2026 Online Mechanical Engineering Degrees With Mechanics Concentrations
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Choosing an online mechanical engineering degree with a mechanics concentration is a high-stakes decision because it affects licensing eligibility, lab access, career options, and return on investment. The field is timely: the U.S. Bureau of Labor Statistics projects mechanical engineering employment to grow 11% from 2023 to 2033, much faster than average.
This guide is for prospective students comparing online bachelor's or master's options. You will learn how programs work, what accreditation matters, what they cost, and how to choose a degree that supports roles in design, structures, simulation, manufacturing, robotics, and applied mechanics.
Key Things You Should Know
- ABET accreditation is most important at the bachelor's level; most mechanical engineering master's programs are institutionally accredited rather than ABET-accredited, so students should verify the exact degree level and program name before enrolling.
- The BLS reported a May 2024 median annual wage of $102,320 for mechanical engineers, but pay varies by industry, location, experience, and whether the role emphasizes analysis, design, testing, manufacturing, or management.
- Online mechanical engineering programs usually work best for students who can handle advanced math, physics, CAD or simulation software, and scheduled lab or project requirements; fully asynchronous study is uncommon in rigorous engineering programs.
What is an online mechanical engineering degree with a mechanics concentration?
An online mechanical engineering degree with a mechanics concentration is a program that teaches the broader discipline of mechanical engineering while giving extra attention to how forces, motion, deformation, vibration, heat, and materials affect engineered systems. In simple terms, mechanics is the part of mechanical engineering that explains why machines, structures, components, vehicles, tools, and devices move, bend, fail, or perform as intended.
The concentration may appear under names such as applied mechanics, solid mechanics, dynamics and controls, computational mechanics, structural mechanics, or mechanics of materials.
At the bachelor's level, it is often built through technical electives rather than a formal concentration. At the master's level, students are more likely to choose a defined track or customize coursework around mechanics, finite element analysis, dynamics, fracture, composites, robotics, or simulation.
This table summarizes how the degree level changes the academic purpose and career use of a mechanics-focused mechanical engineering program:
| Degree level | Typical mechanics focus | Best fit | Important limitation |
| Bachelor's in Mechanical Engineering | Statics, dynamics, mechanics of materials, machine design, fluids, thermodynamics, labs, and design projects | Students seeking entry-level engineering roles or a path toward professional licensure | Requires careful accreditation review, especially if the student may pursue Engineer in Training or Professional Engineer credentials |
| Master's in Mechanical Engineering | Advanced mechanics, finite element analysis, continuum mechanics, nonlinear dynamics, structural analysis, computational modeling, or research | Working engineers who want deeper technical specialization or advancement into analysis-heavy roles | Does not usually replace an ABET-accredited bachelor's degree for licensure purposes |
| Graduate certificate | A smaller set of mechanics, simulation, materials, or design courses | Engineers who need targeted upskilling without committing to a full degree | May not carry the same hiring value as a full engineering degree |
A mechanics concentration can be a strong fit if you enjoy solving physical problems with math, modeling, and testing. It may be less suitable if you want a program with minimal calculus, limited physics, or no hands-on design work, because mechanics-heavy curricula are usually among the more mathematically demanding paths within mechanical engineering.
How do online mechanical engineering mechanics programs compare to on-campus options?
Online mechanical engineering mechanics programs can be comparable to campus programs academically when they use the same faculty, learning outcomes, exams, and project expectations. The main difference is delivery: lectures, assignments, simulations, and collaboration may happen online, while labs, exams, design reviews, or intensive experiences may require synchronous attendance, approved proctoring, mailed lab kits, local facilities, or short campus visits.
The table below compares online and campus formats on the factors that most affect student success and program fit:
| Factor | Online mechanics-focused program | On-campus program | Decision point |
| Flexibility | Better for working students, military learners, caregivers, and students who cannot relocate | More structured schedule with regular in-person classes | Choose online if schedule control is essential and you can manage deadlines independently |
| Labs and design projects | May use simulation software, remote labs, at-home kits, local proctoring, or short residencies | Direct access to machine shops, instrumentation, wind tunnels, materials labs, and faculty spaces | Choose campus if you want maximum in-person lab access or extensive fabrication experience |
| Peer and faculty interaction | Often uses video meetings, discussion boards, group design tools, and virtual office hours | More spontaneous access to classmates, clubs, labs, and faculty | Choose online only if the program has strong advising, project support, and technical help |
| Career networking | Can be strong when the school offers virtual career fairs, employer partnerships, and alumni access | Often easier for local internships, research assistantships, and student organizations | Ask how online students access internships, career fairs, and engineering clubs |
| Accreditation concerns | Requires close verification because some online options are engineering technology or non-ABET programs | ABET-accredited campus bachelor's programs are more common | Verify the exact program title, modality, and accreditation status before applying |
Online study is not automatically easier. Mechanics courses can be demanding because they combine vector math, differential equations, physics, computational tools, and engineering judgment. Students who succeed online tend to be comfortable learning independently, asking questions early, using CAD or simulation software, and keeping a disciplined weekly schedule.
Students with military experience may also want to compare engineering fields and support services for transfer credit, deployment flexibility, and veteran benefits. For a related engineering pathway, online guides to the best military friendly online electrical engineering degrees can help veterans compare online engineering support models beyond mechanical engineering.
Which U.S. schools offer accredited online mechanical engineering mechanics degrees?
Accredited online mechanical engineering options exist in the United States, but the exact phrase "mechanics concentration" is more common at the graduate level than at the undergraduate level.
For bachelor's students, the safest approach is to look first for an ABET-accredited online mechanical engineering degree and then confirm whether the curriculum offers mechanics-related electives. For master's students, institutional accreditation and departmental reputation matter, while the mechanics focus is usually built through electives, a track, or a thesis/project area.
The examples below show how U.S. online or distance-accessible options may fit different mechanics-focused goals. Program names, delivery rules, and accreditation status can change, so students should verify details directly with the school and the ABET program search before applying:
| School | Online or distance-accessible option | Mechanics-related fit | Accreditation note to verify |
| Arizona State University | Online Bachelor of Science in Engineering in Mechanical Engineering | Broad mechanical engineering preparation with core mechanics, design, thermal-fluid, and systems coursework | Confirm current ABET status for the exact online BSE program name |
| University of North Dakota | Online Bachelor of Science in Mechanical Engineering | Includes foundational mechanics, materials, design, and laboratory components suitable for entry-level engineering preparation | Confirm current ABET status and any campus visit or lab requirements |
| University of Alabama | Online or distance Bachelor of Science in Mechanical Engineering options have been offered through the university's continuing and distance education formats | Useful for students seeking a broad mechanical engineering degree with mechanics and design foundations | Confirm current delivery format, ABET status, and residency or lab expectations |
| Purdue University | Online Master of Science in Mechanical Engineering | Graduate-level electives may support interests in dynamics, mechanics, design, materials, and computational analysis | Graduate engineering programs are typically institutionally accredited rather than ABET-accredited |
| Johns Hopkins University Engineering for Professionals | Online Master of Mechanical Engineering | Can support working engineers interested in mechanics-adjacent areas such as structures, materials, robotics, and systems | Verify institutional accreditation, course availability, and whether the curriculum matches your mechanics goals |
| University of Southern California | Online Master of Science in Mechanical Engineering through DEN@Viterbi | May fit students seeking advanced mechanical engineering electives connected to design, mechanics, thermal systems, or computational work | Verify current online delivery, elective rotation, and whether a thesis or project option is available |
The key distinction is that "accredited" does not always mean the same thing. Regional or institutional accreditation applies to the university as a whole and is essential for federal financial aid and credit transfer. ABET programmatic accreditation is especially important for many bachelor's-level engineering programs and for students who may later pursue professional engineering licensure. At the master's level, ABET accreditation is less common and usually not the main quality marker.
What admission requirements do online mechanical engineering mechanics programs typically have?
Admissions requirements depend heavily on whether you are applying to an online bachelor's, transfer-completion program, or master's degree. Mechanics-focused programs are usually selective about math and science preparation because advanced courses assume fluency in calculus, physics, and engineering problem-solving.
For bachelor's programs, schools commonly review whether applicants are ready for college-level engineering math and science. Typical requirements may include the following:
- High school diploma or equivalent with strong preparation in algebra, trigonometry, precalculus, physics, and chemistry
- Official transcripts from high school and any colleges attended
- Minimum GPA requirements that may be higher for direct admission to the engineering major than for general university admission
- Placement into calculus or completion of prerequisite math courses before upper-division engineering coursework
- Transfer credit evaluation for students entering with community college, military, or prior university credits
- Possible standardized test scores, although many schools now use test-optional or test-flexible policies
For master's programs, the review usually focuses on whether the applicant has enough engineering background to succeed in graduate mechanics courses. Common requirements include the following:
- Bachelor's degree in mechanical engineering or a closely related engineering field
- Coursework in calculus, differential equations, physics, statics, dynamics, mechanics of materials, thermodynamics, and fluid mechanics
- Minimum undergraduate GPA, often with stronger expectations for technical courses
- Statement of purpose explaining career goals and preferred technical area
- Letters of recommendation from faculty, supervisors, or engineering professionals
- Resume showing engineering experience, internships, research, design work, or relevant software skills
- GRE scores only if the program still requires or recommends them
A common mistake is applying to a graduate mechanics program without checking prerequisite gaps. If your bachelor's degree is in physics, mathematics, engineering technology, or another related field, you may still be eligible, but the school may require bridge courses before you can enroll in advanced finite element analysis, continuum mechanics, or dynamics classes.
What core courses and hands-on learning are included in mechanics-focused curricula?
Mechanics-focused curricula build from foundational engineering science into applied design, analysis, and testing. Students learn how to predict mechanical behavior, identify failure risks, model physical systems, and design components that meet performance, safety, cost, and manufacturability requirements.
The table below summarizes common course areas and why each matters in a mechanics concentration:
| Course area | What students learn | Why it matters for mechanics careers |
| Statics and dynamics | Forces, equilibrium, motion, acceleration, energy, and momentum | Forms the foundation for machine design, robotics, vehicle systems, and structural analysis |
| Mechanics of materials | Stress, strain, deformation, torsion, bending, buckling, and failure | Helps engineers evaluate whether parts can withstand real operating loads |
| Machine design | Gears, shafts, bearings, fasteners, fatigue, tolerances, and safety factors | Connects theory to practical mechanical components and assemblies |
| Finite element analysis | Computational modeling of stresses, vibrations, heat transfer, and deformation | Important for simulation-heavy roles in automotive, aerospace, defense, energy, and manufacturing |
| Vibrations and controls | Dynamic response, oscillation, stability, sensors, and feedback systems | Useful for robotics, machinery, vehicles, equipment diagnostics, and mechatronics |
| Materials and failure analysis | Material properties, fatigue, fracture, corrosion, composites, and testing | Supports safer design choices and root-cause analysis when components fail |
| Capstone or project course | Team design, prototyping, testing, documentation, and presentation | Gives students evidence of applied engineering work for employers |
Hands-on learning is still important online. Strong programs explain exactly how remote students complete labs, measurements, design reviews, and team projects. Some use mailed lab kits, remote instrumentation, simulation platforms, local proctored activities, short on-campus sessions, or employer-based projects approved by faculty.
Mechanics also connects to fields outside traditional machine design. Biomechanics, for example, applies forces, motion, materials, and modeling to the human body, prosthetics, rehabilitation devices, sports equipment, and ergonomic systems.
Students interested in that intersection may also compare related health and movement programs such as exercise science degrees online, though those programs typically prepare students for different roles than engineering degrees do.
To get the most value from a mechanics-focused curriculum, students should build evidence of technical ability before graduation. Useful steps include completing a simulation or CAD portfolio, joining a remote-friendly engineering design team, seeking internships, documenting lab and capstone projects, and learning industry tools such as SolidWorks, MATLAB, Python, ANSYS, Abaqus, Simulink, or Autodesk products when they align with the target career.
How long do online mechanical engineering mechanics degrees take and what do they cost?
Program length and cost vary by degree level, transfer credits, residency status, course load, and whether the school charges online students separate fees. In general, online bachelor's degrees take about four years for first-time students, while transfer students may finish faster if prior calculus, physics, general education, and engineering credits apply. Online master's degrees often take about two years part-time, though accelerated and slower employer-sponsored paths are common.
Cost comparisons should go beyond tuition. The College Board's 2024 Trends in College Pricing reported average published tuition and fees of $11,610 for in-state students at public four-year institutions and $43,350 at private nonprofit four-year institutions for the 2024-25 academic year.
Those averages are not engineering-specific, but they show why residency, institution type, and aid can significantly change the total price of a degree.
Students should compare the following cost categories before deciding whether a program is affordable:
- Tuition per credit and the total number of credits required for the degree
- Online learning fees, engineering program fees, lab fees, technology fees, and proctoring fees
- Software, computer hardware, calculator, lab kit, materials, and textbook costs
- Travel and lodging for any required campus labs, orientations, exams, or design sessions
- Lost income if the program requires reduced work hours or unpaid internship time
- Financial aid, employer tuition assistance, veterans benefits, scholarships, and transfer credits
This table gives a practical way to think about timeline and cost trade-offs by student profile.
| Student profile | Typical timeline | Cost advantage | Main trade-off |
| First-time bachelor's student | About four years full-time, longer part-time | Can build the full engineering foundation from the beginning | Highest total credit load and longest time before entering engineering roles |
| Community college transfer student | Often shorter if prerequisites transfer cleanly | May reduce total cost through lower-division credits | Engineering credits may not transfer as easily as general education courses |
| Working engineer entering a master's program | Often two to three years part-time | Employer tuition support may reduce out-of-pocket cost | Balancing graduate mechanics coursework with full-time work can be demanding |
| Accelerated graduate student | Potentially faster with heavier course loads | May reduce time away from advancement opportunities | Less flexibility for internships, research, family obligations, or work travel |
The best financial decision is not always the lowest tuition. A slightly more expensive program may be a better investment if it has stronger accreditation alignment, transfer policies, lab access, career services, employer recognition, and course availability. Conversely, a prestigious option may not be worth the premium if it does not offer the mechanics electives, flexibility, or support you actually need.
What careers can you pursue with a mechanical engineering degree in mechanics?
A mechanical engineering degree with mechanics coursework can support careers in design, analysis, testing, manufacturing, robotics, transportation, energy, aerospace, defense, medical devices, and advanced materials.
The strongest opportunities usually go to students who can connect theory to practical tools: CAD, finite element analysis, programming, technical documentation, testing methods, and design for manufacturability.
The table below shows common career directions and the mechanics-related responsibilities associated with each path:
| Career direction | Typical responsibilities | Mechanics skills used |
| Mechanical design engineer | Design parts, assemblies, mechanisms, fixtures, and mechanical systems | Statics, dynamics, machine design, tolerancing, CAD, fatigue, and materials selection |
| Stress or structural analyst | Evaluate whether components can withstand loads, vibration, thermal expansion, and fatigue | Mechanics of materials, finite element analysis, fracture mechanics, and validation testing |
| Test engineer | Plan experiments, collect data, evaluate performance, and compare physical results with models | Instrumentation, dynamics, statistics, materials behavior, and failure analysis |
| Manufacturing engineer | Improve production processes, tooling, quality, reliability, and cost efficiency | Machine design, materials, process mechanics, tolerances, and root-cause analysis |
| Robotics or mechatronics engineer | Work on actuators, sensors, motion systems, controls, and automated equipment | Dynamics, controls, kinematics, vibration, and electromechanical systems |
| Biomechanical or medical device engineer | Develop devices, implants, prosthetics, or ergonomic systems | Solid mechanics, materials, motion analysis, testing, and regulatory documentation |
AI and automation are changing what employers expect from mechanics-focused engineers. Simulation, digital twins, generative design, automated testing, and data-rich manufacturing systems are making programming and data interpretation more valuable.
Students who enjoy computational work may benefit from adding Python, MATLAB, data visualization, or machine learning fundamentals. For readers considering a more analytics-heavy graduate path, Research.com's guide to an online master data science program can help compare a data-centered alternative.
This degree path is especially worthwhile for students who want to solve physical design and performance problems. It may be less ideal for someone who wants a purely software career, a technician role that does not require an engineering degree, or a less math-intensive path into manufacturing operations.
What salary ranges and earning potential exist for mechanics-focused mechanical engineers?
Salary potential for mechanics-focused mechanical engineers depends on role, degree level, industry, security clearance, region, experience, and technical specialization. The most reliable way to interpret pay is to start with occupation-level data and then compare it with local job postings in your target industry.
The BLS reported a May 2024 median annual wage of $102,320 for mechanical engineers. That figure is a midpoint, not a starting salary and not a guaranteed outcome. Students should treat it as a benchmark for the occupation after factoring in experience, employer type, cost of living, and whether a role is entry-level, senior technical, or managerial.
The table below explains how mechanics-focused roles may relate to earning potential without implying a guaranteed salary for any graduate:
| Career stage or role type | Typical pay position relative to the occupation median | What can influence earnings |
| Entry-level mechanical engineer | Often below the occupation median | Internship experience, ABET-accredited degree, CAD skills, location, and industry demand |
| Design or manufacturing engineer | Often near the broader mechanical engineering range after experience grows | Product complexity, quality responsibilities, production scale, and industry specialization |
| Stress, simulation, or analysis engineer | Can move higher with advanced mechanics and software expertise | Finite element analysis, aerospace or defense experience, validation skills, and graduate coursework |
| Senior engineer or technical lead | Often above the median when responsibilities expand | Project ownership, mentoring, design authority, licensure, and cross-functional leadership |
| Engineering manager or specialist consultant | May exceed typical individual contributor pay | Management scope, client responsibility, business impact, and specialized expertise |
To evaluate return on investment, compare likely debt with realistic early-career wages, not only median wages. A lower-cost ABET-accredited bachelor's program with strong transfer credit may be a better ROI choice than a high-cost program if both lead to similar entry-level opportunities.
For graduate study, ROI is strongest when the master's degree clearly supports advancement, specialization, employer reimbursement, or a move into higher-value analysis work.
What is the job outlook and industry demand for mechanical engineers specializing in mechanics?
Demand for mechanical engineers is supported by several U.S. industry needs: product redesign, automation, energy systems, advanced manufacturing, transportation, robotics, defense, building systems, and reliability engineering. Mechanics specialists are especially relevant where employers need engineers who can predict whether systems will move correctly, survive operating loads, avoid failure, and meet safety or performance requirements.
The BLS projects employment for mechanical engineers to grow 11% from 2023 to 2033. For students, the important takeaway is not that every graduate will have the same job market, but that the occupation has stronger projected growth than many fields and remains broad enough to support multiple industry transitions.
Current hiring trends favor engineers who can combine mechanical fundamentals with digital tools. Employers increasingly value simulation, model-based design, additive manufacturing awareness, sensor-based testing, automation, and data analysis.
Mechanics students who graduate with a portfolio of validated models, test reports, CAD assemblies, and capstone documentation can be more competitive than students who list coursework alone.
Licensure is another factor to consider. Many mechanical engineers do not need a Professional Engineer license, especially in product design, manufacturing, robotics, or private industry roles. However, licensure can matter in consulting, public infrastructure, HVAC, energy systems, safety-critical work, and roles involving responsible charge of engineering work.
Requirements vary by state, so students who may pursue licensure should verify ABET status, exam eligibility, experience rules, and state board policies before choosing an online program.
How can you evaluate and choose a reputable online mechanical engineering mechanics program?
Choosing a reputable online mechanical engineering mechanics program requires more than comparing rankings or tuition. The right program should match your career goal, accreditation needs, learning style, technical interests, and financial constraints.
Use the following steps to evaluate programs before applying:
- Confirm the exact degree title, because mechanical engineering, mechanical engineering technology, engineering management, and applied engineering can lead to different outcomes.
- Verify institutional accreditation and, for bachelor's programs, check whether the exact program is currently ABET-accredited.
- Ask how online students complete labs, design projects, exams, proctoring, and any required campus visits.
- Review the course catalog to confirm mechanics electives such as finite element analysis, vibrations, fracture, machine design, dynamics, materials, or computational mechanics.
- Compare total cost, not just tuition, including fees, software, equipment, travel, and lost work time.
- Check transfer credit rules before enrolling, especially for calculus, physics, engineering science, and upper-division technical courses.
- Ask about career services for online students, including internship support, employer events, portfolio guidance, and alumni access.
- Look for evidence of student support, including faculty office hours, tutoring, software help, library access, advising, and technical support.
- Evaluate whether the schedule fits your life, especially if courses are synchronous, cohort-based, or offered only once per year.
- Speak with admissions, an engineering advisor, and ideally a current student or graduate before making a deposit.
Several red flags should make you pause. Be cautious if a school avoids direct answers about ABET status, cannot explain lab requirements, advertises engineering outcomes for a non-engineering degree, lists few mechanics electives, charges unclear fees, or promises specific salaries. Also avoid assuming that online means self-paced; many engineering programs have strict weekly deadlines and team project schedules.
It can also help to compare engineering ROI with other graduate or professional paths before committing. For example, someone weighing technical specialization against a different knowledge-focused career can review online discussions of "Is a masters in library science worth it?" from reputable educational sites to see how degree value changes by field, salary structure, credential expectations, and career goals.
The best program is the one that meets the standard required for your intended career. If you want entry-level engineering and possible licensure, prioritize an ABET-accredited bachelor's pathway. If you are already an engineer seeking advancement, prioritize graduate-level mechanics depth, faculty expertise, employer recognition, and flexibility. If you only need a specific skill, a certificate or individual graduate course may be more efficient than a full degree.
Other Things You Should Know About Mechanical Engineering
Usually, yes. Engineering students often need a computer that can run CAD, simulation, programming, and data-analysis software. Requirements vary by school, so check the program's hardware specifications before buying a laptop.
Some programs offer remote labs, mailed kits, simulations, or local testing options, but others require short campus visits. Always ask how each required lab is completed before enrolling.
No. Mechanical engineering is typically more theory- and design-focused, while mechanical engineering technology is usually more applied and implementation-focused. Both can be valuable, but they may differ for licensure, graduate admission, and certain engineering job postings.
A certificate can be a smart first step if you already have an engineering background and want targeted skills in simulation, materials, robotics, or mechanics. A full master's degree may be better if you need broader advancement, research depth, or a stronger credential for senior technical roles.
References
- What Classes Do Mechanical Engineers Take In College? https://www.grace.edu/what-classes-do-mechanical-engineers-take-in-college/
- Top 10 Highest Paying Jobs in Mechanical Engineering | CADD https://caddcentre.com/blog/top-10-high-paying-jobs-in-mechanical-engineering/
- Upper School Curriculum https://www.riverdale.edu/upper-school-curriculum/
- How to Become a Mechanical Engineer - Degree & Steps https://www.onlineengineeringprograms.com/faq/how-to-become-a-mechanical-engineer
- Mechanical Engineering https://www.ualberta.ca/en/undergraduate-programs/bachelor-of-science-in-mechanical-engineering-mechanical-engineering.html
- High School Engineering Curriculum Grades 9-12 | PLTW https://www.pltw.org/curriculum/pltw-engineering
- Online Mechanical Engineering Degrees 2025 https://www.affordablecollegesonline.org/degrees/engineering-programs/mechanical-engineering/
- Salary progression in Mechanical Engineer https://www.whitecarrot.ai/resources/templates/progression-salary/mechanical-engineer
- 2025 Best Online Mechanical Engineering Degrees https://www.onlineu.com/degrees/mechanical-engineering
