Program details
Interested in a Mechanical Engineering Degree?
The Mechanical Engineering (B.S.) program is accredited by the Engineering Accreditation Commission of ABET, https://www.abet.org, under the General Criteria and the Program Criteria for Mechanical and Similarly Named Engineering Programs.
- Curriculum (Print version PDF)
- Course descriptions (Office of Registrar)
- College undergraduate admissions
Enrollment
Fall 2023 - 1,410
Fall 2022 – 1,355
Fall 2021 – 1,340
Fall 2020 – 1,451
Fall 2019 – 1,497
Degrees awarded
2022 - 2023 - 275
2021-2022 - 224
2020-2021 - 243
2019-2020 - 306
2018-2019 - 259
Curriculum
Courses
1. University Requirements: (23-24 credits (cr))
- Writing, Rhetoric and American Cultures (WRA) 4 cr
- Integrative Studies in Humanities (IAH)
IAH 201-210 and IAH 211 or > 8 cr - Integrative Studies in Social Sciences (ISS)
ISS 2XX and ISS 3XX 8 cr - Bioscience (one of the following):
- BS 161, ENT 205, IBIO 150, MMG 141, MMG 201, PLB 105, PSL 250 3-4 cr
2. College Requirements: (32 cr) *College Admission Requirement
- *CEM 141 General Chemistry 4 cr
- *CSE 231 Introduction to Programming I 4 cr
- *EGR 100 Introduction to Engineering Design 2 cr
- *MTH 132 Calculus I 3 cr
- *MTH 133 Calculus II 4 cr
- MTH 234 Multivariable Calculus 4 cr
- MTH 235 Differential Equations 3 cr
- *PHY 183 Physics for Scientists and Engineers I 4 cr
- PHY 184 Physics for Scientists and Engineers II 4 cr
3. Major Requirements: (65 cr)
a. Complete all of the following courses: (13 cr)
- CE 221 Statics 3 cr
- CEM 161 Chemistry Laboratory I 1 cr
- ECE 345 Electronic Instrumentation and Systems 3 cr
- MSE 250 Materials Science and Engineering 3 cr
- STT 351 Probability and Statistics for Engineering 3 cr
b. Complete all of the following courses: (40 cr)
- ME 201 Thermodynamics 3
- ME 222 Mechanics of Deformable Solids 3
- ME 280 Graphic Communications 2 cr
- ME 300 Professional Issues in Mechanical Eng 1 cr
- ME 332 Fluid Mechanics (W) 4 cr
- ME 361 Dynamics 3 cr
- ME 370 Mechanical Design and Manufacturing I 3 cr
- ME 391 Mechanical Engineering Analysis 3 cr
- ME 410 Heat Transfer 3 cr
- ME 412 Heat Transfer Laboratory (W) 2 cr
- ME 451 Control Systems (W) 4 cr
- ME 461 Mechanical Vibrations 3 cr
- ME 470 Mechanical Design and Manufacturing II 3 cr
- ME 481 Mechanical Engr Design Projects (W) 3 cr
c. Senior Electives: (9 cr)
Complete a minimum of nine credits from the following:
- ME 413 Cryogenic Systems Analysis 3 cr
- ME 414 Mechanical Design of Cryogenic Systems 3 cr
- ME 416 Computer Asstd Design of Thermal Sys 3 cr
- ME 417 Design of Alternative Energy Systems 3 cr
- ME 422 Introduction to Combustion 3 cr
- ME 423 Intermed Mech of Deformable Solids 3 cr
- ME 425 Experimental Mechanics 3 cr
- ME 426 Introduction to Composite Materials 3 cr
- ME 433 Intro to Computational Fluid Dynamics 3 cr
- ME 440 Aerospace Propulsion 3 cr
- ME 441 Aerodynamics and Aircraft Performance 3 cr
- ME 442 Turbomachinery 3 cr
- ME 444 Automotive Engines 3 cr
- ME 445 Automotive Powertrain Design 3 cr
- ME 456 Mechatronics 3 cr
- ME 464 Intermediate Dynamics 3 cr
- ME 465 Computer Aided Optimal Design 3 cr
- ME 475 Computer Aided Design of Structures 3 cr
- ME 477 Manufacturing Processes 3 cr
- ME 478 Product Development 3 cr
- ME 490 Independent Study in Mechanical Engr 1-4 cr
- ME 491 Selected Topics in Mechanical Engr 1-4 cr
- ME 494 Biofluid Mechanics and Heat Transfer 3 cr
- ME 495 Tissue Mechanics 3 cr
- ME 496 Biomechanical Analysis of Human Movement 3 cr
- ME 497 Biomechanical Design in Product Dev 3 cr
d. Design-Intensive Senior Electives: (3) Complete a minimum of three additional credits from:
- ME 414 Mechanical Design of Cryogenic Systems 3 cr
- ME 416 Computer Asstd Design of Thermal Sys 3 cr
- ME 417 Design of Alternative Energy Systems 3 cr
- ME 442 Turbomachinery 3 cr
- ME 445 Automotive Powertrain Design 3 cr
- ME 456 Mechatronics 3 cr
- ME 465 Computer Aided Optimal Design 3 cr
- ME 475 Computer Aided Design of Structures 3 cr
- ME 478 Product Development 3 cr
- ME 497 Biomechanical Design in Product Dev 3 cr
Courses used to fulfill item 3.c. may not be used to fulfill 3.d.
Concentrations:
The Department offers concentrations in aerospace engineering, automotive powertrain, biomedical engineering, computational design, cryogenic engineering, energy, engineering mechanics, global engineering, and manufacturing engineering to students wishing an area of specialization in their degree. The concentrations are available to, but not required of, any student enrolled in the Bachelor of Science degree program in Mechanical Engineering. NOTE: Completing the Bachelor of Science degree in Mechanical Engineering with a concentration may require more than 128 credits. Upon completion of the required courses for one of these concentrations, certification will appear on the student’s official transcript.
Aerospace Engineering Concentration: (12 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with an aerospace engineering concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following courses: (6 cr)
- ME 440 Aerospace Propulsion 3 cr
- ME 441 Aerodynamics and Aircraft Performance 3 cr
One of the following courses: (3 cr)
- ME 423 Intermediate Mech of Deformable Solids 3 cr
- ME 426 Introduction to Composite Materials 3 cr
- ME 456 Mechatronics 3 cr
- ME 475 Computer Aided Design of Structures 3 cr
One of the following courses: (3 cr)
- ME 422 Introduction to Combustion 3 cr
- ME 433 Intro to Computational Fluid Dynamics 3 cr
- ME 442 Turbomachinery 3 cr
Automotive Powertrain Concentration: (12 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with an automotive powertrain concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following: (9 cr)
- ME 422 Intro to Combustion 3 cr
- ME 444 Automotive Engines 3 cr
- ME 445 Automotive Powertrain Design 3 cr
One of the following: (3 cr)
- ME 433 Intro to Computational Fluid Dynamic 3 cr
- ME 442 Turbomachinery 3 cr
Biomedical Engineering Concentration: (16 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with a biomedical engineering concentration, students must complete the requirements for the B.S. degree, including the following:
Both of the following courses: (7 cr)
- BS 161 Cell and Molecular Biology 3 cr
- PSL 250 Introductory Physiology 4 cr
Select nine credits from the following courses: (9 cr)
- BE 444 Biosensors for Medical Diagnostics 3 cr
- ECE 445 Biomedical Instrumentation 3 cr
- ME 494 Biofluid Mechanics and Heat Transfer 3 cr
- ME 495 Tissue Mechanics 3 cr
- ME 496 Biomechanical Analysis of Human Movement 3 cr
- ME 497 Biomechanical Design in Product Dev 3 cr
- MSE 425 Biomaterials and Biocompatibility 3 cr
Students who select BE444, ECE445, and/or MSE 425 may request to apply these course credits towards fulfilment of the Mechanical Engineering Major Senior-Elective requirement (item 3c)
Computational Design Concentration: (12 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with a computational design concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following: (12 cr)
- ME 416 Computer Assisted Design of Thermal Systems 3 cr
- ME 433 Intr to Computational Fluid Dynamics 3 cr
- ME 465 Computer Aided Optimal Design 3 cr
- ME 475 Computer Aided Design of Structures 3 cr
Cryogenic Engineering Concentration: (12 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with a cryogenic engineering concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following: (12 cr)
- ME 413 Cryogenic Systems Analysis 3 cr
- ME 414 Mechanical Design of Cryogenic Systems 3 cr
- ME 416 Computer Assisted Design of Thermal Systems 3 cr
- ME 442 Turbomachinery 3 cr
Energy Concentration: (12 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with an energy concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following courses: (6 cr)
- ME 416 Computer Assisted Design of Thermal Systems 3 cr
- ME 417 Design of Alternative Energy Systems 3 cr
Two of the following courses: (6 cr)
- ME 422 Introduction to Combustion 3 cr
- ME 440 Aerospace Propulsion 3 cr
- ME 442 Turbomachinery 3 cr
- ME 444 Automotive Engines 3 cr
Engineering Mechanics Concentration: (12 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with an engineering mechanics concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following: (12 cr)
- ME 423 Intermediate Mechanics of Deform Solids 3 cr
- ME 425 Experimental Mechanics 3
- ME 464 Intermediate Dynamics 3 cr
- ME 475 Computer Aided Design of Structures 3 cr
Manufacturing Engineering Concentration: (13 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with a manufacturing engineering concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following courses: (7 cr)
- ME 372 Machine Tool Laboratory 1 cr
- ME 477 Manufacturing Processes 3 cr
- ME 478 Product Development 3 cr
Select one of the following courses: (3 cr)
- CHE 472 Composite Materials Processing 3 cr
- ECE 415 Computer Aided Manufacturing 3 cr
- MSE 426 Introduction to Composite Materials 3 cr
Select one of the following courses: (3 cr)
- ACC 230 Survey of Accounting Concepts 3 cr
- EC 201 Intro to Microeconomics 3 cr
Students who select CHE472, ECE415, and/or MSE 426 may request to apply these course credits towards fulfilment of the Mechanical Engineering Major Senior-Elective requirement (item 3c)
Total Credits Required for Degree 128 cr
The requirements listed apply to students admitted to the major of Mechanical Engineering in the Department of Mechanical Engineering beginning Fall 2023. The Department of Mechanical Engineering (ME) constantly reviews program requirements and reserves the right to make changes as necessary. Consequently, each student is strongly encouraged to consult with their advisor to obtain assistance in planning an appropriate schedule of courses.
Some courses may have prerequisites, which are not otherwise required in the program. Students should check course descriptions to ensure they are aware of prerequisites. a. Complete one of the following courses: (1 cr)
Sample
First year
| Fall | Credits | Spring | Credits |
| Bioscience | 3/4 | CEM 161 | 1 |
| CEM 141 | 4 | CSE 231 | 4 |
| EGR 100 | 2 | MTH 133 | 4 |
| MTH 132 | 3 | PHY 183 | 4 |
| ISS 2XX | 4 | WRA | 4 |
| Total | 16/17 | Total | 17 |
Sophomore year
| Fall | Credits | Spring | Credits |
| ME 280 | 2 | MSE 250 | 3 |
| MTH 234 | 4 | ME 201 | 3 |
| CE 221 | 3 | ME 222 | 3 |
| PHY 184 | 4 | MTH 235 | 3 |
| IAH 201-210 | 4 | IAH 211 or > | 4 |
| Total | 17 | Total | 16 |
Junior year
| Fall | Credits | Spring | Credits |
| Elective | 4 | Elective | 4 |
| ME 300 | 1 | ME 370 | 3 |
| ME 391 | 3 | ME 332 | 4 |
| ME 361 | 3 | ECE 345 | 3 |
| STT 351 | 3 | ISS 3XX | 4 |
| Total | 14 | Total | 18 |
Senior year
| Fall | Credits | Spring | Credits |
| ME 410 | 3 | ME 412 | 2 |
| ME 470 | 3 | ME 451 | 4 |
| ME 461 | 3 | ME 481 | 3 |
| Senior Elective | 3 | Senior Elective | 3 |
| Design Intensive Senior Elective | 3 | Senior Elective | 3 |
| Total | 15 | Total | 15 |
Program Objectives
Within 3 to 5 years of graduation our graduates are expected to:
- Have evolved into competent and ethical engineers practicing in a diverse range of current and emerging activities
- Use their mechanical engineering education as a stimulus for personal and professional growth
- Demonstrate capability, creativity, leadership, and application of knowledge
- Be critical thinkers, both independently and as members of a team, who identify problems and develop effective solutions
Objectives and outcomes
Within 3 to 5 years of graduation, our are expected to:
- Have evolved into competent and ethical engineers practicing in a diverse range of current and emerging activities
- Use their mechanical engineering education as a stimulus for personal and professional growth
- Demonstrate capability, creativity, leadership, and application of knowledge
- Be critical thinkers, both independently and as members of a team, who identify problems and develop effective solutions
Our graduates will have:
- An ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics.
- An ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental and economic factors.
- An ability to communicate effectively with a range of audiences.
- An ability to recognize ethical and professional responsibilities in engineering situations.
- An ability to make informed judgements, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts.5A. An ability to function effectively on a team whose members together provide leadership.
- An ability to function effectively on a team whose members together create a collaborative and inclusive environment.
- An ability to function effectively on a team whose members together establish goals, plan tasks, and meet objectives.
- An ability to develop and conduct appropriate experimentation.
- An ability to analyze and interpret data, using engineering judgement to draw conclusions.
- An ability to acquire and apply new knowledge as needed, beyond what is taught in lecture, using appropriate learning strategies.
More info
What do Mechanical Engineers do?
The skills that mechanical engineers acquire through their college education have the widest area of application of all engineers and lead to the greatest diversity of employment opportunities. This diversity benefits mechanical engineers because they are able to obtain employment in a different economic sector when another is declining. This has served them well; and because of it, most recent mechanical engineering graduates have been able to find employment.
The mechanical engineer's domain is the realm of motion and energy. Mechanical engineers design and build automobiles, aircraft, rocket ships, and much more. Civil engineers build buildings, but mechanical engineers design and implement the systems to control the buildings' temperature and relative humidity. Chemical engineers develop new plastics, coatings, and adhesives; mechanical engineers use them in the design of new products. Mechanical engineers work hand-in-hand with electrical engineers in the design of electrical devices. Computer engineers build computer programs, but mechanical engineers use them to solve problems.
Mechanical engineers touch almost every aspect of technology and society. The field of mechanical engineering plays a critical role in many industries, such as energy, automotive, aerospace, biomedical, and consumer products. Mechanical engineers apply their skills in technologies such as mechatronics, alternative energy systems, and manufacturing. Additional areas where mechanical engineers play an important role are fuel cells, robotics, and environmental control.
Mechanical engineers practice in a variety of settings: industry, consulting practices, government, and universities. They may work in classrooms, factories, offices, or laboratories as teachers, managers, researchers, or sales engineers.
Companies that hire Mechanical Engineering graduates include:
- Ford
- General Motors
- Daimler Chrysler
- Nissan
- Boeing
- General Electric
- 3M
- Shell Oil
- Dow Chemical
- Hewlett-Packard
- Motorola
- Consumers Energy
- Black and Veatch
- Accenture
- Ernst & Young
- Timken
- Ingersoll Rand
- Tecumseh
- Colgate
- Whirlpool
- Union Pacific
- Allied Signal
- Eaton Corporation
Starting job titles for Mechanical Engineerings graduates include:
- Mechanical Engineer
- Product Engineer
- Process Engineer
- Systems Engineer
- Powertrain Engineer
- Research and Development Engineer
- Testing Engineer
- Product Design Engineer
- Manufacturing Engineer
- Industrial Engineer
- Production Engineer
- Project Engineer
- Application Engineer
What happens after earning an undergrad degree?
Most mechanical engineers (approximately 50% nationally and 75% of the MSU graduates) go on to receive advanced degrees. Many receive a technical Master's degree, while some focus on the MBA. Mechanical engineers who find themselves in management positions quite often have both a technical M.S. and an MBA. A few mechanical engineers receive Ph.D. degrees in engineering degrees and pursue academic or research careers. The Bachelor of Science degree in Mechanical Engineering is also a strong foundation for those who plan to attend law or medical school to become lawyers and doctors.
Program details
Interested in a Mechanical Engineering Degree?
The Mechanical Engineering (B.S.) program is accredited by the Engineering Accreditation Commission of ABET, https://www.abet.org, under the General Criteria and the Program Criteria for Mechanical and Similarly Named Engineering Programs.
- Curriculum (Print version PDF)
- Course descriptions (Office of Registrar)
- College undergraduate admissions
Enrollment
Fall 2023 - 1,410
Fall 2022 – 1,355
Fall 2021 – 1,340
Fall 2020 – 1,451
Fall 2019 – 1,497
Degrees awarded
2022 - 2023 - 275
2021-2022 - 224
2020-2021 - 243
2019-2020 - 306
2018-2019 - 259
Curriculum
Courses
1. University Requirements: (23-24 credits (cr))
- Writing, Rhetoric and American Cultures (WRA) 4 cr
- Integrative Studies in Humanities (IAH)
IAH 201-210 and IAH 211 or > 8 cr - Integrative Studies in Social Sciences (ISS)
ISS 2XX and ISS 3XX 8 cr - Bioscience (one of the following):
- BS 161, ENT 205, IBIO 150, MMG 141, MMG 201, PLB 105, PSL 250 3-4 cr
2. College Requirements: (32 cr) *College Admission Requirement
- *CEM 141 General Chemistry 4 cr
- *CSE 231 Introduction to Programming I 4 cr
- *EGR 100 Introduction to Engineering Design 2 cr
- *MTH 132 Calculus I 3 cr
- *MTH 133 Calculus II 4 cr
- MTH 234 Multivariable Calculus 4 cr
- MTH 235 Differential Equations 3 cr
- *PHY 183 Physics for Scientists and Engineers I 4 cr
- PHY 184 Physics for Scientists and Engineers II 4 cr
3. Major Requirements: (65 cr)
a. Complete all of the following courses: (13 cr)
- CE 221 Statics 3 cr
- CEM 161 Chemistry Laboratory I 1 cr
- ECE 345 Electronic Instrumentation and Systems 3 cr
- MSE 250 Materials Science and Engineering 3 cr
- STT 351 Probability and Statistics for Engineering 3 cr
b. Complete all of the following courses: (40 cr)
- ME 201 Thermodynamics 3
- ME 222 Mechanics of Deformable Solids 3
- ME 280 Graphic Communications 2 cr
- ME 300 Professional Issues in Mechanical Eng 1 cr
- ME 332 Fluid Mechanics (W) 4 cr
- ME 361 Dynamics 3 cr
- ME 370 Mechanical Design and Manufacturing I 3 cr
- ME 391 Mechanical Engineering Analysis 3 cr
- ME 410 Heat Transfer 3 cr
- ME 412 Heat Transfer Laboratory (W) 2 cr
- ME 451 Control Systems (W) 4 cr
- ME 461 Mechanical Vibrations 3 cr
- ME 470 Mechanical Design and Manufacturing II 3 cr
- ME 481 Mechanical Engr Design Projects (W) 3 cr
c. Senior Electives: (9 cr)
Complete a minimum of nine credits from the following:
- ME 413 Cryogenic Systems Analysis 3 cr
- ME 414 Mechanical Design of Cryogenic Systems 3 cr
- ME 416 Computer Asstd Design of Thermal Sys 3 cr
- ME 417 Design of Alternative Energy Systems 3 cr
- ME 422 Introduction to Combustion 3 cr
- ME 423 Intermed Mech of Deformable Solids 3 cr
- ME 425 Experimental Mechanics 3 cr
- ME 426 Introduction to Composite Materials 3 cr
- ME 433 Intro to Computational Fluid Dynamics 3 cr
- ME 440 Aerospace Propulsion 3 cr
- ME 441 Aerodynamics and Aircraft Performance 3 cr
- ME 442 Turbomachinery 3 cr
- ME 444 Automotive Engines 3 cr
- ME 445 Automotive Powertrain Design 3 cr
- ME 456 Mechatronics 3 cr
- ME 464 Intermediate Dynamics 3 cr
- ME 465 Computer Aided Optimal Design 3 cr
- ME 475 Computer Aided Design of Structures 3 cr
- ME 477 Manufacturing Processes 3 cr
- ME 478 Product Development 3 cr
- ME 490 Independent Study in Mechanical Engr 1-4 cr
- ME 491 Selected Topics in Mechanical Engr 1-4 cr
- ME 494 Biofluid Mechanics and Heat Transfer 3 cr
- ME 495 Tissue Mechanics 3 cr
- ME 496 Biomechanical Analysis of Human Movement 3 cr
- ME 497 Biomechanical Design in Product Dev 3 cr
d. Design-Intensive Senior Electives: (3) Complete a minimum of three additional credits from:
- ME 414 Mechanical Design of Cryogenic Systems 3 cr
- ME 416 Computer Asstd Design of Thermal Sys 3 cr
- ME 417 Design of Alternative Energy Systems 3 cr
- ME 442 Turbomachinery 3 cr
- ME 445 Automotive Powertrain Design 3 cr
- ME 456 Mechatronics 3 cr
- ME 465 Computer Aided Optimal Design 3 cr
- ME 475 Computer Aided Design of Structures 3 cr
- ME 478 Product Development 3 cr
- ME 497 Biomechanical Design in Product Dev 3 cr
Courses used to fulfill item 3.c. may not be used to fulfill 3.d.
Concentrations:
The Department offers concentrations in aerospace engineering, automotive powertrain, biomedical engineering, computational design, cryogenic engineering, energy, engineering mechanics, global engineering, and manufacturing engineering to students wishing an area of specialization in their degree. The concentrations are available to, but not required of, any student enrolled in the Bachelor of Science degree program in Mechanical Engineering. NOTE: Completing the Bachelor of Science degree in Mechanical Engineering with a concentration may require more than 128 credits. Upon completion of the required courses for one of these concentrations, certification will appear on the student’s official transcript.
Aerospace Engineering Concentration: (12 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with an aerospace engineering concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following courses: (6 cr)
- ME 440 Aerospace Propulsion 3 cr
- ME 441 Aerodynamics and Aircraft Performance 3 cr
One of the following courses: (3 cr)
- ME 423 Intermediate Mech of Deformable Solids 3 cr
- ME 426 Introduction to Composite Materials 3 cr
- ME 456 Mechatronics 3 cr
- ME 475 Computer Aided Design of Structures 3 cr
One of the following courses: (3 cr)
- ME 422 Introduction to Combustion 3 cr
- ME 433 Intro to Computational Fluid Dynamics 3 cr
- ME 442 Turbomachinery 3 cr
Automotive Powertrain Concentration: (12 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with an automotive powertrain concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following: (9 cr)
- ME 422 Intro to Combustion 3 cr
- ME 444 Automotive Engines 3 cr
- ME 445 Automotive Powertrain Design 3 cr
One of the following: (3 cr)
- ME 433 Intro to Computational Fluid Dynamic 3 cr
- ME 442 Turbomachinery 3 cr
Biomedical Engineering Concentration: (16 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with a biomedical engineering concentration, students must complete the requirements for the B.S. degree, including the following:
Both of the following courses: (7 cr)
- BS 161 Cell and Molecular Biology 3 cr
- PSL 250 Introductory Physiology 4 cr
Select nine credits from the following courses: (9 cr)
- BE 444 Biosensors for Medical Diagnostics 3 cr
- ECE 445 Biomedical Instrumentation 3 cr
- ME 494 Biofluid Mechanics and Heat Transfer 3 cr
- ME 495 Tissue Mechanics 3 cr
- ME 496 Biomechanical Analysis of Human Movement 3 cr
- ME 497 Biomechanical Design in Product Dev 3 cr
- MSE 425 Biomaterials and Biocompatibility 3 cr
Students who select BE444, ECE445, and/or MSE 425 may request to apply these course credits towards fulfilment of the Mechanical Engineering Major Senior-Elective requirement (item 3c)
Computational Design Concentration: (12 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with a computational design concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following: (12 cr)
- ME 416 Computer Assisted Design of Thermal Systems 3 cr
- ME 433 Intr to Computational Fluid Dynamics 3 cr
- ME 465 Computer Aided Optimal Design 3 cr
- ME 475 Computer Aided Design of Structures 3 cr
Cryogenic Engineering Concentration: (12 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with a cryogenic engineering concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following: (12 cr)
- ME 413 Cryogenic Systems Analysis 3 cr
- ME 414 Mechanical Design of Cryogenic Systems 3 cr
- ME 416 Computer Assisted Design of Thermal Systems 3 cr
- ME 442 Turbomachinery 3 cr
Energy Concentration: (12 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with an energy concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following courses: (6 cr)
- ME 416 Computer Assisted Design of Thermal Systems 3 cr
- ME 417 Design of Alternative Energy Systems 3 cr
Two of the following courses: (6 cr)
- ME 422 Introduction to Combustion 3 cr
- ME 440 Aerospace Propulsion 3 cr
- ME 442 Turbomachinery 3 cr
- ME 444 Automotive Engines 3 cr
Engineering Mechanics Concentration: (12 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with an engineering mechanics concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following: (12 cr)
- ME 423 Intermediate Mechanics of Deform Solids 3 cr
- ME 425 Experimental Mechanics 3
- ME 464 Intermediate Dynamics 3 cr
- ME 475 Computer Aided Design of Structures 3 cr
Manufacturing Engineering Concentration: (13 cr)
To earn a Bachelor of Science degree in Mechanical Engineering with a manufacturing engineering concentration, students must complete the requirements for the B.S. degree, including the following:
All of the following courses: (7 cr)
- ME 372 Machine Tool Laboratory 1 cr
- ME 477 Manufacturing Processes 3 cr
- ME 478 Product Development 3 cr
Select one of the following courses: (3 cr)
- CHE 472 Composite Materials Processing 3 cr
- ECE 415 Computer Aided Manufacturing 3 cr
- MSE 426 Introduction to Composite Materials 3 cr
Select one of the following courses: (3 cr)
- ACC 230 Survey of Accounting Concepts 3 cr
- EC 201 Intro to Microeconomics 3 cr
Students who select CHE472, ECE415, and/or MSE 426 may request to apply these course credits towards fulfilment of the Mechanical Engineering Major Senior-Elective requirement (item 3c)
Total Credits Required for Degree 128 cr
The requirements listed apply to students admitted to the major of Mechanical Engineering in the Department of Mechanical Engineering beginning Fall 2023. The Department of Mechanical Engineering (ME) constantly reviews program requirements and reserves the right to make changes as necessary. Consequently, each student is strongly encouraged to consult with their advisor to obtain assistance in planning an appropriate schedule of courses.
Some courses may have prerequisites, which are not otherwise required in the program. Students should check course descriptions to ensure they are aware of prerequisites. a. Complete one of the following courses: (1 cr)
Sample
First year
| Fall | Credits | Spring | Credits |
| Bioscience | 3/4 | CEM 161 | 1 |
| CEM 141 | 4 | CSE 231 | 4 |
| EGR 100 | 2 | MTH 133 | 4 |
| MTH 132 | 3 | PHY 183 | 4 |
| ISS 2XX | 4 | WRA | 4 |
| Total | 16/17 | Total | 17 |
Sophomore year
| Fall | Credits | Spring | Credits |
| ME 280 | 2 | MSE 250 | 3 |
| MTH 234 | 4 | ME 201 | 3 |
| CE 221 | 3 | ME 222 | 3 |
| PHY 184 | 4 | MTH 235 | 3 |
| IAH 201-210 | 4 | IAH 211 or > | 4 |
| Total | 17 | Total | 16 |
Junior year
| Fall | Credits | Spring | Credits |
| Elective | 4 | Elective | 4 |
| ME 300 | 1 | ME 370 | 3 |
| ME 391 | 3 | ME 332 | 4 |
| ME 361 | 3 | ECE 345 | 3 |
| STT 351 | 3 | ISS 3XX | 4 |
| Total | 14 | Total | 18 |
Senior year
| Fall | Credits | Spring | Credits |
| ME 410 | 3 | ME 412 | 2 |
| ME 470 | 3 | ME 451 | 4 |
| ME 461 | 3 | ME 481 | 3 |
| Senior Elective | 3 | Senior Elective | 3 |
| Design Intensive Senior Elective | 3 | Senior Elective | 3 |
| Total | 15 | Total | 15 |
Program Objectives
Within 3 to 5 years of graduation our graduates are expected to:
- Have evolved into competent and ethical engineers practicing in a diverse range of current and emerging activities
- Use their mechanical engineering education as a stimulus for personal and professional growth
- Demonstrate capability, creativity, leadership, and application of knowledge
- Be critical thinkers, both independently and as members of a team, who identify problems and develop effective solutions
Objectives and outcomes
Within 3 to 5 years of graduation, our are expected to:
- Have evolved into competent and ethical engineers practicing in a diverse range of current and emerging activities
- Use their mechanical engineering education as a stimulus for personal and professional growth
- Demonstrate capability, creativity, leadership, and application of knowledge
- Be critical thinkers, both independently and as members of a team, who identify problems and develop effective solutions
Our graduates will have:
- An ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics.
- An ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental and economic factors.
- An ability to communicate effectively with a range of audiences.
- An ability to recognize ethical and professional responsibilities in engineering situations.
- An ability to make informed judgements, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts.5A. An ability to function effectively on a team whose members together provide leadership.
- An ability to function effectively on a team whose members together create a collaborative and inclusive environment.
- An ability to function effectively on a team whose members together establish goals, plan tasks, and meet objectives.
- An ability to develop and conduct appropriate experimentation.
- An ability to analyze and interpret data, using engineering judgement to draw conclusions.
- An ability to acquire and apply new knowledge as needed, beyond what is taught in lecture, using appropriate learning strategies.
More info
What do Mechanical Engineers do?
The skills that mechanical engineers acquire through their college education have the widest area of application of all engineers and lead to the greatest diversity of employment opportunities. This diversity benefits mechanical engineers because they are able to obtain employment in a different economic sector when another is declining. This has served them well; and because of it, most recent mechanical engineering graduates have been able to find employment.
The mechanical engineer's domain is the realm of motion and energy. Mechanical engineers design and build automobiles, aircraft, rocket ships, and much more. Civil engineers build buildings, but mechanical engineers design and implement the systems to control the buildings' temperature and relative humidity. Chemical engineers develop new plastics, coatings, and adhesives; mechanical engineers use them in the design of new products. Mechanical engineers work hand-in-hand with electrical engineers in the design of electrical devices. Computer engineers build computer programs, but mechanical engineers use them to solve problems.
Mechanical engineers touch almost every aspect of technology and society. The field of mechanical engineering plays a critical role in many industries, such as energy, automotive, aerospace, biomedical, and consumer products. Mechanical engineers apply their skills in technologies such as mechatronics, alternative energy systems, and manufacturing. Additional areas where mechanical engineers play an important role are fuel cells, robotics, and environmental control.
Mechanical engineers practice in a variety of settings: industry, consulting practices, government, and universities. They may work in classrooms, factories, offices, or laboratories as teachers, managers, researchers, or sales engineers.
Companies that hire Mechanical Engineering graduates include:
- Ford
- General Motors
- Daimler Chrysler
- Nissan
- Boeing
- General Electric
- 3M
- Shell Oil
- Dow Chemical
- Hewlett-Packard
- Motorola
- Consumers Energy
- Black and Veatch
- Accenture
- Ernst & Young
- Timken
- Ingersoll Rand
- Tecumseh
- Colgate
- Whirlpool
- Union Pacific
- Allied Signal
- Eaton Corporation
Starting job titles for Mechanical Engineerings graduates include:
- Mechanical Engineer
- Product Engineer
- Process Engineer
- Systems Engineer
- Powertrain Engineer
- Research and Development Engineer
- Testing Engineer
- Product Design Engineer
- Manufacturing Engineer
- Industrial Engineer
- Production Engineer
- Project Engineer
- Application Engineer
What happens after earning an undergrad degree?
Most mechanical engineers (approximately 50% nationally and 75% of the MSU graduates) go on to receive advanced degrees. Many receive a technical Master's degree, while some focus on the MBA. Mechanical engineers who find themselves in management positions quite often have both a technical M.S. and an MBA. A few mechanical engineers receive Ph.D. degrees in engineering degrees and pursue academic or research careers. The Bachelor of Science degree in Mechanical Engineering is also a strong foundation for those who plan to attend law or medical school to become lawyers and doctors.
Concentrations
Aerospace concentration (12 Credits)
IMPORTANT: 1) For the latest and most accurate version of this concentration, please refer to the Dept. of Mechanical Engineering website. Earlier versions are invalid and will not be honored. 2) You MUST meet with the ME junior/senior advisor and arrange for the concentration code to be added to your record PRIOR to applying for graduation. This ensures that the concentration statement will appear on your final transcript. To make an appointment, call (517) 355-3338.
A mechanical engineering degree with the aerospace engineering concentration recognizes the expertise of students in subjects related to aerospace applications and to the aerospace industry, which provides many career opportunities for mechanical engineering graduates. Students who meet the requirements of this concentration will have expertise in aerodynamics, propulsion, and structures, supplemented by other strengths in the core Mechanical Engineering degree program.
To complete a Bachelor of Science degree in mechanical engineering with an aerospace engineering concentration, students must complete the requirements for the B.S. degree, including:
- ME 440: Aerospace Propulsion - 3 credits (Fall Only)
- ME 441: Aerodynamics and Aircraft Performance - 3 credits (Spring Only)
Plus one course from the following list:
- ME 423: Intermediate Mechanics of Deformable Solids - 3 credits (Fall Only)
- ME 426: Introduction to Composite Materials - 3 credits (Spring Only)
- ME 456*: Mechatronic System Design 3 credits (Spring Only)
- ME 475*: Computer Aided Design of Structures - 3 credits (Fall Only)
Plus one course from the following list:
- ME 422: Introduction to Combustion - 3 credits (Fall Only)
- ME 433: Computational Fluid Dynamics - 3 credits (Spring Only)
- ME 442*: Turbomachinery - 3 credits (Spring Only)
Credit distribution: The 12 credits in the concentration will be applied to the Senior Elective requirement (including the “design intensive” course component). Completion of the concentration will be noted on the final transcript.
The asterisk (*) signifies that the course is design intensive.
Automotive Powertrain concentration (12 Credits)
IMPORTANT: 1) For the latest and most accurate version of this concentration, please refer to the Dept. of Mechanical Engineering website. Earlier versions are invalid and will not be honored. 2) You MUST meet with the ME junior/senior advisor and arrange for the concentration code to be added to your record PRIOR to applying for graduation. This ensures that the concentration statement will appear on your final transcript. To make an appointment, call (517) 355-3338.
A mechanical engineering degree with the automotive powertrain concentration attests to the interests and expertise of students in subjects that are of direct relevance to today’s automotive industry. This industry, which is currently dominated by vehicles powered by internal combustion engines, adapts rapidly to technological changes and environmental regulation and provides many career opportunities for mechanical engineering graduates. Students who meet the requirements of this concentration will have expertise in fundamentals of combustion, modern applications of computational fluid mechanics and heat transfer, and a range of technical aspects of today’s vehicle powertrains.
To complete a Bachelor of Science degree in mechanical engineering with an automotive powertrain concentration, students must complete the requirements for the B.S. degree, including:
- ME 422: Introduction to Combustion - 3 credits (Fall Only)
- ME 444: Automotive Engines - 3 credits (Fall Only)
- ME 445*: Automotive Powertrain Design - 3 credits (Spring Only)
Plus one course from the following list:
- ME 433: Computational Fluid Dynamics - 3 credits (Spring Only)
- ME 442*: Turbomachinery - 3 credits (Spring Only)
Credit distribution: The 12 credits in the concentration will be applied to the Senior Elective requirement (including the “design intensive” course component).
Completion of the concentration will be noted on the final transcript.
The asterisk (*) signifies that the course is design intensive.
Biomedical concentration (16 Credits)
IMPORTANT: 1) For the latest and most accurate version of this concentration, please refer to the Dept. of Mechanical Engineering website. Earlier versions are invalid and will not be honored. 2) You MUST meet with the ME junior/senior advisor and arrange for the concentraiton code to be added to your record PRIOR to applying for graduation. This ensures that the concentration statement will appear on your final transcript. To make an appointment, call (517) 355-3338.
A mechanical engineering degree with the biomedical concentration prepares students for both traditional mechanical engineering as well as biomedical engineering. Engineers trained in biomedical engineering find work designing, for example, prosthetics, artificial joints, automotive safety equipment, robotics for telemedicine, heart valves, left ventricle assist devices, and the whole range of medical devices. Research by biomedical engineers includes studying the strength of bones and soft tissues, the motion of cells, the kinematics of human motion, and the flow of blood.
To complete a Bachelor of Science degree in mechanical engineering with a biomedical concentration, students must complete the requirements for the B.S. degree, including the following:
- PSL 250: Introductory Physiology - 4 credits (Fall and Spring)
- BS 161: Cells and Molecules - 3 credits (Fall, Spring and Summer)
Plus 9 credits from the following list:
- ME 494: Biofluid Mechanics and Heat Transfer - 3 credits (Fall Only)
- ME 495: Tissue Mechanics - 3 credits (Spring Only)
- ME 496: Biomechanical Analysis of Human Movement - 3 credits (Fall of Even Years)
- ME 497*: Biomechanical Design 1 - 3 credits (Spring Only)
- BE 444: Biosensors for Medical Diagnostics 2 - 3 credits (Spring Only)
- ECE 445: Biomedical Instrumentation - 3 credits (Fall of Even Years Only)
- MSE 425: Biomaterials and Biocompatibility 3 - 3 credits (Fall Only)
Credit distributuion: PSL 250 will be applied to the Bioscience requirement, and BS 161 will be applied to Other Electives. The nine engineering credits will be applied to the Senior Elective requirement (including the “design intensive” course component if ME 497 is taken). Completion of the concentration will be noted on the final transcript. 1 Design Intensive. Note: The asterisk (*) signifies that the course is design intensive. 2 The prerequisites for this course are (BS 161), (CEM 141 or 151) and (ECE 345). 3 PSL 250 is Recommended Background for this course.
Computational Design concentration (12 Credits)
IMPORTANT: 1) For the latest and most accurate version of this concentration, please refer to the Dept. of Mechanical Engineering website. Earlier versions are invalid and will not be honored. 2) You MUST meet with the ME junior/senior advisor and arrange for the concentration code to be added to your record PRIOR to applying for graduation. This ensures that the concentration statement will appear on your final transcript. To make an appointment, call (517) 355-3338.
A mechanical engineering degree with the computational design concentration signifies the interests and expertise of students in computational techniques and approaches for the design and optimization of structural, thermal and fluid systems in engineering applications. To complete a Bachelor of Science degree in mechanical engineering with a computational design concentration, students must complete the requirements for the B.S. degree, including:
- ME 416*: Computer Assisted Design of Thermal Systems - 3 credits (Fall Only)
- ME 433: Computational Fluid Dynamics - 3 credits (Spring Only)
- ME 465*: Computer Aided Optimal Design - 3 credits (Spring Only)
- ME 475*: Computer Aided Design of Structures - 3 credits (Fall Only)
Credit distribution: The 12 credits in the concentration will be applied to the Senior Elective requirement (including the “design intensive” course component). Completion of the concentration will be noted on the final transcript.
The asterisk (*) signifies that the course is design intensive.
Cryogenic engineering concentration (12 Credits)
IMPORTANT: 1) For the latest and most accurate version of this concentration, please refer to the Dept. of Mechanical Engineering website. Earlier versions are invalid and will not be honored. 2) You MUST meet with the ME junior/senior advisor and arrange for the concentration code to be added to your record PRIOR to applying for graduation. This ensures that the concentration statement will appear on your final transcript. To make an appointment, call (517) 355-3338.
A mechanical engineering degree with the cryogenic engineering concentration signifies the interests and expertise of students in thermal and mechanical analysis and design techniques as applied to cryogenic engineering applications. To complete a Bachelor of Science degree in mechanical engineering with an engineering mechanics concentration, students must complete the requirements for the B.S. degree, including the following 12 credits:
- ME 413: Cryogenic-Thermal Systems - 3 credits (Spring Only)
- ME 414*: Mechanical Design of Cryogenic Systems - 3 credits (Fall Only)
- ME 416*: Computer Aided Design of Thermal Systems - 3 credits (Fall Only)
- ME 442*: Turbomachinery - 3 credits (Spring Only)
Credit distribution: The 12 credits in the concentration will fulfill the Senior Elective requirement, including the “design intensive” course component. Completion of the option will be noted on the final transcript.
The asterisk (*) signifies that the course is design intensive.
Energy concentration (12 Credits)
IMPORTANT: 1) For the latest and most accurate version of this concentration, please refer to the Dept. of Mechanical Engineering website. Earlier versions are invalid and will not be honored. 2) You MUST meet with the ME junior/senior advisor and arrange for the concentration code to be added to your record PRIOR to applying for graduation. This ensures that the concentration statement will appear on your final transcript. To make an appointment, call (517) 355-3338.
Mechanical engineers contribute greatly to the development of technologies to convert energy from one form into another. Automobile powertrains convert the chemical energy of fossil or biofuels into the kinetic energy of a moving car. Wind turbines convert the kinetic energy of the wind into electrical energy for the power grid. The fundamental courses of mechanical engineering (e.g., thermodynamics, fluid mechanics, vibrations) provide an essential understanding needed to model, analyze, and design many means of energy conversion. The energy concentration is designed to provide undergraduate students with a more thorough understanding of the analytical, computational, and experimental methods for developing means to convert energy to useful forms from various sources. These skills have applications beyond energy conversion for power generation and apply to many areas of mechanical engineering and other interdisciplinary fields. This concentration is well suited for preparing students for industrial careers, as well as for graduate study.
To complete a Bachelor of Science degree in mechanical engineering with an energy concentration, students must complete the requirements for the B.S. degree, including the following:
- ME 416*: Computer Assisted Design of Thermal Systems - 3 credits (Fall Only)
- ME 417*: Design of Alternative Energy Systems - 3 credits (Spring Only)
Plus two courses from the following list:
- ME 422: Introduction to Combustion - 3 credits (Fall Only)
- ME 440: Aerospace Engineering Fundamentals - 3 credits (Fall Only)
- ME 442*: Turbomachinery - 3 credits (Spring Only)
- ME 444: Automotive Engines - 3 credits (Fall Only)
Credit distribution: The 12 credits in the concentration will be applied to the Senior Elective requirement (including the “design intensive” course component). Completion of the concentration will be noted on the final transcript.
The asterisk (*) signifies that the course is design intensive.
Engineering Mechanics concentration (12 Credits)
IMPORTANT: 1) For the latest and most accurate version of this concentration, please refer to the Dept. of Mechanical Engineering website. Earlier versions are invalid and will not be honored. 2) You MUST meet with the ME junior/senior advisor and arrange for the concentration code to be added to your record PRIOR to applying for graduation. This ensures that the concentration statement will appear on your final transcript. To make an appointment, call (517) 355-3338.
Leonardo DaVinci reportedly described the study of mechanics as “the paradise, the Garden of Eden of mathematics, for therein it bears its fruit.” The engineering mechanics concentration is designed to provide undergraduate students with a more thorough understanding of analytical, computational and experimental methods for investigating the response of structures and fluids to external forces, pressures, thermal effects and other environmental loads. These skills have applications in all areas of mechanical engineering as well as in many interdisciplinary fields, and they are the key to modern mathematics-based design processes that are used by all major engineering firms. This concentration is also well suited for preparing students for graduate study in mechanical engineering or engineering mechanics.
To complete a Bachelor of Science degree in mechanical engineering with an engineering mechanics concentration, students must complete the requirements for the B.S. degree, including the following 12 credits:
- ME 423: Intermediate Mechanics of Deformable Solids - 3 credits (Fall Semester)
- ME 475*: Computer Aided Design of Structures - 3 credits (Fall Semester)
- ME 425: Experimental Mechanics - 3 credits (Fall Semester)
- ME 464: Intermediate Dynamics - 3 credits (Spring Semester)
Credit distribution: The 12 credits in the concentration will fulfill the Senior Elective requirement, including the “design intensive” course component. Completion of the option will be noted on the final transcript.
*Design intensive.
Manufacturing Engineering concentration (13 Credits)
IMPORTANT: 1) For the latest and most accurate version of this concentration, please refer to the Dept. of Mechanical Engineering website. Earlier versions are invalid and will not be honored. 2) You MUST meet with the ME junior/senior advisor and arrange for the concentration code to be added to your record PRIOR to applying for graduation. This ensures that the concentration statement will appear on your final transcript. To make an appointment, call (517) 355- 3338.
Many mechanical engineers are involved in manufacturing as their primary work assignment. Many more will have at least some involvement in manufacturing during their careers. The mechanical engineering program provides an opportunity for students to enhance their degree with a concentration in manufacturing engineering.
To complete a Bachelor of Science degree in mechanical engineering with a manufacturing engineering concentration, students must complete all requirements for the B.S. degree, including the following:1
- ME 372: Machine Tool Laboratory - 1 credit (Fall, Spring)
- ME 477: Manufacturing Processes - 3 credits (Fall, Spring)
- ME 478*: Product Development - 3 credits (Spring Only)
Plus one course from the following list:
- ECE 415: Computer Aided Manufacturing2 - 3 credits (Fall Only)
- CHE 472: Composite Materials Processing - 3 credits (Fall Only)
- ME 426: Introduction to Composite Materials - 3 credits (Spring Only)
Plus one course from the following list:
- EC 201: Introduction to Microeconomics - 3 credits (Fall, Spring, Summer)
- ACC 230: Survey of Accounting Concepts - 3 credits (Fall, Spring, Summer)
Credit distribution: The nine 400-level engineering credits will be applied to the Senior Elective requirement, including the “design intensive” course component. The remaining 4 credits will apply to Other Electives. Completion of the concentration will be noted on the final transcript.
The asterisk (*) signifies that the course is design intensive. 1 Some courses on the concentration may require an override before enrolling. Contact the ME Advisor for information. 2 You must be at least concurrently enrolled in ME 451 to take ECE 415.