2026 Online Mechanical Engineering Degrees With Materials Engineering Foundations
Co-Founder and Chief Data Scientist
Choosing an online mechanical engineering degree is harder when your real interest is materials: metals, polymers, composites, fatigue, manufacturing, and product failure. The stakes are high because the U. S. Bureau of Labor Statistics reports a May 2024 median wage of $102,320 for mechanical engineers, but outcomes depend heavily on accreditation, lab access, electives, and career fit. This guide is for working adults, transfer students, military learners, and engineers considering graduate study. You will learn how online programs compare, what they cost, which careers use materials expertise, and how to choose a credible program.
Key Things You Should Know
- ABET accreditation matters most at the bachelor's level because it can affect eligibility for Fundamentals of Engineering exam pathways, employer screening, and later professional licensure.
- Materials-focused mechanical engineering is usually built through electives, labs, projects, or graduate coursework rather than a separate online "materials mechanical engineering" major.
- Use salary and outlook data carefully: BLS May 2024 data lists mechanical engineers at a $102,320 median wage, but pay varies by industry, location, degree level, and experience.
What is an online mechanical engineering degree with a materials engineering foundation?
An online mechanical engineering degree with a materials engineering foundation is a mechanical engineering program that adds meaningful study of how materials behave, fail, and perform under real operating conditions. The mechanical engineering core usually covers statics, dynamics, thermodynamics, fluid mechanics, heat transfer, machine design, controls, and manufacturing. The materials foundation adds topics such as crystal structure, phase diagrams, corrosion, fracture, fatigue, polymers, composites, ceramics, metallurgy, additive manufacturing, and materials selection.
This path is not the same as a full materials science and engineering degree. A materials engineering major focuses more deeply on the structure, processing, properties, and performance of materials. A mechanical engineering degree with materials coursework is broader and often better for students who want to design machines, vehicles, medical devices, energy systems, robotics hardware, aerospace components, or manufactured products while understanding why materials fail or succeed.
The degree can make sense if you want a flexible engineering credential and plan to work in product design, manufacturing, quality engineering, reliability, aerospace, automotive, energy, defense, or biomedical device development. It may be less ideal if your main goal is a highly specialized materials research role, semiconductor materials development, or metallurgical engineering position that explicitly asks for a materials science degree.
At the bachelor's level, the most important distinction is whether the program is ABET-accredited in engineering. At the master's level, ABET is less commonly the key factor; students should instead evaluate institutional accreditation, faculty expertise, graduate course availability, research or project options, and employer recognition.
How do online mechanical engineering programs compare to campus-based options?
Online mechanical engineering programs can be academically rigorous, but they are not all built the same way. The strongest online formats usually combine recorded or live lectures, simulation software, remote design tools, proctored exams, structured team projects, and scheduled in-person or mailed lab experiences when required.
The table below compares the practical differences that matter most when deciding whether online or campus-based study fits your goals. Use it to focus on the trade-offs that affect learning quality, scheduling, and career preparation rather than assuming one format is automatically better.
| Factor | Online mechanical engineering | Campus-based mechanical engineering | What it means for materials-focused students |
| Lab access | May use home kits, simulation, partner labs, short residencies, or campus visits | Usually includes regular access to physical labs and equipment | Materials testing, microscopy, machining, and composites work may be stronger on campus unless the online program has a clear lab plan |
| Schedule | Often more flexible for working adults and military students | Usually follows fixed daytime schedules | Online can be better if you need to keep a job while completing engineering prerequisites |
| Peer collaboration | Requires intentional virtual teamwork and communication | More spontaneous project and lab collaboration | Design projects still matter, so look for required capstone or team-based assignments |
| Career services | May be virtual and less location-specific | Often tied to regional employers and campus recruiting | Ask whether online students can attend engineering career fairs, employer sessions, and research showcases |
| Cost structure | May reduce relocation and commuting costs, but fees vary | May include more campus-based fees and living expenses | Total cost should include software, lab travel, kits, and any required residencies |
Online study is usually strongest for disciplined students who already have a clear career direction, can manage calculus-heavy coursework independently, and can attend any required labs or exams. Campus study may be better for students who want extensive research access, hands-on lab time every week, undergraduate research in materials characterization, or close mentoring for graduate school.
Students comparing engineering disciplines should also think about adjacent online options. For example, an online electrical engineering degree for military veterans may fit better for learners whose service experience or career goals lean toward power systems, electronics, controls, or defense technology rather than mechanical design and materials behavior.
Which accredited schools offer online mechanical engineering degrees focused on materials?
Fully online mechanical engineering bachelor's degrees are less common than online business or computer science programs because engineering requires labs, design projects, and ABET-aligned outcomes. Materials-focused options are narrower still, so students should look for accredited mechanical engineering programs that offer materials science, manufacturing, composites, corrosion, failure analysis, or related electives.
The following examples show the kinds of U.S. programs students commonly evaluate. Always confirm current accreditation, delivery format, state authorization, lab requirements, and course availability directly with the school before applying.
| School | Online degree type | Accreditation consideration | Materials-related fit |
| Arizona State University | Online Bachelor of Science in Engineering, Mechanical Engineering | Check ABET Engineering Accreditation Commission status for the specific online program | Useful for students seeking a broad mechanical engineering foundation with materials, manufacturing, design, and thermal-fluid coursework |
| University of North Dakota | Online Bachelor of Science in Mechanical Engineering and online graduate options | Check ABET status for the bachelor's program and institutional accreditation for graduate study | Good fit for learners who want an established distance engineering format with mechanical design and materials-related coursework |
| University of Alabama | Distance Bachelor of Science in Mechanical Engineering | Check ABET status and any in-person requirements | Relevant for students seeking a traditional mechanical engineering curriculum delivered through distance learning |
| Purdue University | Online Master of Science in Mechanical Engineering | Graduate programs are generally evaluated by institutional accreditation and departmental reputation rather than ABET | Better for engineers who already hold a bachelor's degree and want advanced technical electives, including areas tied to materials, manufacturing, and mechanics |
| Colorado State University | Online Master of Engineering or Master of Science options in mechanical engineering-related areas | Confirm institutional accreditation, delivery mode, and graduate course availability | May suit working engineers interested in applied mechanics, systems, and design topics that can connect to materials performance |
| North Carolina State University | Online graduate engineering options, including mechanical engineering pathways | Confirm institutional accreditation and distance education eligibility | Best for students who need graduate-level mechanical coursework and want to choose electives aligned with materials, mechanics, or manufacturing |
A common mistake is assuming that a school's overall reputation automatically means the specific online engineering program has the accreditation or courses you need. Instead, search the ABET database for the exact program name at the bachelor's level, then compare the current catalog against your target career.
What coursework and concentrations emphasize materials engineering in these programs?
Materials engineering foundations usually appear through required introductory courses plus technical electives. The strongest programs connect materials theory to design decisions, manufacturing constraints, product reliability, and failure analysis instead of treating materials as a single isolated course.
The table below summarizes coursework that signals a meaningful materials foundation. It can help you read catalogs more effectively and compare programs that do not advertise a formal materials concentration.
| Course or topic | What students learn | Why it matters in mechanical engineering |
| Materials science for engineers | Atomic structure, microstructure, defects, phase behavior, and material properties | Helps engineers choose materials that match load, temperature, corrosion, and cost requirements |
| Mechanics of materials | Stress, strain, torsion, bending, buckling, and deformation | Connects material properties to structural performance and safety margins |
| Manufacturing processes | Casting, machining, welding, forming, additive manufacturing, and process selection | Shows how processing changes strength, durability, tolerances, and production cost |
| Failure analysis and fracture mechanics | Crack growth, fatigue, brittle fracture, ductile failure, and root-cause analysis | Prepares students for reliability, quality, aerospace, automotive, and safety-critical roles |
| Composites and polymers | Lightweight materials, fiber reinforcement, polymer behavior, and design limits | Useful in aerospace, sporting goods, automotive, renewable energy, and medical devices |
| Corrosion and surface engineering | Environmental degradation, coatings, wear, and surface treatments | Important for energy, marine, infrastructure, manufacturing, and defense applications |
| Finite element analysis | Computer-based stress, thermal, and vibration simulation | Allows engineers to model how material choices affect performance before prototyping |
Students who want the strongest materials preparation should look beyond course titles. Before enrolling, review syllabi, capstone descriptions, faculty profiles, software tools, and whether online students can complete design or research projects involving material testing, failure analysis, or manufacturing optimization.
Use this short checklist when reviewing a curriculum:
- Confirm that mechanics of materials and introductory materials science are required, not optional.
- Look for at least two advanced electives tied to materials, manufacturing, composites, fracture, fatigue, corrosion, or finite element analysis.
- Ask whether the capstone project can involve material selection, product failure, thermal stress, structural optimization, or manufacturability.
- Check whether labs use physical experiments, remote instrumentation, simulation, or short campus sessions, and decide whether that format fits your learning style.
What are typical admission requirements for online mechanical engineering bachelor's and master's programs?
Admission requirements depend on degree level. Bachelor's programs focus on academic readiness for calculus, physics, chemistry, and engineering fundamentals. Master's programs focus on whether you already have enough engineering background to succeed in advanced mechanics, modeling, design, and materials-related electives.
The table below compares common requirements. Individual schools may require higher grades, prerequisite sequences, or bridge coursework, especially if your prior degree is in engineering technology, physics, mathematics, or another STEM field rather than mechanical engineering.
| Requirement area | Online bachelor's programs | Online master's programs |
| Prior education | High school diploma, GED, or transfer credits | Bachelor's degree, usually in mechanical engineering or a closely related engineering field |
| Math readiness | Precalculus or calculus placement is often important | Completed calculus, differential equations, and engineering mathematics are commonly expected |
| Science background | Physics with lab and chemistry may be required or strongly recommended | Prior mechanics, thermodynamics, materials, and design coursework may be expected |
| GPA | Minimums vary by school and transfer status | Many programs set a minimum undergraduate GPA, often with flexibility for professional experience |
| Testing | Some schools are test-optional, while others use placement testing | GRE requirements vary and may be waived or not required |
| Professional materials | Usually not extensive beyond transcripts and application forms | Resume, statement of purpose, recommendations, and proof of technical background may be required |
If you are missing prerequisites, ask whether the school offers bridge courses or lets you complete prerequisites at a community college before admission. This can reduce cost, but verify transfer approval in writing before enrolling elsewhere.
Applicants from nontraditional backgrounds should be especially careful. Engineering technology, physics, and mathematics degrees can be strong foundations, but they may not cover all ABET-style mechanical engineering topics. A graduate admissions advisor can tell you whether you need undergraduate mechanics, materials, thermodynamics, fluid mechanics, or design courses before starting advanced study.
How long do online mechanical engineering degrees take, and what do they cost?
Time and cost vary widely because engineering programs depend on prerequisites, transfer credits, course sequencing, lab availability, and whether you study full time or part time. A bachelor's degree usually takes about four years for first-time full-time students, while transfer students may finish faster if prior calculus, physics, chemistry, and general education credits apply. Online master's programs commonly take about two to three years part time.
For cost context, College Board's 2024 Trends in College Pricing and Student Aid reported average published tuition and fees of $11,610 for in-state students at public four-year institutions, $30,780 for out-of-state students at public four-year institutions, and $43,350 at private nonprofit four-year institutions for the 2024-25 academic year. These figures are not engineering-specific, but they show why residency status, transfer credit, and employer tuition assistance can materially change total cost.
Students should compare total program cost, not just tuition per credit. Common cost categories include:
- Tuition per credit or per term
- Online learning fees, engineering fees, and technology fees
- Lab kits, campus residency travel, or proctored exam costs
- Software, calculator, computer, and simulation tool requirements
- Textbooks, digital courseware, and materials for design projects
- Lost income if the program requires reduced work hours
The table below summarizes common timeline and cost trade-offs. It is designed to help you choose a pace that matches your finances and academic readiness.
| Study path | Typical timeline | Cost implication | Best fit |
| Full-time online bachelor's | About four years for first-time students | Can finish sooner but may limit work hours | Students who can prioritize school and handle heavy math and lab sequences |
| Part-time online bachelor's | Often five or more years depending on course load | May spread payments over time but can increase total fees if enrollment is prolonged | Working adults, parents, and military learners who need schedule flexibility |
| Transfer-completion bachelor's | Depends on accepted credits and prerequisites | Can lower cost if credits transfer cleanly | Students with community college engineering prerequisites or prior STEM credits |
| Online master's, part time | Often about two to three years | May be supported by employer tuition benefits | Working engineers seeking advancement, specialization, or a shift into materials-related roles |
| Online master's, full time | Often about one to two years | Faster completion but higher opportunity cost if you reduce employment | Students who can study intensively and want a faster transition |
Students weighing online science degrees in general may notice that engineering is less flexible than many other fields because courses must be taken in sequence. If you are comparing different applied science paths, it can be useful to examine how accelerated formats work when students study exercise science online, then compare that flexibility with the stricter prerequisite structure of mechanical engineering.
What entry-level and advanced careers combine mechanical and materials engineering skills?
Mechanical engineers with materials knowledge often work where design decisions affect durability, manufacturability, safety, weight, thermal performance, or cost. The materials foundation is especially valuable when products must survive vibration, temperature change, corrosion, repeated loading, or harsh environments.
The table below maps common roles to the mechanical and materials skills they use. It can help you decide whether a bachelor's degree is enough or whether a master's degree may be useful for your target role.
| Career path | Typical responsibilities | Materials-related skills used | Common education level |
| Mechanical design engineer | Designs parts, assemblies, machines, and mechanical systems | Material selection, stress analysis, fatigue awareness, manufacturability | Bachelor's degree |
| Manufacturing engineer | Improves production processes, tooling, quality, and workflow | Processing effects, heat treatment, welding, machining, additive manufacturing | Bachelor's degree |
| Quality or reliability engineer | Investigates defects, improves testing, and reduces failures | Failure analysis, corrosion, fracture, statistical quality methods | Bachelor's degree or master's for advanced roles |
| Materials-focused mechanical engineer | Supports product teams on material choices and performance trade-offs | Metals, polymers, composites, wear, fatigue, thermal behavior | Bachelor's plus targeted electives or master's degree |
| Product development engineer | Turns concepts into manufacturable products | Prototype testing, material cost trade-offs, design for manufacturing | Bachelor's degree |
| Failure analysis engineer | Determines why components cracked, corroded, wore out, or deformed | Fractography, fatigue, microscopy, root-cause analysis | Bachelor's with experience or master's degree |
| Aerospace or automotive structures engineer | Analyzes components exposed to load, vibration, and thermal cycling | Composites, lightweight metals, fatigue, finite element analysis | Bachelor's or master's degree |
| Research and development engineer | Tests new designs, materials, or manufacturing methods | Experimental design, materials testing, simulation, performance validation | Master's or doctorate may be preferred |
A bachelor's degree is often enough for entry-level design, manufacturing, quality, test, and process engineering roles. A master's degree can be more useful if you want advanced simulation, research and development, materials-intensive aerospace or biomedical work, or technical leadership roles where deeper mechanics and materials expertise matter.
Students whose interest in materials comes from earth systems, mining, environmental resources, or subsurface processes may want to compare engineering against an online geoscience degree. Mechanical engineering is usually the better fit for machines, products, and manufactured systems, while geoscience aligns more closely with Earth materials, field data, and resource or environmental work.
What are salary expectations for mechanical engineers specializing in materials?
Salary depends on job title, industry, location, degree level, experience, security clearance, and technical tools such as CAD, finite element analysis, statistical quality methods, and materials testing. Specializing in materials can strengthen a candidate's fit for certain roles, but it does not create a separate guaranteed salary category.
The most useful benchmark is official occupational data. The U.S. Bureau of Labor Statistics reported a May 2024 median annual wage of $102,320 for mechanical engineers. For readers, this means mechanical engineering remains a relatively high-wage engineering pathway, but individual offers can be lower for entry-level roles and higher for experienced engineers in specialized industries.
Because materials-focused mechanical engineers may also qualify for related roles, compare the salary context across occupational categories rather than relying on one job title. The table below gives a practical view of how adjacent roles differ.
| Occupation | How it connects to materials-focused mechanical engineering | Salary interpretation |
| Mechanical engineer | Broadest match for design, analysis, manufacturing, thermal systems, and mechanical products | BLS May 2024 median wage: $102,320 |
| Materials engineer | More specialized focus on metals, ceramics, polymers, composites, and material performance | Useful comparison if your target jobs explicitly ask for materials engineering expertise |
| Industrial engineer | Relevant for manufacturing systems, process improvement, and production optimization | May fit students more interested in efficiency, operations, and quality systems than product design |
| Aerospace engineer | Relevant when mechanical and materials skills are applied to aircraft, spacecraft, propulsion, or structures | May require industry-specific experience, advanced analysis skills, or security eligibility |
To estimate your own return on investment, compare expected entry-level salaries in your target region with total program cost, loan interest, time to completion, and whether the degree helps you qualify for roles you could not reasonably access otherwise. Avoid programs that publish vague salary claims without explaining job titles, sample size, graduation year, or how outcomes were collected.
What is the job outlook and industry demand for mechanical engineers with materials expertise?
Demand is supported by several U.S. trends: advanced manufacturing, electrification, robotics, aerospace modernization, energy systems, medical devices, defense production, and the need to make products lighter, stronger, more efficient, and more reliable. Materials expertise is useful because these industries often compete on performance, durability, weight, thermal behavior, supply chain resilience, and manufacturability.
The U.S. Bureau of Labor Statistics projects mechanical engineer employment to grow 11% from 2023 to 2033, much faster than the average for all occupations. For students, the key takeaway is not that every graduate will find the same opportunity, but that mechanical engineering skills remain relevant across multiple industries rather than being tied to one narrow sector.
Technology is changing the skill mix. Employers increasingly value engineers who can combine mechanical fundamentals with simulation, data analysis, design for additive manufacturing, materials characterization, and lifecycle thinking. AI-enabled design tools and generative design can speed up concept exploration, but engineers still need to validate assumptions, choose appropriate materials, interpret failure modes, and understand manufacturing constraints.
Industry demand is strongest for students who can show applied evidence of skill. Before graduation, build a portfolio that includes:
- A capstone or design project involving material selection, structural analysis, or manufacturing trade-offs
- CAD and finite element analysis examples that explain assumptions and results clearly
- Lab or simulation work tied to fatigue, thermal stress, corrosion, or failure analysis
- Internship, co-op, undergraduate research, or employer-sponsored project experience
- Clear documentation of teamwork, technical writing, testing, and engineering decision-making
How can students evaluate and choose a reputable online mechanical engineering program?
The best program is not simply the cheapest, fastest, or highest-ranked option. A reputable online mechanical engineering program should match your career target, provide credible engineering training, and make its accreditation, costs, labs, transfer policies, and outcomes easy to verify.
Use the following steps before applying or paying a deposit:
- Verify institutional accreditation through the school and recognized accreditor information.
- For bachelor's programs, confirm ABET accreditation for the exact engineering program, not just the university or department.
- Review the curriculum for calculus, physics, chemistry, statics, dynamics, thermodynamics, fluids, heat transfer, mechanics of materials, design, and materials science.
- Ask how online labs work, whether any campus visits are required, and what equipment or travel costs are not included in tuition.
- Compare technical electives against your goal, especially materials, manufacturing, finite element analysis, composites, corrosion, fracture, fatigue, and quality engineering.
- Request transfer credit evaluation before enrolling if you have community college, military, or prior college credits.
- Ask whether online students have access to engineering career fairs, internships, co-op support, faculty office hours, tutoring, and capstone resources.
- Calculate total cost using tuition, fees, books, software, equipment, travel, loan interest, and likely time to completion.
- Check whether the degree supports your state's professional engineering licensure pathway if licensure matters for your career.
- Speak with current students or alumni when possible, especially those in online engineering tracks.
Red flags include unclear accreditation language, no transparent lab plan, limited engineering support for online students, high-pressure enrollment tactics, missing course schedules, vague career outcomes, or a curriculum that sounds mechanical but lacks core engineering science. Another mistake is choosing a program based only on tuition; a low-cost option can become expensive if credits do not transfer, required courses are rarely offered, or the program does not support your intended career path.
If you are comparing online STEM programs outside engineering, remember that lab expectations differ by field. For example, the best online animal science degree options may evaluate hands-on requirements differently than mechanical engineering programs, where ABET outcomes, physics labs, design projects, and engineering analysis are central.
Other Things You Should Know About Mechanical Engineering
Often, yes. Programs may require CAD, simulation, programming, or statistical software, although some schools provide student licenses. Ask for the current software list before enrolling so you can confirm computer requirements and any added costs.
Possibly, but requirements vary by state. The safest route is usually an ABET-accredited engineering bachelor's degree, passing the Fundamentals of Engineering exam, gaining qualifying supervised experience, and passing the Principles and Practice of Engineering exam.
The academic content is not necessarily harder, but online students need strong self-management. Calculus, physics, labs, and design projects can be demanding without regular in-person structure, so tutoring, office hours, and peer study groups matter.
Mechanical engineering is usually more theory-heavy and better aligned with design, analysis, graduate study, and many licensure pathways. Engineering technology is often more applied and can fit manufacturing, testing, operations, or hands-on technical roles.
References
- Campus vs Online Engineering Degrees - What Employers Think https://www.itcareerfinder.com/brain-food/blog/entry/what-employers-think-about-online-engineering-degrees.html
- BEng Mechanical Engineering with International Foundation | University of Exeter International Study Centre https://www.exeterisc.com/en/courses/beng-mechanical-engineering-with-international-foundation
- Top Online Bachelor's Degrees In Mechanical Engineering https://www.accreditedschoolsonline.org/online-degrees/best-online-bachelors-in-mechanical-engineering/
- The Engineering Careers A-Z List. https://accu-components.com/us/p/495-the-engineering-careers-az-list
- Career Paths in Materials Science: From Entry-Level Research to Leadership and Beyond https://materialssciencejobs.co.uk/career-advice/career-paths-in-materials-science-from-entry-level-research-to-leadership-and-beyond
