2026 Online Mechanical Engineering Degrees With Design and Manufacturing Concentrations
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Choosing an online mechanical engineering degree is a high-stakes decision because design and manufacturing roles now require stronger digital, automation, and materials skills than many older programs emphasized. The U. S. Bureau of Labor Statistics reports a May 2024 median salary of $102,320 for mechanical engineers, making the field attractive but still highly dependent on program quality, accreditation, and hands-on preparation. This guide is for students, transfer applicants, and working adults comparing online options. You will learn how programs differ, what they cost, which schools to consider, and how to judge whether this path fits your goals.
Key Things You Should Know
- For bachelor's programs, ABET accreditation is one of the most important quality checks because many engineering employers and future PE licensure pathways prefer or require an ABET-accredited engineering degree.
- According to BLS May 2024 data, mechanical engineers had a median annual wage of $102,320, but pay varies widely by industry, experience, location, and whether the role is closer to product design, manufacturing systems, automation, or research and development.
- Online mechanical engineering degrees can work well for self-directed students, but design and manufacturing concentrations still require labs, CAD/CAE tools, team projects, and sometimes short campus visits or local proctored experiences.
What is an online mechanical engineering degree with design and manufacturing concentrations?
An online mechanical engineering degree with a design and manufacturing focus is a bachelor's or master's program that teaches students how mechanical products are imagined, modeled, tested, produced, improved, and maintained. The "design" side usually centers on CAD, machine design, product development, simulation, materials selection, and design for reliability. The "manufacturing" side focuses on production systems, machining, additive manufacturing, quality control, automation, lean methods, and how designs move from prototype to scalable production.
At the bachelor's level, the degree is usually a Bachelor of Science in Mechanical Engineering or a closely related engineering degree with electives or a concentration in manufacturing, product design, mechatronics, or advanced manufacturing.
At the graduate level, it is often a Master of Science in Mechanical Engineering or Master of Engineering with course clusters in design, manufacturing, robotics, materials, or systems engineering. Students who are still comparing engineering pathways more broadly may want to review what an online engineering degree typically covers before narrowing their search to mechanical engineering.
This specialization fits students who want to work on physical products and industrial systems rather than software-only careers. It is especially relevant for people interested in automotive systems, aerospace components, consumer products, medical devices, energy equipment, robotics, factory automation, and advanced manufacturing. It may not be the best fit for students who dislike physics, calculus, hands-on troubleshooting, or iterative design work where prototypes often fail before they improve.
The table below summarizes the most common degree formats. This helps you decide whether you need a full engineering foundation, an advanced credential, or a shorter skills-focused option.
| Program type | Best fit | Typical focus | Decision note |
| Bachelor's in Mechanical Engineering | First-time engineering students and transfer students seeking entry-level engineer roles | Calculus, physics, thermodynamics, mechanics, design, labs, capstone projects, manufacturing electives | Look closely for ABET accreditation if you want the broadest employer and licensure flexibility. |
| Master's in Mechanical Engineering | Engineers who already hold a bachelor's degree and want advancement or specialization | Advanced design, simulation, manufacturing systems, materials, controls, robotics, optimization | ABET accreditation is generally not the main issue at the master's level; curriculum depth and faculty expertise matter more. |
| Graduate certificate | Working professionals needing targeted skills without committing to a full degree | Additive manufacturing, CAD/CAE, quality, automation, systems engineering, product development | A certificate can be useful, but it usually will not replace an engineering degree for engineer-title roles. |
| Mechanical engineering technology degree | Students seeking applied, production-oriented technical roles | Manufacturing processes, drafting, testing, quality, plant operations, applied design | This can lead to strong technical roles, but it is not identical to a mechanical engineering degree. |
How do online mechanical engineering programs compare to campus-based options for this specialization?
Online mechanical engineering programs can be academically rigorous, but they are not simply campus programs moved into video format. The main difference is how students complete labs, team design projects, testing assignments, and faculty interaction. In a design and manufacturing concentration, these format details matter because employers value evidence that you can apply engineering theory to physical systems.
The National Center for Education Statistics' 2024 reporting continues to show that distance education remains a major part of U.S. higher education, especially for working adults. For mechanical engineering students, that trend means more flexibility, but also more responsibility to confirm whether the program includes the same labs, software access, and project expectations as the campus version.
The comparison below highlights practical differences that can affect learning quality, cost, and career readiness.
| Factor | Online mechanical engineering | Campus-based mechanical engineering | What it means for design and manufacturing students |
| Flexibility | Often asynchronous or hybrid, with remote lectures and scheduled assessments | Fixed class, lab, and project schedules | Online works well if you need to keep a job, but you must plan weekly design and lab time carefully. |
| Labs | May use home lab kits, simulations, remote labs, local facilities, or short campus residencies | Usually completed in campus labs with equipment access | Ask exactly how manufacturing, materials, and measurements labs are completed before enrolling. |
| Team projects | Often coordinated through digital collaboration tools | More face-to-face prototyping and testing | Online students should build a portfolio that clearly documents their personal role in team projects. |
| Networking | Depends heavily on virtual advising, career services, alumni access, and employer partnerships | More informal access to faculty, peers, labs, and campus recruiters | Online students may need to be more intentional about internships, professional societies, and faculty contact. |
| Software access | Can be strong if the school provides licenses and cloud lab access | Usually available through campus labs and computer clusters | Confirm access to CAD, FEA, CAM, MATLAB, and simulation tools before committing. |
An online program often makes the most sense for working adults, military students, parents, rural students, and transfer students who cannot relocate. Campus programs may be stronger for students who want maximum access to machine shops, research labs, PhD in data science online, design clubs, and in-person recruiting. The best choice is less about prestige alone and more about whether the delivery model supports the technical work you need to show employers.
Which accredited U.S. schools offer online mechanical engineering degrees in design and manufacturing?
Accredited online mechanical engineering options exist in the U.S., but students should be careful with wording. Some schools offer a fully online mechanical engineering degree; others offer online engineering technology, a master's degree with mechanical engineering electives, or an online degree that includes design and manufacturing courses without using the word "concentration." For bachelor's degrees, verify ABET Engineering Accreditation Commission status in the current ABET database and confirm that the online pathway is included.
The table below lists examples of U.S. institutions that are commonly considered by students looking for online or distance mechanical engineering study with design, manufacturing, or product-development relevance. Program formats and accreditation details can change, so use this as a starting point rather than a final approval list.
| School | Online mechanical engineering option | Design and manufacturing relevance | Accreditation check |
| University of North Dakota | Online Bachelor of Science in Mechanical Engineering | Machine design, manufacturing processes, CAD, senior design, and applied engineering labs | Confirm current ABET status for the bachelor's program before applying. |
| Arizona State University | Online Bachelor of Science in Engineering in Mechanical Engineering | Mechanical systems, product development, modeling, design, and manufacturing-related coursework | Review the current ABET listing and program catalog for the exact online degree title. |
| The University of Alabama | Distance-delivered Bachelor of Science in Mechanical Engineering pathway | Core mechanical engineering design, materials, mechanics, and manufacturing preparation | Verify whether the distance pathway follows the same ABET-accredited curriculum and requirements. |
| Purdue University | Online Master of Science in Mechanical Engineering | Graduate courses can support advanced design, manufacturing, materials, controls, and systems interests | At the graduate level, focus on institutional accreditation, curriculum fit, and faculty expertise. |
| Penn State World Campus | Online mechanical engineering graduate options | Useful for engineers interested in advanced mechanical systems, engineering analysis, and product-oriented technical leadership | Confirm the current degree title, course availability, and whether courses align with design or manufacturing goals. |
| University of Southern California | Online graduate engineering programs with mechanical and aerospace engineering coursework | Relevant for advanced design, mechanics, thermal systems, and engineering analysis | Review current course rotation, admission expectations, and concentration availability. |
When comparing schools, prioritize evidence over marketing language. A program that simply says "manufacturing careers" may not offer enough manufacturing coursework, while a program without a formal concentration may still provide strong design, CAD, simulation, and production electives. Ask the department for a current plan of study, lab requirements, software access list, capstone examples, and employer outcomes for online students specifically.
What courses and technical skills are taught in the design and manufacturing concentration?
Design and manufacturing concentrations build on the mechanical engineering core: calculus, physics, statics, dynamics, thermodynamics, fluid mechanics, heat transfer, materials, controls, and mechanical design. The concentration then adds coursework that connects engineering analysis to real products and production systems. This is where students learn to turn performance requirements into manufacturable designs.
Most programs combine theory, software, lab work, and project deliverables. The courses below are common in this specialization and matter because they map directly to the tools used in product development and manufacturing engineering roles.
- Computer-aided design and solid modeling: Students learn to create, revise, document, and communicate part and assembly designs using industry CAD tools.
- Computer-aided engineering and simulation: Courses may cover finite element analysis, computational modeling, motion simulation, fatigue analysis, and design validation.
- Machine design: Students study shafts, gears, bearings, fasteners, springs, tolerances, failure modes, and safety factors.
- Manufacturing processes: Coursework may include machining, casting, forming, welding, polymer processing, additive manufacturing, and process selection.
- Design for manufacturing and assembly: Students learn how to simplify parts, reduce production costs, improve quality, and avoid designs that are difficult to build at scale.
- Quality engineering and metrology: Topics can include measurement systems, inspection, statistical process control, tolerancing, and root-cause analysis.
- Automation and controls: Students may study sensors, actuators, PLCs, robotics, mechatronics, and feedback systems used in modern production environments.
- Capstone design or applied project: Students work through requirements, concept generation, modeling, prototyping, testing, documentation, and final presentation.
Current industry trends make digital skills especially important. AI-assisted design, generative design, digital twins, additive manufacturing, and smart factories are changing how engineers test ideas before building physical prototypes. Students do not need to become software engineers, but they should graduate comfortable using data, simulation, and automation tools to make design decisions.
A strong student portfolio should include more than screenshots of CAD models. Employers are more likely to value projects that explain the design problem, constraints, assumptions, calculations, manufacturing method, test results, trade-offs, and what changed after iteration. If an online program does not require substantial design documentation, students should create it independently.
What are the typical admission requirements for online mechanical engineering programs in this field?
Admission requirements depend on degree level, school selectivity, transfer status, and whether the program is bachelor's, master's, or certificate-based. Mechanical engineering is math-intensive, so schools often look carefully at calculus readiness and prior science coursework. Applicants who are missing prerequisites may still be admitted conditionally or directed to complete bridge courses first.
The table below summarizes common requirements so applicants can identify gaps before spending money on applications.
| Applicant type | Typical requirements | What to prepare |
| First-year bachelor's applicant | High school diploma or equivalent, math and science preparation, transcripts, application form, and sometimes test scores | Calculus readiness, physics preparation, and evidence of strong quantitative performance |
| Transfer bachelor's applicant | College transcripts, minimum GPA, completed prerequisites, and transfer-credit evaluation | Syllabi for calculus, physics, chemistry, programming, and engineering courses to improve transfer review accuracy |
| Master's applicant | Bachelor's degree in mechanical engineering or a closely related field, transcripts, GPA minimum, resume, statement of purpose, and sometimes recommendations | Proof of engineering fundamentals, professional goals, and readiness for advanced analysis courses |
| Graduate certificate applicant | Bachelor's degree or professional background in engineering, technology, science, or a related field | A clear reason for choosing manufacturing, CAD, automation, or product design coursework |
Applicants can improve their chances by addressing weaknesses before applying rather than hoping the admissions office will overlook them. The most useful preparation steps are practical and specific.
- Complete or refresh prerequisite math, especially calculus, differential equations, and linear algebra if required by the program.
- Take calculus-based physics before upper-division mechanical engineering courses whenever possible.
- Gather detailed syllabi for previous engineering, math, and science courses if you plan to transfer credits.
- Ask whether online students have the same progression requirements as campus students, including minimum grades in gateway courses.
- For master's programs, explain how design, manufacturing, automation, or product development connects to your current work or career target.
One common mistake is assuming that an online format means easier admission or lighter math. Reputable engineering programs usually maintain the same academic standards online because the degree must prepare students for technical work. If a program advertises a mechanical engineering degree but appears to require little calculus, physics, or lab work, investigate carefully before enrolling.
How long do these online mechanical engineering degrees take, and what do they cost?
Time to completion depends mainly on degree level and transfer credit. A full bachelor's degree typically requires about four years of full-time study, while transfer students with completed calculus, physics, and general education credits may finish faster. Master's programs commonly take about two years part time, though timelines vary by course load, thesis requirements, employer reimbursement schedules, and whether courses are offered every term.
Cost is harder to compare because tuition is only one part of the budget. 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 colleges and $43,350 at private nonprofit four-year colleges for the 2024-25 academic year. Online engineering students should use those figures only as context, because actual costs vary by school, residency rules, technology fees, lab kits, transfer credits, and employer benefits.
When budgeting for an online mechanical engineering program, look beyond the per-credit tuition rate. These are the cost categories most likely to affect the true total.
- Tuition charged per credit or per term
- Engineering, technology, distance learning, or lab fees
- CAD, simulation, programming, or cloud-computing software costs if not included
- Home lab kits, tools, materials, shipping, or required local lab arrangements
- Travel and lodging for any required campus intensives or proctored labs
- Textbooks, digital courseware, calculators, and technical equipment
- Lost income if the course load reduces work hours
- Interest costs if loans are used and repayment is delayed
Students comparing online STEM programs should also notice that lab-heavy degrees often have different cost patterns than lecture-heavy degrees. For example, a guide to an animal science bachelor degree online can be useful as a reminder to check in-person, equipment, and lab-related expenses even when the advertised format is online.
The smartest cost comparison is total cost to completion, not annual tuition. A slightly higher per-credit program can be cheaper if it accepts more transfer credits, offers predictable course rotations, includes software access, and helps you graduate sooner. Conversely, a low-tuition program can become expensive if required courses are unavailable when you need them or if labs require travel you did not budget for.
What careers can graduates pursue with a mechanical engineering degree focused on design and manufacturing?
Graduates with mechanical engineering preparation in design and manufacturing can pursue roles across product development, industrial production, quality, automation, and technical operations. The exact job title depends on degree level, internship experience, software skills, industry, and whether the employer distinguishes between mechanical engineering, manufacturing engineering, and mechanical engineering technology roles.
The table below summarizes common career paths and what each role typically emphasizes. It can help students choose electives and projects that match their target job.
| Career path | Typical responsibilities | Useful preparation |
| Mechanical design engineer | Create and improve mechanical parts, assemblies, mechanisms, and product systems | CAD, machine design, FEA, materials, tolerance analysis, design documentation |
| Manufacturing engineer | Improve production processes, tooling, workflow, quality, and manufacturability | Manufacturing processes, lean methods, metrology, automation, quality engineering |
| Product development engineer | Move concepts from requirements to prototype, testing, redesign, and launch | Design thinking, prototyping, CAD/CAE, testing, project management, supplier communication |
| Quality engineer | Analyze defects, validate processes, manage inspection methods, and support compliance | Statistics, measurement systems, root-cause analysis, process control, technical documentation |
| Automation or mechatronics engineer | Integrate mechanical systems with sensors, controls, robotics, and production equipment | Controls, programming basics, robotics, PLC exposure, electromechanical design |
| Applications or sales engineer | Help customers select, apply, and troubleshoot technical products or systems | Mechanical fundamentals, communication, product knowledge, manufacturing awareness |
This degree path is strongest when students build career evidence while studying. Employers often want to see internships, co-ops, capstone projects, manufacturing exposure, design portfolios, or work experience with technical problem-solving. Students who already work in maintenance, drafting, machining, quality, military technical roles, or production operations can often use that background to make their engineering applications more credible.
Some students compare mechanical engineering with adjacent science, education, or sustainability paths. If your interests are closer to ecology, environmental compliance, or education-linked sustainability work, reviewing jobs with an elementary education and environmental science degree may help clarify whether engineering design or environmental science better matches your long-term work style.
What salaries and earning potential can mechanical engineers in design and manufacturing expect?
Mechanical engineering can offer strong earning potential, but salaries should be viewed as labor-market benchmarks rather than guaranteed outcomes. The BLS reported a May 2024 median annual wage of $102,320 for mechanical engineers in the U.S. That figure is useful because it reflects the occupation broadly, but it does not isolate online graduates or design and manufacturing concentrations specifically.
Several factors can move compensation above or below the median. Industry is one of the biggest: aerospace, research and development, energy, medical devices, semiconductor manufacturing, and advanced manufacturing employers may value specialized technical skills differently than smaller local manufacturers. Location also matters because high-cost metro areas often pay more, while some manufacturing regions offer lower salaries but better entry access or lower living costs.
The following factors are especially important for students trying to estimate return on investment.
- Degree level: A bachelor's degree is the standard entry point for many mechanical engineer roles, while a master's degree may help with specialized analysis, R&D, technical leadership, or competitive industries.
- Experience: Internships, co-ops, military technical experience, machining background, drafting work, or manufacturing exposure can improve employability, especially for online students.
- Technical portfolio: Employers may respond well to documented CAD models, simulations, prototypes, test plans, tolerance studies, and manufacturing process improvements.
- Software and automation skills: CAD, FEA, CAM, MATLAB, Python, robotics, PLC familiarity, and data analysis can affect role fit and advancement opportunities.
- Licensure path: Some mechanical engineers pursue the FE exam and later PE licensure, especially in consulting, HVAC, utilities, energy systems, or public-facing engineering work.
To evaluate ROI, compare the total cost of attendance with realistic local salary ranges for the roles you want. Do not rely only on national medians or school marketing claims. Ask programs for career outcomes by modality if available, and check whether graduates from the online pathway enter engineering roles, engineering technology roles, operations roles, or graduate study.
What is the job outlook and industry demand for mechanical engineers in design and manufacturing?
The job outlook for mechanical engineers is favorable compared with many occupations, but demand is not uniform across every region or industry. BLS projections released for the 2023-2033 period show 11% employment growth for mechanical engineers, which is faster than the average for all occupations. For students, the takeaway is that opportunities are likely to exist, but the best prospects may go to candidates who can combine mechanical fundamentals with digital design, manufacturing systems, and automation skills.
Design and manufacturing roles are being shaped by several U.S. industry trends. Manufacturers are investing in automation, reshoring discussions have increased attention on domestic production capacity, and product companies are shortening development cycles through simulation and rapid prototyping. At the same time, AI-assisted design tools are changing parts of the workflow by generating design alternatives, checking patterns in data, and supporting predictive maintenance.
These trends do not remove the need for mechanical engineers; they change what competitive candidates should know. Students should graduate able to interpret simulations, question model assumptions, collaborate with manufacturing teams, and understand how design decisions affect cost, quality, safety, and production time. A purely theoretical program with little design documentation or manufacturing exposure may be less useful for this specialization.
Industry demand is often strongest where mechanical systems, production equipment, and quality requirements are central to the business. Relevant sectors include transportation equipment, aerospace, defense, energy, HVAC, industrial machinery, medical devices, robotics, consumer products, and advanced materials.
Students should research regional employers before choosing electives because a state with strong aerospace hiring may reward different skills than a region dominated by automotive suppliers or process manufacturing.
How can students evaluate and choose a reputable online mechanical engineering program in this specialization?
Choosing a reputable online mechanical engineering program requires more than comparing tuition and rankings. The right program should match your target role, provide rigorous engineering fundamentals, support hands-on learning, and give you enough evidence to show employers that your online degree included real technical work. This is especially important for design and manufacturing, where portfolios, labs, and project outcomes can influence job interviews.
Use the following sequence to evaluate programs before applying. These steps help reduce the risk of choosing a program that is affordable or convenient but poorly matched to your career goal.
- Verify accreditation first. For bachelor's mechanical engineering programs, check current ABET Engineering Accreditation Commission status and confirm the exact online degree title is covered.
- Review the full curriculum. Look for calculus-based engineering science, mechanical design, manufacturing processes, lab work, CAD/CAE, controls, materials, and a substantial capstone.
- Ask how labs work online. Request details on remote labs, lab kits, simulations, local facility options, proctoring, and any required campus visits.
- Confirm software access. Make sure online students receive access to the same CAD, simulation, programming, and technical tools used in coursework.
- Check course rotation. Ask whether upper-division design and manufacturing electives are offered frequently enough to graduate on your timeline.
- Compare total cost to completion. Include transfer credits, fees, travel, software, lab materials, books, and loan interest rather than focusing only on tuition per credit.
- Ask about career support for online students. Look for internship guidance, employer connections, portfolio reviews, alumni access, and engineering-specific advising.
- Review student work examples. Strong programs can describe recent capstone projects, design reports, manufacturing projects, or research opportunities.
Students should also watch for red flags. A program that avoids clear accreditation answers, minimizes lab requirements, lacks advanced design or manufacturing coursework, or promises unusually easy completion may not provide the preparation employers expect.
Another mistake is assuming that any online STEM credential will serve the same purpose; a masters in library science, for example, can be an excellent professional degree in its own field, but it is built around a completely different labor market, accreditation context, and skill set than mechanical engineering.
The best choice is the program that aligns with your intended role and gives you credible proof of competence. If you want design engineering, prioritize CAD, simulation, machine design, and product-development projects. If you want manufacturing engineering, prioritize process coursework, quality, automation, metrology, and exposure to production environments. If you are unsure, choose a program with enough elective flexibility to sample both areas before specializing.
Other Things You Should Know About Mechanical Engineering
Possibly, but requirements vary by state. An ABET-accredited bachelor's degree, passing the FE exam, qualifying engineering experience, and passing the PE exam are common parts of the pathway. Always check your state engineering board before enrolling.
Internships are not always mandatory, but they are highly valuable. They help online students demonstrate hands-on ability, workplace communication, and familiarity with real design or manufacturing constraints.
Most students need a reliable computer that can run CAD, simulation, programming, and collaboration tools. Before buying equipment, ask the school for its current hardware specifications because software requirements can change by course.
No. Mechanical engineering technology is usually more applied and production-oriented, while mechanical engineering is typically more theory- and analysis-intensive. Both can be useful, but they may lead to different job titles, employer expectations, and licensure options.
References
- 2025 Best Online Mechanical Engineering Degrees https://www.onlineu.com/degrees/mechanical-engineering
- Top 10 Highest Paying Jobs in Mechanical Engineering | CADD https://caddcentre.com/blog/top-10-high-paying-jobs-in-mechanical-engineering/
- How to Become a Mechanical Engineer - Degree & Steps https://www.onlineengineeringprograms.com/faq/how-to-become-a-mechanical-engineer
- Courses https://international.tu.kielce.pl/main/faculties/wmibm/courses-en/
- How to Evaluate If an Engineering Program Is a Good Fit - Your College-Bound Kid https://yourcollegeboundkid.com/2023/03/10/how-to-evaluate-if-an-engineering-program-is-a-good-fit/
- Online Mechanical Engineering Degrees 2026: Costs & Salary Compared https://www.fernstudi.net/en/onlinestudies/technology/mechanical-engineering
- Campus vs Online Engineering Degrees - What Employers Think https://www.itcareerfinder.com/brain-food/blog/entry/what-employers-think-about-online-engineering-degrees.html
- Mechanical Engineering Job Market Trends 2025 | Vista Projects https://www.vistaprojects.com/mechanical-engineering-job-market-trends/
- Online Mechanical Engineering Degrees 2025 https://www.affordablecollegesonline.org/degrees/engineering-programs/mechanical-engineering/
- What can you do with a mechanical engineering degree? https://www.hull.ac.uk/study/undergraduate/courses/mechanical-engineering-beng-meng-hons/what-can-you-do-with-a-mechanical-engineering-degree
