Master of Engineering Management

December 8, 2025
January 12, 2026
Overview
The Ohio State University’s online Master of Engineering Management (MEM) is ranked #13 in the nation by U.S. News & World Report and prepares you to excel in your professional engineering career. Our expert faculty know that practicing engineers need leadership and management skills to adapt to the constantly changing landscape of the engineering industry. This online engineering degree is a partnership between Ohio State’s College of Engineering, the renowned and top-ranked Fisher College of Business and the nationally-acclaimed John Glenn College of Public Affairs, so you will be learning from the same dedicated experts in the fields of business, public affairs, and engineering that teach on our main campus.
Why earn your online Master of Engineering Management from Ohio State?
In this 100% online Master of Engineering Management program, you will learn new engineering management and business skills while better understanding policy and the business-government relationship. This MEM online degree is designed for working professionals and can be completed in just 5 semesters. You can complete the online coursework asynchronously and access materials at a time that best fits your schedule. An online MEM degree from Ohio State propels you forward in your career and prepares you for team leadership and positions that drive innovation. Graduates will stand out from the competition, ready to develop a compelling vision and strategic initiatives to add more value to their organizations.
Engineering excellence starts at Ohio State

Ranked
Ohio State’s Master of Engineering Management is ranked #12 in the nation for Best Online Master’s in Engineering Management Programs by U.S. News & World Report.

Ranked
Ohio State’s Master of Engineering Management is ranked #4 of 15 for Best Online Master’s in Engineering Management by GreatBusinessSchools.org

Online
Ohio State’s Master of Engineering Management program is 100%, no campus visits needed, and can be completed asynchronously

Semesters
Ohio State’s Master of Engineering Management can be completed in as little as 5 semesters when taking classes full-time

"The online Master of Engineering Management program has enabled my professional career to move further along than any other form of training. The MEM program at Ohio State has given real-life scenarios and objectives to see what it truly means to lead projects and people."
Frequently Asked Questions
In this online engineering degree, you will master financial statement analysis and managerial accounting to drive project success and support organizational goals. You will develop skills to lead diverse teams and manage projects strategically in both public and private sectors on a global scale. You will enhance your ability to evaluate performance, communicate effectively with business leaders, and apply intrapreneurship to innovate and advance new products. Additionally, you will learn information visualization techniques to analyze and manage large data sets for better decision-making and understand the global trends and critical connections between science, engineering, and public policy through a comprehensive curriculum and capstone project.
The Master of Engineering Management program from Ohio State Online propels you forward in your career, develops your team leadership skills, and equips you to drive innovation in a variety of circumstances. This master’s in Engineering Management degree blends technical knowledge with business acumen to provide a well-rounded education that prepares you for leadership roles that require both engineering and managerial expertise. All courses are 100% online and most are asynchronous, which means you can complete classwork whenever and wherever you need to, based on your schedule.
While an MBA focuses on broad business fundamentals, The Ohio State University’s online Master of Engineering Management program offers you the “best of both worlds”. With several courses offered through Ohio State’s renowned and top-ranked Fisher College of Business and the nationally-acclaimed John Glenn College of Public Affairs, you will be learning from dedicated experts in the fields of business, public affairs, and engineering. This program is specifically tailored for engineers, integrating technical problem-solving with strategic business leadership. Ohio State’s Master of Engineering Management program is ideal for those who have completed a bachelor’s degree in engineering and want to lead technical teams or manage engineering projects.
You can complete the Master of Engineering Management fully online and at your own pace, either full-time or part-time. While most students take one or two courses per semester and complete the degree in about 24 months, you have the flexibility to take courses at a pace that best fits your schedule.
An engineering manager’s salary depends on many factors, such as industry, location, education level, seniority, and individual experience. According to the most recent data from the Bureau of Labor Statistics, the average salary for architectural and engineering managers is $164,370 per year. While you may not have control over all the factors that contribute to your salary, actively furthering your education is a great way to advance your management opportunities. For a more detailed look at possible engineering manager salaries, visit the Career Outlook tab.
As different sectors of the engineering industry grow, the demand for engineering management jobs grows as well. According to the most recent data from the Bureau of Labor Statistics, the demand for architectural and engineering managers is projected to grow 6% in the next 10 years. But what are the most in demand engineering jobs? The BLS reports that industrial engineers are the most in demand engineering jobs, with projected growth of over 12% within the next ten years. The second most in demand are chemical engineers, with 10% projected growth. Bioengineers, biomedical engineers, and computer hardware engineers expect more than 7% growth, while aerospace engineers are expected to grow by 6%. No matter what corner of the engineering industry you come from, there is plenty of growth expected in the near future and a need for well-educated engineering managers.
Once you submit your contact information, a dedicated Enrollment Advisor will connect with you shortly to provide more details about this online program, provide one-on-one guidance, and answer any questions you may have as you navigate the application process.
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What is an MEM Degree?

What can I do with a Master of Engineering Management degree?

Moore Gains Engineering Expertise Through Two Online Programs
Academic Calendar
Students may apply to enroll in the Ohio State Master of Engineering Management (MEM) degree in either Autumn, Spring, or Summer semesters.
Academic Calendar
Students may apply to enroll in the Ohio State Master of Engineering Management (MEM) degree in either Autumn, Spring, or Summer semesters.
Admission Criteria
All applicants must have a completed bachelor’s degree with a minimum of a 3.0 cumulative GPA on a 4.0 scale. An undergraduate degree in engineering and at least one year of professional work or internship experience is required. Applicants with non-engineering undergraduate degrees may be considered, depending upon the type of non-engineering degree and years of technical work experience.
- Application
Applicants for admission to the MEM program must complete an Ohio State Graduate Admissions online application. - Resume
Include an updated copy of your resume listing work experience. Applicants should have at least one year of professional work experience. The resume can be uploaded in the online application system. - Academic credentials and transcripts
Copies of transcripts from all educational institutions you have attended must be submitted for degree verification and undergraduate GPA calculation. Unofficial copies can be uploaded in the online application system to form a complete application packet, but official copies of all transcripts (raised seal or notarized) must still be submitted to the Ohio State Graduate Admission’s Office. Note: You do not have to submit transcripts for coursework or degrees received from The Ohio State University. - Letters of recommendation
Please arrange to have two recommendations prepared. These can come from academic or professional connections who are familiar with your qualifications and potential for graduate study. Please contact your Enroll Advisor with any questions about potential recommenders. You will have the option of allowing your recommendations to be submitted electronically or in paper form. Instructions are provided for either method within the online application. - Statement of Intent
Include a short essay about why you wish to enroll in the MEM degree. - Nonrefundable application processing fee
A non-refundable application fee of $60 is required. Ohio State alumni may be eligible for an admissions fee waiver. - Test Scores
- A GRE score is not required.
- During the admissions process, a recommendation to enroll in the Graduate Bridge Program (to qualify for admission to the MEM degree) will be considered for the following student populations: international applicants, applicants with a degree from a non-ABET accredited institution, or applicants who have a GPA below 3.0 from the last undergraduate or advanced degree earned.

The Ohio State University participates in the State Authorization Reciprocity Agreements (SARA).
SARA is a national initiative that increases student access to distance education courses and programs while maintaining compliance with state regulations. Institutions participating in SARA can offer educational opportunities in all 49 SARA member states, the District of Columbia, the U.S. Virgin Islands and Puerto Rico without seeking individual approval in each state.
California is not a SARA member state, however, OSU may offer online courses and programs to students located in California under the California Private Post-Secondary Act of 2009.
The Application Process
Once you understand your program’s admission criteria, please note the application deadline. You’ll need a quiet space and a variety of materials for your application. To learn more, please see our Admissions page for the full process. Ready to Apply? Find your application here.

Career Outlook
Opportunities for engineering leaders are growing in exciting ways. With Engineering Manager roles projected to grow 4% nationally, now is the perfect time to gain the skills and knowledge you need to step into your next promotion. If you are looking for a career as an engineering manager, industrial production manager, computer hardware engineering manager, chemical engineering manager, aerospace engineering manager, biomedical engineering manager, or seeking a management role in your current engineering career, then this program will prepare you for advancement.
Top Occupations by Median Income
What They Do
Plan, direct, or coordinate activities in such fields as architecture and engineering or research and development in these fields.
Work Activities
Manage the coordination and overall integration of technical activities in architecture or engineering projects. Direct, review, or approve project design changes. Consult or negotiate with clients to prepare project specifications.
Wage Range
- Entry Level: $111,450
- Mid Level: $167,740
- Senior Level:
Job Outlook
Bright
Projected Growth
5.5%
Related Careers
- Electrical Engineers
- Industrial Engineers
- Logistics Engineers
- Mechatronics Engineers
- Project Management Specialists
Job Sectors
- Design
- Engineering and Technology
- Mathematics
- Administration and Management
- English Language
What They Do
Research, design, develop, or test computer or computer-related equipment for commercial, industrial, military, or scientific use. May supervise the manufacturing and installation of computer or computer-related equipment and components.
Work Activities
Update knowledge and skills to keep up with rapid advancements in computer technology. Design and develop computer hardware and support peripherals, including central processing units (CPUs), support logic, microprocessors, custom integrated circuits, and printers and disk drives. Confer with engineering staff and consult specifications to evaluate interface between hardware and software and operational and performance requirements of overall system.
Wage Range
- Entry Level: $85,430
- Mid Level: $155,020
- Senior Level: $223,820
Job Outlook
Bright
Projected Growth
7.2%
Related Careers
- Calibration Technologists and Technicians
- Computer Systems Engineers/Architects
- Electrical and Electronic Engineering Technologists and Technicians
- Electronics Engineers, Except Computer
- Software Developers
Job Sectors
- Computers and Electronics
- Engineering and Technology
- Design
- Mathematics
- English Language
What They Do
Plan, direct, or coordinate the work activities and resources necessary for manufacturing products in accordance with cost, quality, and quantity specifications.
Work Activities
Set and monitor product standards, examining samples of raw products or directing testing during processing, to ensure finished products are of prescribed quality. Direct or coordinate production, processing, distribution, or marketing activities of industrial organizations. Review processing schedules or production orders to make decisions concerning inventory requirements, staffing requirements, work procedures, or duty assignments, considering budgetary limitations and time constraints.
Wage Range
- Entry Level: $74,900
- Mid Level: $121,440
- Senior Level: $197,310
Job Outlook
Average
Projected Growth
2.8%
Related Careers
- Biofuels Production Managers
- Biomass Power Plant Managers
- General and Operations Managers
- Quality Control Systems Managers
- Transportation, Storage, and Distribution Managers
Job Sectors
- Production and Processing
- Administration and Management
- Customer and Personal Service
- Education and Training
- Mathematics
What They Do
Perform engineering duties in designing, constructing, and testing aircraft, missiles, and spacecraft. May conduct basic and applied research to evaluate adaptability of materials and equipment to aircraft design and manufacture. May recommend improvements in testing equipment and techniques.
Work Activities
Formulate mathematical models or other methods of computer analysis to develop, evaluate, or modify design, according to customer engineering requirements. Plan or conduct experimental, environmental, operational, or stress tests on models or prototypes of aircraft or aerospace systems or equipment. Formulate conceptual design of aeronautical or aerospace products or systems to meet customer requirements or conform to environmental regulations.
Wage Range
- Entry Level: $85,350
- Mid Level: $134,830
- Senior Level: $205,850
Job Outlook
Bright
Projected Growth
6%
Related Careers
- Aerospace Engineering and Operations Technologists and Technicians
- Avionics Technicians
- Electro-Mechanical and Mechatronics Technologists and Technicians
- Mechanical Engineering Technologists and Technicians
- Mechanical Engineers
Job Sectors
- Engineering and Technology
- Mathematics
- Design
- Physics
- Computers and Electronics
What They Do
Design chemical plant equipment and devise processes for manufacturing chemicals and products, such as gasoline, synthetic rubber, plastics, detergents, cement, paper, and pulp, by applying principles and technology of chemistry, physics, and engineering.
Work Activities
Monitor and analyze data from processes and experiments. Develop safety procedures to be employed by workers operating equipment or working in close proximity to ongoing chemical reactions. Develop processes to separate components of liquids or gases or generate electrical currents, using controlled chemical processes.
Wage Range
- Entry Level: $78,520
- Mid Level: $121,860
- Senior Level: $182,150
Job Outlook
Bright
Projected Growth
9.8%
Related Careers
- Chemists
- Manufacturing Engineers
- Materials Engineers
- Mechanical Engineers
- Nuclear Engineers
Job Sectors
- Engineering and Technology
- Chemistry
- Mathematics
- Physics
- Design
What They Do
Design underground or overhead wind farm collector systems and prepare and develop site specifications.
Work Activities
Create or maintain wind farm layouts, schematics, or other visual documentation for wind farms. Recommend process or infrastructure changes to improve wind turbine performance, reduce operational costs, or comply with regulations. Create models to optimize the layout of wind farm access roads, crane pads, crane paths, collection systems, substations, switchyards, or transmission lines.
Wage Range
- Entry Level: $62,840
- Mid Level: $117,750
- Senior Level: $183,510
Job Outlook
Average
Projected Growth
5%
Related Careers
- Electrical Engineers
- Energy Engineers, Except Wind and Solar
- Mechanical Engineers
- Solar Energy Systems Engineers
- Wind Energy Development Managers
Job Sectors
- Engineering and Technology
- Mathematics
- Design
- Physics
- English Language
What They Do
Apply knowledge of engineering, biology, chemistry, computer science, and biomechanical principles to the design, development, and evaluation of biological, agricultural, and health systems and products, such as artificial organs, prostheses, instrumentation, medical information systems, and health management and care delivery systems.
Work Activities
Evaluate the safety, efficiency, and effectiveness of biomedical equipment. Prepare technical reports, data summary documents, or research articles for scientific publication, regulatory submissions, or patent applications. Design or develop medical diagnostic or clinical instrumentation, equipment, or procedures, using the principles of engineering and biobehavioral sciences.
Wage Range
- Entry Level: $71,860
- Mid Level: $106,950
- Senior Level: $165,060
Job Outlook
Bright
Projected Growth
7.4%
Related Careers
- Biochemists and Biophysicists
- Bioinformatics Scientists
- Chemical Engineers
- Nanosystems Engineers
- Nanotechnology Engineering Technologists and Technicians
Job Sectors
- Engineering and Technology
- Computers and Electronics
- Mathematics
- Design
- Physics
What They Do
Develop new or improved designs for vehicle structural members, engines, transmissions, or other vehicle systems, using computer-assisted design technology. Direct building, modification, or testing of vehicle or components.
Work Activities
Conduct or direct system-level automotive testing. Provide technical direction to other engineers or engineering support personnel. Perform failure, variation, or root cause analyses.
Wage Range
- Entry Level: $68,740
- Mid Level: $102,320
- Senior Level: $161,240
Job Outlook
Bright
Projected Growth
11%
Related Careers
- Aerospace Engineers
- Electronics Engineers, Except Computer
- Industrial Engineers
- Manufacturing Engineers
- Mechanical Engineers
Job Sectors
- Engineering and Technology
- Physics
- Mathematics
- Mechanical
- Design
What They Do
Design, develop, test, and evaluate integrated systems for managing industrial production processes, including human work factors, quality control, inventory control, logistics and material flow, cost analysis, and production coordination.
Work Activities
Estimate production costs, cost saving methods, and the effects of product design changes on expenditures for management review, action, and control. Plan and establish sequence of operations to fabricate and assemble parts or products and to promote efficient utilization. Analyze statistical data and product specifications to determine standards and establish quality and reliability objectives of finished product.
Wage Range
- Entry Level: $70,000
- Mid Level: $101,140
- Senior Level: $157,140
Job Outlook
Bright
Projected Growth
12.2%
Related Careers
- Industrial Production Managers
- Manufacturing Engineers
- Mechanical Engineers
- Mechatronics Engineers
- Validation Engineers
Job Sectors
- Engineering and Technology
- Production and Processing
- Mechanical
- Design
- English Language
What They Do
Perform engineering duties in planning, designing, and overseeing construction and maintenance of building structures and facilities, such as roads, railroads, airports, bridges, harbors, channels, dams, irrigation projects, pipelines, power plants, and water and sewage systems.
Work Activities
Direct engineering activities, ensuring compliance with environmental, safety, or other governmental regulations. Manage and direct the construction, operations, or maintenance activities at project site. Inspect project sites to monitor progress and ensure conformance to design specifications and safety or sanitation standards.
Wage Range
- Entry Level: $65,920
- Mid Level: $99,590
- Senior Level: $160,990
Job Outlook
Bright
Projected Growth
6.5%
Related Careers
- Civil Engineering Technologists and Technicians
- Construction and Building Inspectors
- Construction Managers
- Transportation Engineers
- Water/Wastewater Engineers
Job Sectors
- Design
- Engineering and Technology
- Building and Construction
- Mathematics
- English Language
National occupational information in Ohio State Online’s Career Outlook tool is sourced from O*NET Online and the U.S. Bureau of Labor Statistics (BLS). The median annual wage displayed to the right of each occupational title above is based on the BLS Employment Projections program. Outlook and percent change indicate projected growth or decline over the next 10 years.
Curriculum
The Master of Engineering Management (MEM) degree is focused on developing exceptional engineering managers who are ready to lead in any organization. With core classes provided by The Ohio State University College of Engineering, John Glenn College of Public Affairs, and The Fisher College of Business, you will gain a wholistic approach to management covering business leadership, engineering and project management, finance and accounting for engineers, technology strategy and innovation management, visual data analysis and design of engineering experiments. This program also culminates in a capstone course focused on Operation Excellence that combines all the foundational principles learned in the program and applies them to solve real-world challenges. Every course is taught by the same faculty that teaches on-campus, so you are receiving the same high-quality education no matter where you are located.
You also have the opportunity to earn your Lean Six Sigma Certification in addition to the Master of Engineering Management degree if you choose to complete ISE 5810 Lean Sigma Foundations as an elective course. Yellow, Green, or even Black Belt can be earned depending upon your previous Six Sigma projects completed.
You can complete the Master of Engineering Management at your own pace, either full-time or part-time. While most students take one or two courses per semester and complete the degree in about two to three years, you have the flexibility to take courses at a rate that best fits your schedule.
Leadership and Team Effectiveness is fundamentally the product of the appropriate application of leadership and management at the group or team level. It is about your ability to get things accomplished successfully with others regardless of their position, authority, or the geographic locations of team members. Leadership is about the ability to responsibly accept, delegate, and execute any project, task, or assignment with integrity. This course is about being an engineer who has a demonstrable proficiency in and a reputation for leading and managing others to successful accomplishments. It is about gaining power and confidence in causing results in different conditions and circumstances.
*Students choose between taking this course and PUBAFRS 6050.
This course provides an introduction to public management ‐ managing public organizations and managing the public aspects of nonprofit and private sector organizations. In this course, you will consider the organization as the unit of analysis. You will build from a foundation in organizational theory and consider modern management challenges facing organizations that carry out public purposes. This course focuses on traditional public sector organizations, government funded bureaus, and agencies that deliver public services directly to citizens, but also considering other organizations that operate in the public sector (e.g. nonprofits, private firms under contract). The course begins by examining the backbone of public management-organizations and ways to evaluate and understand organizations. Students pull from organizational theory and practice to distill the core similarities and differences between organizations operating publicly, and those operating privately. You then evaluate the environment of organizations in depth, paying careful attention to identify how different environmental factors constrain and enhance the ability of managers to deliver goods and services. All organizations operate in multi-‐layered environments, but public sector organizations are perhaps unique in the complexity of their environmental circumstances. After looking externally, students then turn internally to examine processes and structures that define and direct organizational activity, including goals, decision making processes, and formal structure. The course concludes with a discussion of organizational reform, with particular focus on efforts to reform public and nonprofit organizations.
*Students choose between taking this course and ENGR 6210.
You will learn about information visualization techniques that help people analyze massive amounts of digital data to combat overload and aid sensemaking and financial decision-making with applications in retail, logistics, information systems, manufacturing, healthcare, energy and smart grids, cybersecurity, and social networks.
**Students choose between taking this course and ISE 5110.
You will plan and analyze experiments relevant to system design while learning regression and alternative approaches for hands-on data analysis. This course also prepares you to develop quantitative literacy and logical reasoning, including the ability to identify valid arguments, use mathematical models, and critically evaluate results based on data.
**Students choose between taking this course and ISE 5760.
Provides an overview of the basic topics in financial and managerial accounting. The primary focus will be on helping engineering students understand the meaning of the numbers in financial statements, their relationship to one another, and learning how they are used in planning, decision-making, and control toward achieving the objectives of an organization.
In this course you will learn how technology strategy may lead to the creation of competitive advantage. You will explore tools and frameworks related to how to evaluate highly uncertain investment proposals, whether and how to capture value from intangible, knowledge-based assets, and how to design organizations that assemble and organize resources to exploit existing advantages and explore new opportunities.
This course is intended to provide foundational and advanced project management education in an interactive online learning environment. This Project Management course focuses on relevant and best practice project management topics and case studies that will prepare the students to plan, organize, engineer for success, lead/manage, and participate in the multi-faceted and complex conditions that arise during the planning and execution of small to large engineering projects and programs.
In this capstone course, you will integrate operational excellence principles, lean leadership strategies, and process improvement methodologies into the analysis and decision-making process. You will use Lean Six Sigma tools and statistical analysis to identify bottlenecks, reduce waste, and optimize business processes relevant to engineering management.
* Students must take at least 3 credit hours (but no more than 6) in Engineering Electives.
ECE 5025 – Power Electronics: Devices, Circuits, and Applications – Provides an introduction to power electronic conversion principles. Analytical techniques will be developed through the study of widely used converter circuits.
ECE 5553 – Autonomy in Vehicles – Autonomy in the context of modern vehicles; cruise control, anti-lock brake systems (ABS), steering control/lane keeping; introduction to automated highway systems (AHS).
ECE 5554 – Powertrain Control Systems – Application of digital control system theory, from viewpoints of input-output and state variable representations, to realistic problems in automotive powertrain systems.
ENVENG 5195 – Engineering Design for Environmental Health – Students in this course will learn how to incorporate health information into the engineering design process. This material complements risk assessment by focusing on the design of engineering systems. Course will discuss balancing financial, health, performance, and other considerations. Quantitative analysis will be conducted in soil, water, air, buildings, and occupational health scenarios.
ENVENG 5600 – Science, Engineering, and Public Policy – Presents a history of the interactions between science, engineering, and public policy in the United States and in the context of global concerns (e.g. climate change, competitiveness), inquire into how various federal government, universities, & corporations conduct & fund science and engineering & explore how public sector interests & processes influence sci, engr & public policy.
ENVENG 5170 – Sustainability & Pollution Prevention Practices – An introduction to concepts of sustainability and pollution prevention with particular application to solid waste generation, disposal and management.
ISE 5810 – Lean Sigma Foundations – Comprehensive foundation course in Integrated Lean and Six Sigma for students pursuing Yellow, Green, or Black Belt Certification. This course covers unique modern additive manufacturing processes and addresses polymers, ceramics, metals, and hybrid materials. Applications and limitations of additive manufacturing are also discussed.
MATSCEN 5655 – Additive Manufacturing for Bio-Medical Devices – Survey of Additive Manufacturing (AM) patient data acquisition and medical device Computer Aided Design (CAD), medical research and clinical grade AM materials and AM fabrication methods, quality assurance/management systems and regulatory (FDA) approval process.
MATSCEN 5951 – Corrosion and Failure Analysis – Covers fundamentals of environmental degradation of materials, corrosion phenomenology, and corrosion prevention strategies. Also, methodologies for root cause analysis of failed components.
MATSCEN 6735 – Corrosion Science and Materials Electrochemistry – ElectDiffusion and Interface Kinetics electrochemistry fundamentals, corrosion thermodynamics and kinetics, experimental approaches, corrosion phenomenology, corrosion control strategies, nonmetallic material degradation, electrochemistry of batteries, fuel cells, and electrodeposition.
MECHENG 5339 – Simulation Techniques for Dynamic Systems – Introduction and use of software tools for dynamic system modeling, control system analysis, and design. Application to real-world dynamic systems, with emphasis on model development and validation, parameter identification, and results presentation.
MECHENG 7236 – Powertrain Dynamics – Overview of dynamics and control of automotive powertrain systems. Emphasis on subsystem interactions. Analytical and numerical methods for dynamics of gas exchange, fueling, combustion and exhaust, and mechanical engine and transmission systems.
MECHENG 7383 – Electrochemical Energy Conversions and Storage Systems for Automotive Application – This graduate course targets graduate engineering students and professionals who would like to receive a comprehensive and general exposure to the field of electrochemical energy conversion and storage systems. Particular relevance is given to energy storage systems for electrified vehicles based upon Lithium-ion technology, covering cell materials and fundamental properties, testing procedures for performance characterization, modeling and simulation, pack design, system integration, control, diagnostics and safety.
MECHENG 7384 – Energy Modeling, Simulation, Optimization and Control of Advanced Vehicles – Fundamentals of advanced propulsion vehicles (HEV, PHEV, BEV, FCV), covering motivation, architectures, taxonomy and components, energy analysis, modeling, simulation, optimization, and supervisory control/energy management principles.
WELDENG 5027 – Introduction to Additive Manufacturing – This course covers unique modern additive manufacturing processes and addresses polymers, ceramics, metals, and hybrid materials. Applications and limitations of additive manufacturing are also discussed.
WELDENG 7001 – Physical Principles in Welding Processes – Study of the application of physical principles in engineering of arc welding processes and equipment.
WELDENG 7101 – Welding Metallurgy – Comprehensive coverage of spark-ignited internal combustion engines modeling (fluid dynamics, thermodynamics and combustion). Additional coverage of compression ignition engine modeling and boosting.
WELDENG 7115 – Computational Modeling of Additive Manufacturing and Welding – Graduate-level instruction on the theory of temperature, stress, deformation and phase transformation for additive manufacturing and welding, as well as application of industry-standard simulation codes.
WELDENG 7201 – Engineering Analysis for Design and Simulation – Fundamentals of engineering analysis of heat flow, thermal and residual stresses, and fracture and fatigue with applications to design and simulation in welding and manufacturing.
WELDENG 7406 – Welding of Plastics and Composites – Theory and practice in welding of plastics and polymeric composites, including theory and analysis of welding processes, part and joint design, and process selection.
MBA 6233 – Operations Management – Operations Management is designed to provide a solid foundation and deeper understanding of how the operations function contributes to ensuring effective and efficient flow of materials and information within and outside the organization.
MBA 6273 – Data Analysis for Managers – Introduction to data analysis and statistics for business. Emphasis on achieving an application-oriented understanding of statistical inference and regression analysis and their use in decision-making.
MBA 6253 – Marketing Management – Focuses on the interrelated elements of the marketing mix, its relationship with the other functional areas of management, and marketing responses to the external environment.
PUBAFRS 5750 – The Business-Government Relationship – Government and Business are inextricably linked in the United States. Public Policies, including regulations, taxes, and programs, have a large influence on the economy and the environment in which business operates. Likewise, the health and productivity of business impacts the economy, government revenues, and the need for government services. In turn, both government and business are substantially affected by financial institutions and services. First, the course provides an introduction to the history and ideological foundations of capitalism and government. Second, it introduces the core needs of business and how these are affected by the public sector. Next, students consider the role of government in the business environment and economy. And finally, students look at the mechanisms that businesses use to influence public policy.
PUBAFRS 5610 – Innovation, Policy, and the Global Economy – This course examines frameworks and theories of public administration, governance, and policy for science and engineering at the international level. It will critique existing theories of global knowledge development and transfer, governance, and trade through the lens of science and engineering.
PUBAFRS 5770 – Risk and Decision Analysis in Public Affairs – This course provides a comprehensive assessment of theories and tools for decision-making in the face of risk and uncertainty, giving a rigorous treatment of current issues and approaches in risk analysis through both qualitative and quantitative lenses.
PUBAFRS 6075 – Data, Models & Evaluation – This course will provide the knowledge and tools necessary to analyze data. You will learn about the fundamentals of statistics to conduct analysis, and you will develop an understanding of program evaluation and research design in order to evaluate the quality of analyses conducted by others and communicate findings.
Understanding Online Course Types
As you research the right online program for you, you likely will come across the terms “asynchronous” and “synchronous.” Learn what these terms mean and how they’re important to consider when understanding how a program will fit into your life.
Learn More

Program Faculty

Mike Rayo, PhD
Associate Professor, Integrated Systems Engineering
“On one side, I am a scientist and educator seeking to obtain and share new knowledge about how to better understand the intersection of people, technology, and work. My focus is on directing attention, team communication and predicting the effectiveness of AI-fueled solutions in real-world, high-stakes situations.
On the other side, I am a designer and researcher committed to applying all that I’ve learned about user-centered design, human factors and cognitive systems engineering in order to make products easier to use and complex systems safer. I began my career in applications development, dove deeply into user-centered design, and rounded out my perspective with an immersion in understanding the cognitive underpinnings of individual and team performance.
Design informed and validated by research is what brings my two sides together. I’m the kind of guy that always thinks it can be done better, but understands the realities of product and system development and the value of delivering something to the market.”
Michael Leiblein
Associate Professor
Jack Slavinski
Lecturer
Marc Smith
Senior Lecturer
Ted Allen
Professor
Testimonials
Hear why our graduates chose the Master of Engineering Management degree at The Ohio State University!
Testimonials
Hear why our graduates chose the Master of Engineering Management degree at The Ohio State University!

"The online Master of Engineering Management program has enabled my professional career to move further along than any other form of training. The MEM program at Ohio State has given real-life scenarios and objectives to see what it truly means to lead projects and people."
Tuition Fee Overview
Investing in your future with a higher education degree is one of the best investments you can make for your future success. At Ohio State, we know understanding your program’s cost is an important part of your decision-making process. Below are the tuition fees you can expect with your program.
Estimates are based on the expenses typical of an Ohio State Online student, who would take 6 credit hours each semester as a part-time student, or either 8 credit hours (for graduate programs) or 12 credit hours (for undergraduate programs) each semester as a full-time student. Actual costs may vary.
Tuition Fees | Per Credit Hour (unless otherwise noted) | Part-Time | Full-Time |
---|---|---|---|
Instructional Fee | $1,070.00 | $6,420.00 | $8,560.00 |
General Fee | $32.63 | $195.78 | $261.00 |
Learning Technology Fee | $42.50 | $255.00 (per semester) | $255.00 (per semester) |
Distance Learning Fee | $100.00 (per semester) | $100.00 | $100.00 |
Non-Resident Surcharge (if applicable) | $200.00 (per semester) | $200.00 | $200.00 |
Textbooks & Course Material | $560.00 (course total) | $560.00 (course total) | $560.00 (course total) |
Tuition fees are subject to change. The table above serves as a guide and not an official bursar’s bill. Full-Time costs are total tuition costs per semester.
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Tips for Online Learning from Ohio State Students and Faculty
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