hydraulic and pneumatic circuit applications and control.
Prereq.: MECH 3725.
MECH 5842 Kinetics of Machines 3 s.h.
Three dimensional kinematics and dynamics of machines. Dynamic analysis and design; balancing of machines.
Prereq.: MECH 3742.
MECH 5852 Stress and Strain Analysis 2 3 s.h.
Continuation of MECH 3751. Introduction to applied elasticity theory including plane stress and strain and stress functions. Plastic and creep behavior of materials. Introduction to instability. Emphasis on design applications.
Prereq.: MECH 3751, MECH 3751L, MATH 3705.
MECH 5872 Engineering Acoustics 3 s.h.
The nature of sound and its propagation; analysis and control of sound and noise production in mechanical equipment; transmission and absorption of sound in engineering materials, ultrasonics, structural acoustics, base measurements, and equipment.
Prereq.: MECH 3708.
MECH 5881 Mechanical Vibrations 3 s.h.
Introduction to mechanical vibrations: single and multi-degree of freedom systems, free and forced vibrations, impedance and modal analysis including applications.
Prereq.: MECH 3708.
MECH 5881L Mechanical Vibrations Laboratory 1 s.h.
Introduction to vibrations measurements. Experiments with mechanical systems, computer simulation of vibration systems. Experimental determination of component models and parameters. Three hours laboratory per week.
Prereq.: MECH 5881.
MECH 5884 Finite Element Analysis 3 s.h.
Fundamental principles of finite element analysis with emphasis on applications to design in areas of stress analysis, vibrations, and heat transfer. Use of commercial software.
Prereq.: MECH 3708, MECH 3725, MECH 3751.
MECH 5885 Computational Fluid Dynamics 4 s.h.
Understand finite differential and finite volumes methods used in CFD. Understand the need for various turbulence models and how to choose them. Become proficient at disseminating the results form a CFD software. Three hours lecture and three hours laboratory per week.
Prereq.: MECH 3720 and MECH 3725.
MECH 5892 Control of Mechanical Systems 3 s.h.
Introduction to theory of feedback and control. Performance and stability of linear systems. Design of feedback control systems. Practical application and introduction to state-space methods. Two hours lecture and three hours laboratory per week.
Prereq.: MECH 3708.
MECH 6900 Special Topics 2-4 s.h.
Special topics and new developments in mechanical engineering. Subject matter and credit hours to be announced in advance of each offering. May be taken three times.
Prereq.: As announced or permission of instructor.
MECH 6904 Advanced Thermodynamics 3 s.h.
Laws of equilibrium thermodynamics; relations between properties and aspects of the Second Law. Exergy analysis. Macroscopic and microscopic considerations for the prediction of properties. Microscopic description based on classical and quantum statistics. General stability criteria, statistical equilibrium, and trend toward equilibrium fluctuations.
Prereq.: Permission of graduate advisor.
MECH 6915 Failure Analysis 3 s.h.
Advanced methods in failure analysis of metallics, ceramics, polymers, and composites. Numerous practical examples will be discussed. Individual student projects using scanning electron microscopy are required. Three hours lecture and three hours laboratory.
MECH 6925 Computational Heat Transfer 3 s.h.
Numerical modeling techniques and methods in heat transfer. Computational analysis of conduction and convection by the finite element method, finite difference method, and the method of coordinate transformation.
Prereq.: MATH 3705 Differential Equations and MECH 3725 Heat Transfer I, or permission of instructor.
MECH 6930 Advanced Fluid Mechanics and Heat Transfer 3 s.h.
Viscous and inviscid flows, Navier-Stokes equations, Euler equations, and complex variables methods. Analytic solutions to advanced heat transfer problems, advanced boundary-value problems.
Prereq.: MECH 3725 Heat Transfer I or equivalent.
MECH 6945 Advanced Dynamics 3 s.h.
Three-dimensional vector statics; kinematics and kinetics of particles and rigid bodies; energy, momentum, and stability. LaGrange's equations of motion for particles and rigid bodies impulse; small oscillations; nonholonomic and dissipative systems.
Prereq.: Permission of graduate advisor.
MECH 6950 Engineering Tribology 3 s.h.
Fundamentals of surface interactions by the effects from surface topography, physical & chemical energies, and mechanical contact. Surface damage mechanisms by frictional contacts including adhesion, abrasion, and fatigue. Fundamental lubrication theories including hydrodynamic, hydrostatic, elastohydrodynamic and boundary layers. Design considerations and selection of tribological machine components. Restrictions: Undergraduate level physics, chemistry, and materials mechanics and science.
MECH 6952 Applied Elasticity 3 s.h.
Equations or equilibrium, compatibility and boundary conditions-their applications to plane stress and plane strain problems. Stress functions, strain energy methods, stress distribution in anile symmetrical bodies; special problems in structures involving torsion and bending of prismatical bars.
Prereq.: MECH 3751 Stress and Strain Analysis I or equivalent, or permission of graduate advisor.
MECH 6962 Mechanical Design Analysis 3 s.h.
The study of analytical aspects and the application of engineering science topics to machine elements and machinery. Some case studies in mechanical design.
Prereq.: Permission of graduate advisor.
MECH 6963 Advanced Stress Analysis 3 s.h.
Theory and engineering applications of the most recent techniques of experimental stress analysis, brittle coatings, photoelasticity, strain gauges, photostress.
Prereq.: MECH 3751 Stress and Strain Analysis I or equivalent or permission of graduate advisor.
MECH 6983 Modern Power Sources 3 s.h.
Analytical and descriptive study of modern power plants. Combustion and environmental problems with fossil-fueled power plants. Electromagnetic circuits and devices with emphasis on the principles of electromechanical energy conversions.
Prereq.: Permission of graduate advisor.
Cross-Listed:as CHEN 6983 and ECEN 6983.
MECH 6985 Electromechanical Motion Devices 3 s.h.
Thermodynamics of batteries, and electric and fuel cells. Power from nuclear isotopes. Features common to rotating electromagnetic fields. Analysis and design of electromechanical power components. Logical circuit design with I/O structure and interface.
Cross-Listed:as CHEN 6985 and ECEN 6985.
MECH 6990 Thesis 2-6 s.h.
.
MECH 6992 Graduate Projects 3 s.h.
Analysis, design, research, or other independent investigation on projects selected with the advice and approval of the student's graduate committee.
S. Cory Brozina, Ph.D., Assistant Professor
Student support and success in engineering; learning analytics; first-year engineering
Kyosung Choo, Ph.D., Professor
Heat and mass transfer; multiphase flow; phase change phenomena; data center cooling; energy audit of buildings; microchannel heat exchangers; linear friction welding; laser welding; kinetics of human body performance
Brian K. Friedrich, Ph.D., Assistant Professor
Materials science; weld microstructure analysis; mechanical properties of materials; radiation and hydrogen embrittlement effects on reactor structural materials; structural analysis; finite element analysis; computational fluid dynamics; heat transfer
Hazel Marie, Ph.D., Professor
FEA/CFD modeling applied to solid-fluid interaction of thin film lubrication sealing; mechanical material modeling of soft biological tissue
Stefan Moldovan, Ph.D., Assistant Professor
Numerical and experimental investigations of wind turbines; supersonic flutter of rocket fins; cooling of nuclear reactors and electric generators for aerospace; micro jet engines combustion chamber; thermal deburring; crystal growth reactors; centrifugal compressors
Alexander H. Pesch, Ph.D., Assistant Professor
Jae Joong Ryu, Ph.D., Associate Professor
Effect of process induced anisotropic microstructure on sliding contact fatigue damage of titanium alloy joint implants; mechanical load assisted dissolution response of medical‐grade metals and alloys
Elvin B. Shields, Ph.D., Professor
Mechanical vibrations; fracture mechanics; kinematics; the scholarship of teaching and learning
Virgil C. Solomon, Ph.D., Professor
Synthesis of shape memory alloys, ceramic-metal composites and nanostructures and their characterization using metallography, thermal analysis and analytical scanning and transmission electron microscopy techniques
Brian D. Vuksanovich, M.S.M.E., Professor
Advanced manufacturing, industrial robotics, and metal casting
Bharat Yelamanchi, Ph.D., Assistant Professor
Additive manufacturing and material development for hybrid manufacturing, especially DED/hybrid DED of metals; additive manufacturing of composites, ceramics, and energy-storage components with emphasis on designing and characterizing high-performance structures and functional devices such as 3D-printed battery electrodes/current collectors and architected lattices, process optimization, and mechanical/electrochemical performance
