2026 Best Online Mechanical Engineering Degrees for Industrial Equipment Careers
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Choosing an online mechanical engineering degree is a high-stakes decision if your goal is to design, maintain, or improve industrial equipment. The U.S. Bureau of Labor Statistics reports that mechanical engineers had a May 2024 median annual wage of $102,320, reflecting the value employers place on technical design and systems skills.
This guide is for working adults, transfer students, and career changers who want a flexible engineering path. You will learn how to compare programs, check accreditation, estimate cost, and connect coursework to industrial equipment careers.
Key Things You Should Know
- The best online mechanical engineering option for industrial equipment roles is usually an ABET-accredited bachelor's degree in mechanical engineering, especially for students who may later pursue Professional Engineer licensure.
- Mechanical engineers earned a May 2024 median annual wage of $102,320, but pay varies by industry, location, experience, licensure, and whether the role focuses on design, manufacturing, reliability, or project leadership.
- Online programs can work well for industrial equipment careers, but students should verify lab delivery, proctored exams, internship access, transfer credit rules, and whether the curriculum includes thermodynamics, machine design, controls, manufacturing, and CAD/CAE tools.
What are the best online mechanical engineering degrees for industrial equipment careers?
The best online mechanical engineering degrees for industrial equipment careers are programs that combine rigorous engineering fundamentals with applied coursework in machines, materials, fluids, manufacturing, controls, and reliability. "Industrial equipment careers" can include roles involving pumps, turbines, compressors, conveyors, HVAC systems, robotics, production machinery, packaging equipment, and heavy mechanical systems used in manufacturing, energy, logistics, food processing, mining, and utilities.
For most students, the strongest option is an online Bachelor of Science in Mechanical Engineering from an ABET-accredited program. Students who already hold an engineering or closely related bachelor's degree may be better served by an online master's in mechanical engineering, manufacturing engineering, systems engineering, or reliability engineering.
If you are comparing closely related engineering disciplines, reviewing the top online electrical engineering schools can also help you understand how controls, power systems, and automation differ from mechanical design pathways.
The table below compares the main degree paths and when each one makes sense for industrial equipment goals. Use it to match your current education level with the type of work you want to do.
| Degree path | Best fit | Industrial equipment relevance | Decision note |
| Online BS in Mechanical Engineering | First-time engineering students and transfer students seeking design or analysis roles | Strongest preparation for machine design, thermodynamics, fluids, materials, and mechanical systems | Prioritize ABET accreditation if licensure or traditional engineering roles may matter later |
| Online BS in Mechanical Engineering Technology | Students who prefer applied, hands-on equipment work | Useful for testing, maintenance engineering support, production, field service, and manufacturing operations | May not be treated the same as an engineering degree by every employer or licensing board |
| Online MS in Mechanical Engineering | Engineers seeking advancement, specialization, or technical leadership | Useful for advanced design, thermal systems, simulation, product development, and automation-heavy equipment projects | Usually requires a strong math, physics, and engineering foundation |
| Online MS in Manufacturing, Industrial, or Systems Engineering | Professionals moving toward process improvement, equipment reliability, or operations leadership | Relevant for plant optimization, lean systems, quality, maintenance strategy, and production equipment performance | Best when your goal is improving equipment-driven systems rather than designing individual machines |
A practical way to choose is to start with your target job description, not the school brochure. Industrial equipment employers often look for evidence that you can solve real machine problems, communicate with production teams, and use engineering tools responsibly.
Before enrolling, compare programs using these criteria so you do not choose a degree that is flexible but poorly aligned with your career target:
- Confirm whether the exact online program is ABET accredited, not just the university or department.
- Review required labs and ask whether any in-person intensives, lab kits, or approved local lab arrangements are required.
- Look for courses in machine design, manufacturing processes, controls, fluid mechanics, heat transfer, materials, CAD, finite element analysis, and instrumentation.
- Ask how online students access internships, co-ops, senior design projects, and employer recruiting.
- Check whether transfer credits reduce time and cost without weakening your preparation in calculus, physics, statics, dynamics, and materials.
Are online mechanical engineering degrees ABET accredited?
Some online mechanical engineering degrees are ABET accredited, but students should verify accreditation at the program level. ABET accredits specific programs, not entire universities, and delivery format matters less than whether the online degree is included in the accredited program's official listing.
ABET accreditation is especially important for students who want a traditional mechanical engineering role, may work on safety-critical equipment, or may pursue Professional Engineer licensure. Many employers use ABET as a quality signal because it indicates that the curriculum has been reviewed for engineering math, science, design, ethics, assessment, and continuous improvement.
For industrial equipment careers, accreditation matters most when the job involves design authority, public safety, regulated systems, consulting, government contracts, or engineering sign-off. It may matter less for some operations, sales engineering, maintenance, or technician-adjacent roles, but choosing a non-ABET program can limit options later.
Use this quick check before you apply. It helps you avoid one of the most common mistakes: assuming a school's reputation automatically applies to every online degree it offers.
- Search for the exact program name, degree level, campus, and delivery format in the accreditor's official program listing.
- Confirm whether the degree title says mechanical engineering, mechanical engineering technology, or another related field.
- Ask the admissions office to state in writing whether online students graduate from the ABET-accredited program.
- Check whether accreditation applies to the year you expect to graduate, not only to past cohorts.
- If licensure is a goal, confirm requirements with the state engineering board where you plan to practice.
The key takeaway is simple: an online format does not automatically make a mechanical engineering degree weaker, but a lack of program-level accreditation can create real professional barriers.
Can online mechanical engineering degrees lead to industrial equipment jobs?
Yes, online mechanical engineering degrees can lead to industrial equipment jobs when the program builds the same technical foundation expected of campus-based engineering graduates and the student gains applied experience. Employers generally care about whether you can analyze mechanical systems, troubleshoot equipment problems, document design decisions, and work safely with cross-functional teams.
The labor market supports this pathway. The Bureau of Labor Statistics projected mechanical engineer employment to grow 11% from 2023 to 2033, which is faster than the average for all occupations. For students, that does not guarantee a job, but it does suggest continued demand for engineers who can support manufacturing, automation, energy systems, transportation equipment, and product development.
Industrial equipment roles vary widely. Some are design-centered, while others focus on reliability, manufacturing support, installation, testing, or field service. The table below shows how common job targets connect to degree preparation:
| Career target | Typical responsibilities | Degree preparation that helps | Experience that strengthens applications |
| Mechanical design engineer | Designs components, assemblies, fixtures, and machine systems | Machine design, CAD, materials, statics, dynamics, finite element analysis | Senior design project, CAD portfolio, internship, manufacturing exposure |
| Manufacturing engineer | Improves production equipment, tooling, workflows, and quality | Manufacturing processes, controls, statistics, automation, materials | Plant internship, lean projects, equipment troubleshooting, process documentation |
| Reliability or maintenance engineer | Reduces downtime and improves equipment performance | Vibration, materials failure, fluid systems, controls, thermodynamics | CMMS exposure, root cause analysis, preventive maintenance projects |
| Field service engineer | Installs, tests, troubleshoots, and supports complex machinery | Instrumentation, mechanical systems, electrical basics, fluid power | Hands-on lab work, customer communication, travel readiness, safety training |
| Applications or sales engineer | Matches equipment to customer requirements and supports technical proposals | Mechanical systems, fluids, heat transfer, communication, technical writing | Industry internship, product knowledge, presentation experience |
To make an online degree more career-ready, build proof of skill outside the transcript. Industrial employers often respond well to practical evidence. Below are several nifty strategies:
- Create a portfolio with CAD models, design calculations, test results, simulation screenshots, and clear explanations of engineering trade-offs.
- Seek internships, co-ops, part-time plant roles, research assistantships, or technician work that exposes you to real equipment.
- Learn widely used tools such as SolidWorks, AutoCAD, MATLAB, Python, Excel modeling, ANSYS, LabVIEW, or PLC fundamentals based on your target job postings.
- Document safety awareness, root cause analysis, preventive maintenance thinking, and experience working with production or operations teams.
A common mistake is treating "online" as the full strategy. The degree can open the door, but industrial equipment employers still need evidence that you can apply engineering judgment to physical systems.
What courses are included in an online mechanical engineering degree?
An online mechanical engineering degree usually includes the same core subjects as a campus program: calculus, physics, chemistry, engineering mechanics, thermodynamics, fluid mechanics, materials, machine design, controls, manufacturing, and senior design. The strongest programs also require labs, design projects, and computational tools that mirror modern engineering practice.
Mechanical engineering is math-heavy because students learn to model forces, motion, energy, heat, fluids, and material behavior. If you prefer applied human performance, biomechanics, or wellness-oriented science rather than machine systems, comparing exercise science degrees online may clarify whether your interests are closer to health science than engineering design.
The table below groups typical coursework by purpose. This matters because course titles vary across schools, but the underlying competencies should be present in any serious mechanical engineering curriculum.
| Course area | What you learn | Why it matters for industrial equipment |
| Calculus, differential equations, and statistics | Mathematical modeling, uncertainty, optimization, and data interpretation | Supports equipment sizing, performance analysis, quality control, and failure investigation |
| Statics, dynamics, and mechanics of materials | Forces, motion, stress, strain, deflection, and structural behavior | Essential for frames, shafts, bearings, linkages, cranes, and machine components |
| Thermodynamics, heat transfer, and fluid mechanics | Energy systems, heat flow, pumps, compressors, pipes, and flow behavior | Relevant to HVAC, boilers, turbines, hydraulic systems, cooling systems, and process equipment |
| Machine design and materials | Component selection, fatigue, failure modes, manufacturability, and material properties | Helps engineers design durable equipment and diagnose mechanical failures |
| Controls, instrumentation, and mechatronics | Sensors, feedback systems, actuators, data acquisition, and automation concepts | Increasingly important as industrial equipment becomes more connected and automated |
| CAD, simulation, and senior design | Modeling, prototyping, testing, documentation, and team-based problem-solving | Provides portfolio evidence employers can review during hiring |
Students planning for industrial equipment careers should choose electives carefully. The best electives depend on whether you want to design equipment, support manufacturing, or improve reliability.
How do online and campus mechanical engineering programs compare?
Online and campus mechanical engineering programs can cover similar technical content, but they differ in scheduling, lab access, peer interaction, and recruiting experience. The right choice depends on whether you need flexibility, want daily access to labs, or learn best in a structured in-person environment.
Online engineering is not the same as reading slides alone. Strong programs use live or recorded lectures, remote collaboration, simulation tools, shipped lab kits, approved local lab work, proctored exams, and in-person lab intensives when needed.
Lab-heavy online majors vary in how they handle field or hands-on requirements; for example, students comparing the best online geology degree will see similar questions about fieldwork, lab access, and local practical experiences.
The comparison below highlights trade-offs that matter for mechanical engineering students. Use it to decide which format fits your schedule and career preparation needs.
| Factor | Online mechanical engineering | Campus mechanical engineering | Best choice when |
| Schedule flexibility | Often better for working adults and students with family responsibilities | Usually more fixed around daytime courses and lab schedules | Online fits if you need to keep working while studying |
| Lab access | May use kits, remote labs, local partners, or short residencies | Usually easier access to machine shops, testing labs, and faculty-supervised facilities | Campus fits if you want frequent hands-on lab time |
| Peer and faculty interaction | Depends heavily on discussion design, live sessions, team projects, and instructor availability | Often more spontaneous through office hours, labs, and student organizations | Campus fits if you thrive on face-to-face learning |
| Internships and recruiting | Can be strong, but online students may need to be more proactive | Often easier to access campus career fairs and employer visits | Online fits if you already work near relevant employers |
| Cost control | May reduce relocation and commuting costs | May provide more built-in access to facilities and campus services | Compare total cost, not only tuition |
Avoid choosing an online program solely because it appears convenient. Mechanical engineering is demanding in any format, and online students need time for problem sets, labs, group work, and design projects.
Ask admissions advisors these questions before committing:
- How are laboratory courses delivered, and are any campus visits required?
- What software is included in tuition, and what must students purchase separately?
- How do online students complete senior design projects?
- Are career services, internships, and employer events available to distance learners?
- What is the typical weekly time commitment for students taking two technical courses at once?
What admissions requirements do online mechanical engineering programs ask for?
Online mechanical engineering admissions requirements vary by school and degree level, but most programs look for evidence that you can handle advanced math, physics, and engineering problem-solving. Bachelor's programs usually require high school transcripts or transfer credits, while master's programs often require a prior engineering or closely related STEM degree.
For undergraduate applicants, the most important preparation is math readiness. Students who enter without calculus, physics, and strong algebra skills may need prerequisites before they can begin core engineering courses. Transfer students should also check whether prior credits satisfy engineering requirements or only count as general electives.
The table below summarizes typical requirements:
| Applicant type | Common requirements | What to watch for |
| First-year bachelor's applicant | High school diploma or equivalent, transcripts, math and science preparation, application materials | Some programs expect precalculus or calculus readiness before engineering coursework |
| Transfer bachelor's applicant | College transcripts, minimum GPA, completed prerequisites, transfer credit evaluation | Engineering courses may not transfer cleanly if they do not match the receiving program's sequence |
| Engineering technology applicant | Transcripts, applied technical background, math placement, possible associate degree credits | Career outcomes may differ from a traditional engineering degree |
| Master's applicant | Bachelor's degree, engineering prerequisites, GPA, resume, statement of purpose, recommendations | Students from non-ME backgrounds may need bridge courses in mechanics, thermodynamics, or fluids |
Admissions decisions are not only about getting in; they also affect time, cost, and academic risk. A student admitted without enough prerequisite preparation may spend extra terms catching up.
To improve your fit before applying, take these steps:
- Request an unofficial transfer evaluation before you pay enrollment deposits.
- Ask whether calculus, physics, chemistry, and engineering mechanics must be completed before upper-division courses.
- Compare minimum admission requirements with the preparation of successful students, which may be higher.
- Clarify whether courses are asynchronous, synchronous, or hybrid so you can plan around work.
- Ask what happens if you need to repeat a sequential course that is offered only once per year.
How long does an online mechanical engineering degree take?
An online bachelor's degree in mechanical engineering typically takes about four years of full-time study for first-time students, but many online learners take longer because they work, transfer credits, or study part time. A master's degree commonly takes one to three years depending on course load, prerequisites, and whether the program requires a thesis, project, or coursework-only plan.
Mechanical engineering can be less flexible than some online majors because courses build in strict sequences. For example, students usually need calculus before physics, statics before mechanics of materials, and thermodynamics before heat transfer. Missing one prerequisite can delay later courses.
The table below shows common timeline scenarios:
| Path | Typical time frame | Best fit | Main trade-off |
| Full-time online bachelor's | About four years | Students who can prioritize school heavily | Demanding workload, especially during lab and design-heavy terms |
| Part-time online bachelor's | Often five to six or more years | Working adults and caregivers | Longer time before degree completion and possible curriculum changes |
| Transfer-completion route | Often two to four years after prerequisites | Students with prior calculus, physics, and general education credits | Transfer rules can limit how much time you actually save |
| Online master's degree | Usually one to three years | Engineers seeking specialization or advancement | May require leveling courses if your undergraduate background is not mechanical engineering |
Students who want to finish faster should be realistic about course intensity. Taking too many technical courses at once can lead to withdrawals, lower grades, and weaker learning.
A smarter acceleration plan usually looks like this:
- Complete calculus, physics, chemistry, and general education courses at an approved lower-cost institution if the engineering program accepts them.
- Take sequential engineering courses in the recommended order rather than trying to overload.
- Use summer terms for general education, programming, statistics, or electives instead of stacking multiple lab-heavy courses.
- Keep work hours stable during senior design, thermodynamics, fluids, controls, and machine design courses.
What does an online mechanical engineering degree cost?
The cost of an online mechanical engineering degree depends on residency status, institution type, transfer credits, fees, lab requirements, software, and how long you take to finish. Tuition is only one part of the total cost; engineering students may also pay for proctoring, lab kits, textbooks, computer hardware, travel for residencies, and specialized software.
College Board reported these average published tuition and fee figures for full-time undergraduates in 2024-25, which provide a useful baseline when comparing online options:
- Public four-year in-state: $11,610
- Public four-year out-of-state: $30,780
- Private nonprofit four-year: $43,350
These figures are not specific to mechanical engineering or online programs, but they show why residency and institution type can make a large difference. Online students should compare net price after grants, scholarships, employer tuition assistance, and transfer credits rather than relying only on the posted tuition rate.
Engineering can also carry higher indirect costs than many online programs because lab and computing requirements matter. If you are comparing affordability across graduate-level online programs more broadly, a guide to a masters of library science online can be a useful contrast because nonengineering programs often have different lab, equipment, and software cost structures.
To estimate your real cost, build a program-by-program budget. This is where many students avoid expensive surprises.
- Ask for a total program cost estimate, including tuition, mandatory fees, distance learning fees, lab fees, and graduation fees.
- Confirm whether tuition is charged per credit, per term, or through a flat-rate model.
- Calculate how many credits you still need after an official transfer evaluation.
- Ask whether engineering software licenses are included or whether you must pay separately.
- Include travel and lodging if the program requires campus lab intensives, exams, or orientations.
- Compare financial aid, scholarships, military benefits, employer tuition reimbursement, and payment plans.
The best-value program is not always the cheapest. A slightly higher-cost ABET-accredited program with strong labs, better transfer policies, and stronger employer access may be a better investment than a cheaper option that limits licensure or job options.
What salaries do industrial equipment engineers earn?
Industrial equipment engineering salaries vary by job title, industry, location, experience, degree level, and whether the role involves design authority, field support, manufacturing improvement, or management. The clearest national benchmark is the mechanical engineer occupation: the Bureau of Labor Statistics reported a May 2024 median annual wage of $102,320 for mechanical engineers.
That number is useful, but it should not be read as an expected starting salary. Entry-level roles may pay less, while experienced engineers in high-demand industries or high-cost regions may earn more. Students should compare salary data by target role and local labor market before deciding how much debt is reasonable.
The table below explains how industrial equipment career paths can differ even when they all use mechanical engineering knowledge:
| Role category | Salary drivers | What can improve earning potential over time |
| Mechanical design | CAD/CAE skill, product complexity, industry, design responsibility | Strong portfolio, simulation skills, product launch experience, PE license where relevant |
| Manufacturing engineering | Plant size, automation level, production environment, quality responsibility | Lean experience, robotics exposure, process improvement results, cross-functional leadership |
| Reliability engineering | Downtime cost, asset complexity, safety risk, industry regulation | Root cause analysis, vibration analysis, maintenance strategy, reliability certifications |
| Field service engineering | Travel, equipment specialization, customer support demands, overtime policies | Manufacturer training, troubleshooting depth, communication skills, controls knowledge |
| Engineering management | Team size, budget authority, project scope, industry | Project leadership, business skills, advanced degree, professional licensure where applicable |
When evaluating return on investment, compare your expected total borrowing with conservative early-career salary assumptions, not just national medians. Also consider whether the program helps you access internships, employer networks, and projects that make you competitive for better roles.
Salary red flags include schools that imply guaranteed earnings, use vague "high-paying career" claims without occupational context, or report outcomes without explaining sample size, job titles, geography, and whether graduates already had experience.
Do industrial equipment careers require licensure or certifications?
Many industrial equipment jobs do not require a Professional Engineer license, especially roles inside manufacturing plants, equipment manufacturers, field service teams, or private companies. However, licensure can matter for engineers who offer services to the public, approve safety-critical designs, work in consulting, supervise regulated projects, or want long-term advancement in certain industries.
The usual PE pathway involves graduating from an appropriate engineering program, passing the Fundamentals of Engineering exam, gaining qualifying supervised experience, and passing the PE exam. Requirements vary by state, and graduates of non-ABET or engineering technology programs may face different rules, so students should check the engineering board in the state where they plan to practice.
Certifications are different from licensure. They usually are not legal permission to practice engineering, but they can demonstrate skill in reliability, manufacturing, quality, project management, maintenance, or software tools.
The table below distinguishes credentials that may be relevant to industrial equipment careers. It is not a substitute for state licensing advice, but it can help you plan your next steps.
| Credential type | What it signals | When it helps |
| Engineer-in-Training or Fundamentals of Engineering exam | Early progress toward PE licensure | Useful for students who may enter consulting, public-sector work, or regulated engineering roles |
| Professional Engineer license | Legal authority for certain engineering services and responsible charge | Important in consulting, public safety, utilities, infrastructure, and some leadership roles |
| Reliability or maintenance certification | Knowledge of asset performance, maintenance strategy, and failure reduction | Helpful for reliability engineering, maintenance engineering, and plant asset management |
| Quality or manufacturing certification | Process improvement, quality systems, and production problem-solving | Useful in manufacturing engineering, supplier quality, and continuous improvement roles |
| Software or vendor training | Competence with CAD, simulation, controls, or equipment platforms | Helpful for design, field service, automation, and applications engineering roles |
Students should avoid assuming certifications can replace an engineering degree for roles that explicitly require one. The smarter approach is to use certifications to sharpen a degree-based path or to document specialized skills after you have identified the job titles you want.
If licensure might matter, take these steps early:
- Choose an ABET-accredited mechanical engineering program when possible.
- Ask whether graduates are eligible to sit for the FE exam in your state.
- Keep records of syllabi, transcripts, labs, and design projects in case a licensing board requests documentation.
- Seek supervised engineering experience under licensed or senior engineers when available.
- Check state rules before choosing an engineering technology or non-ABET pathway.
Other Things You Should Know About Mechanical Engineering
It can be challenging online because the subject requires advanced math, long problem sets, labs, and team projects. Students who succeed usually have a consistent weekly study schedule, use tutoring early, participate in live sessions when available, and avoid taking too many technical courses at once.
Useful tools often include CAD software, spreadsheet modeling, MATLAB or Python, simulation software, and basic data analysis tools. The best choices depend on your target role, so review job postings for industrial equipment, manufacturing, reliability, or design roles before investing time in a specific platform.
Strong projects show a complete engineering process: problem definition, calculations, design alternatives, CAD models, prototype or simulation results, testing, cost considerations, and lessons learned. Equipment redesigns, pump or conveyor analyses, thermal system models, vibration studies, and automation concepts can all be useful portfolio pieces.
No. Mechanical engineering programs are typically more theory- and design-focused, while mechanical engineering technology programs are usually more applied and implementation-focused. Both can be valuable, but they may lead to different job titles, licensure options, and employer expectations.
References
- Heavy Equipment Operator Certification & License Requirements | Bigrentz https://www.bigrentz.com/blog/heavy-equipment-operator-certification
- How Long to Become a Mechanical Engineer? | University of Bridgeport https://www.bridgeport.edu/news/time-to-become-a-mechanical-engineer/
- Engineering School Admissions Requirements - GPA, GRE, SAT https://www.onlineengineeringprograms.com/faq/admissions-requirements-for-engineering-school
- Find Programs - ABET https://www.abet.org/accreditation/find-programs/
- Do I Need a Heavy Equipment Operator License or Certification? https://www.unitedrentals.com/project-uptime/equipment/how-get-heavy-equipment-operator-certification-and-who-needs-it
- 2025 Best Online Mechanical Engineering Degrees https://www.onlineu.com/degrees/mechanical-engineering
- Online Mechanical Engineering Degrees 2025 https://www.affordablecollegesonline.org/degrees/engineering-programs/mechanical-engineering/
- FAQ: Do You Need a Forklift Certification to Work in a Warehouse? https://www.flextrades.com/blog/forklift-certification-and-other-manufacturing-faqs/
