2026 Best Online Electrical Engineering Degrees for Robotics and Automation Careers

An online electrical engineering degree focused on robotics and automation is a bachelor's or master's program that teaches students how electrical, electronic, control, and computing systems make machines sense, decide, move, and operate safely. In robotics, electrical engineering usually covers the "nervous system" of a machine: sensors, actuators, microcontrollers, control loops, power systems, motor drives, communication networks, and embedded software.

At the undergraduate level, the degree is usually a Bachelor of Science in Electrical Engineering, sometimes with electives or a concentration in robotics, automation, controls, embedded systems, mechatronics, or intelligent systems. At the graduate level, it may be a Master of Science in Electrical Engineering, an engineering management-adjacent program, or a systems engineering degree with automation coursework.

Students who already hold an engineering bachelor's and want deeper technical specialization may compare an online master's in electrical engineering degree with certificates in robotics, AI, controls, or industrial automation.

The degree is a good fit if you want to design or improve automated equipment rather than simply operate it. It can also make sense for technicians moving into engineering roles, software professionals who want stronger hardware knowledge, and military or manufacturing professionals with experience in electronics, PLCs, instrumentation, or maintenance.

It may not be the best first choice if your goal is mostly mechanical design, product styling, field service, or robot operation without engineering design responsibility. In those cases, mechanical engineering, mechatronics technology, industrial technology, or a shorter automation certificate may be more direct and less expensive.

The table below shows common degree routes and the kinds of robotics outcomes they typically support. Use it to match the credential level to your current background and career target rather than assuming the longest program is always the best option.

Yes, online electrical engineering degrees can be respected when they come from properly accredited institutions and include rigorous engineering coursework, assessments, labs, and design projects. Employers generally care less about whether lectures were online and more about whether the school is recognized, the curriculum is legitimate, and the graduate can solve real engineering problems.

The most important quality signal for a U.S. engineering bachelor's program is ABET accreditation, particularly through the Engineering Accreditation Commission. ABET accreditation matters because it indicates that the program has been reviewed against recognized standards for engineering curriculum, faculty, student outcomes, continuous improvement, and institutional support. It can also matter for Professional Engineer licensure, which is regulated by state boards and often favors or requires an ABET-accredited engineering degree.

Institutional accreditation is also essential. The college or university should be accredited by an accreditor recognized by the U.S. Department of Education or the Council for Higher Education Accreditation. This affects federal financial aid eligibility, credit transfer, graduate school admission, and employer confidence.

Before enrolling, verify the following items directly with the school and, when relevant, the accreditor or state licensing board:

• The institution has recognized institutional accreditation and is eligible for federal financial aid if you plan to use it.
• The specific electrical engineering program, not just the university, has ABET accreditation if you are pursuing a bachelor's degree and may need PE licensure later.
• The transcript and diploma do not label the program in a way that weakens employer recognition, such as a non-engineering technology title when you need an engineering role.
• Online students complete labs, exams, projects, and capstones that are comparable in rigor to campus requirements.
• The program publishes clear information about transfer credit, graduation requirements, student support, and any required campus visits.

Be cautious with programs that use robotics language heavily but lack core electrical engineering depth. A short online "robotics engineering" program may be useful for hobbyists or technicians, but it is not automatically equivalent to an accredited engineering degree.

Online programs can work well for robotics and automation when they are designed around remote labs, mailed lab kits, simulation software, project-based assignments, and occasional in-person intensives. The biggest difference is not the theory; it is how hands-on practice, teamwork, troubleshooting, and access to physical equipment are delivered.

Campus programs often provide easier access to robotics labs, machine shops, faculty research groups, and student teams. Online programs are usually better for working adults, military students, parents, and technicians who cannot relocate. The right choice depends on your schedule, need for lab access, and target role.

The table below summarizes practical trade-offs. It can help you decide whether flexibility or in-person lab immersion matters more for your robotics goals.

For robotics specifically, online students should look for evidence of applied work: control system projects, embedded programming assignments, sensor integration, motor control labs, PLC or industrial network exposure, and a capstone that involves real design constraints. Simulations are valuable, but they should not be the only hands-on component if your goal is equipment design, integration, or industrial automation.

A robotics-focused electrical engineering curriculum usually starts with the same foundation as any rigorous EE degree: calculus, physics, circuits, electronics, digital logic, signals, electromagnetics, and engineering design. The robotics angle appears through electives, labs, and projects that connect those fundamentals to machines that sense, compute, communicate, and move.

Students comparing programs should look for both electrical depth and systems-level integration. A strong curriculum is not just a list of robotics buzzwords; it should show how hardware, software, controls, safety, and manufacturing environments work together.

Common course areas include the following, and each one supports a different part of robotics or automation work:

• Control systems, which teach feedback, stability, tuning, and dynamic response for motors, robotic arms, autonomous platforms, and industrial processes.
• Embedded systems and microcontrollers, which cover the low-level hardware and software used in controllers, sensors, actuators, and connected devices.
• Power electronics and motor drives, which are essential for motion control, electric actuators, servo systems, and energy-efficient automation.
• Signals, sensors, and instrumentation, which help robots measure position, force, temperature, vibration, images, and environmental conditions.
• Digital systems and computer architecture, which build the foundation for real-time computing, FPGA work, and hardware-software interaction.
• Industrial automation, PLCs, and SCADA, which are especially useful for manufacturing, process control, packaging, logistics, utilities, and plant-floor systems.
• Robotics, mechatronics, or autonomous systems electives, which integrate mechanics, electronics, control, perception, and planning.
• Machine learning or computer vision electives, which are increasingly relevant for inspection, navigation, predictive maintenance, and AI-enabled automation.

Because robotics is interdisciplinary, some students benefit from adding computer science coursework. If your target roles involve perception, autonomy, simulation, or robot operating systems, it may be worth comparing EE programs with an affordable online computer science degree or adding programming-heavy electives to an electrical engineering plan.

Specializations vary by school, so read the catalog carefully. "Robotics concentration" may mean three technical electives at one university and a full sequence with labs and capstone requirements at another. The best programs show a clear path from course sequence to portfolio-ready projects.

Admission requirements depend on degree level, school selectivity, and whether the program is a full engineering degree or a related technology program. Electrical engineering is math-intensive, so admissions teams usually look closely at calculus readiness, prior science coursework, grades, and transfer credits.

For bachelor's programs, applicants commonly need a high school diploma or equivalent, transcripts, math preparation through precalculus or calculus, science coursework, and sometimes standardized test scores depending on the institution's policy. Transfer applicants may need completed college algebra, calculus, physics, chemistry, programming, or introductory engineering courses.

For master's programs, applicants typically need a bachelor's degree in electrical engineering, computer engineering, mechanical engineering, physics, computer science, or a related STEM field. Students without an EE background may be admitted conditionally but required to complete prerequisites in circuits, signals, electronics, math, or programming.

Use the admissions checklist below to identify gaps before you apply. Closing these gaps early can prevent delays, extra prerequisite costs, or rejection from a program that otherwise fits your goals:

1. Confirm whether the program is an engineering degree, engineering technology degree, or certificate, because each leads to different career and licensure options.
2. Review math prerequisites and ask whether calculus, differential equations, linear algebra, or probability can be completed before or during the program.
3. Ask how transfer credits are evaluated, especially for community college engineering, military electronics training, or prior technical coursework.
4. Check whether the program requires in-person labs, proctored exams, synchronous sessions, internships, or a campus residency.
5. Prepare a short explanation of your robotics or automation goals for statements of purpose, advising conversations, or graduate applications.

Career changers should be realistic about prerequisites. A learner coming from business, healthcare, or liberal arts may need a longer runway than a technician with electronics experience. Students from adjacent applied fields can still build a robotics pathway, but the degree must include the required engineering math and physics.

For example, someone comparing biomechanics, sensors, or human-performance technology through an online sports science degree should understand that it is not a substitute for electrical engineering if the target role requires circuit design, controls, or embedded systems.

Most online bachelor's degrees in electrical engineering take about four years of full-time study for first-time students, though transfer students may finish faster if prior credits apply. Online master's programs commonly take one to three years depending on course load, prerequisites, thesis or project requirements, and whether the student attends full time or part time.

Cost depends on residency status, public versus private pricing, transfer credit, fees, books, lab kits, software, and any required travel. College Board's 2024-25 figures show 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.

Those numbers are not online-engineering-specific, but they provide a useful benchmark when evaluating whether a quoted online tuition rate is unusually high or competitively priced.

The table below summarizes typical time and cost factors by program type. Use it as a comparison framework, then request a personalized cost estimate from each school.

When comparing costs, do not stop at tuition per credit. Ask each school for the full program cost under your expected course load and transfer scenario. Also ask whether lab kits are reusable, whether software licenses are included, whether summer courses cost more, and whether financial aid applies to all terms.

A common mistake is choosing the cheapest program without checking whether credits transfer, labs meet career needs, or ABET accreditation is present. A lower price can be a poor value if it delays graduation, limits licensure options, or does not build the skills required for robotics and automation roles. 

Employer Confidence in Online vs. In-Person Degree Skills, Global 2024

Source: GMAC Corporate Recruiters Survey, 2024

Designed by

An online electrical engineering degree can lead to multiple robotics and automation career paths, especially when the student builds a portfolio through labs, internships, capstones, work experience, or industry projects. Job titles vary by employer, and many robotics roles are posted under broader labels such as electrical engineer, controls engineer, automation engineer, embedded systems engineer, test engineer, or systems engineer.

Electrical engineering is especially useful in roles that involve sensors, controls, motor drives, power systems, industrial equipment, embedded hardware, instrumentation, or automated production lines. Software-heavy robotics roles may require stronger programming, algorithms, computer vision, or AI experience, while mechanical-heavy roles may require CAD, dynamics, mechanical design, and manufacturing knowledge.

The table below connects degree preparation to real career options. Use it to identify which skills and experiences you should prioritize while enrolled.

Some robotics work also connects to sustainability, agriculture, water systems, recycling, and environmental monitoring. If you are comparing engineering with other applied science routes, reviewing high-paying jobs with environmental science degree options can clarify whether your interests lean more toward environmental systems, field science, or engineering design.

To become competitive, use the degree as a platform rather than relying on the credential alone. Build projects that demonstrate motion control, sensing, embedded programming, data logging, safety awareness, and debugging. Employers often want to see that you can move from schematic or code to a working system.

Robotics and automation salaries vary because the field crosses several occupational categories. A controls engineer in manufacturing, an embedded systems engineer in medical devices, a robotics software developer, and an electrical design engineer may all work on automation but fall into different salary bands.

The BLS reported a May 2024 median annual wage of $111,910 for electrical engineers. That figure is a useful anchor for students considering an electrical engineering path, but it should not be treated as a guaranteed outcome. Location, industry, security clearance, overtime eligibility, graduate education, programming depth, and years of experience can all affect compensation.

The table below provides salary context for roles commonly connected to robotics and automation. It uses broad U.S. occupational categories because many employers do not report "robotics engineer" as a separate standardized occupation.

For early-career graduates, the fastest salary growth often comes from combining engineering fundamentals with practical tools: PLC programming, robot programming, Python, C or C++, industrial networking, safety standards, CAD or ECAD tools, and data analysis. Graduate degrees may help in advanced controls, R&D, leadership, or specialized robotics roles, but they are not always necessary for entry-level automation work.

When estimating return on investment, compare the full cost of the degree with your likely role, region, and experience level. A part-time online program may have a strong ROI if it lets you keep earning while studying, but an expensive program with weak labs and limited employer recognition may be harder to justify.

The U.S. outlook for robotics and automation is positive but uneven across industries. Automation is expanding in manufacturing, warehousing, electronics, medical devices, energy, defense, food production, and logistics, but hiring can still fluctuate with capital spending, interest rates, factory expansion, and technology budgets.

BLS employment projections published in 2024 estimated 9% growth for electrical and electronics engineers from 2023 to 2033. For students, that means the broader engineering category tied to robotics hardware and controls is expected to grow faster than the average for all occupations, but competition will still depend on specialization and proof of applied skills.

Several trends are shaping demand for robotics and automation talent:

• Manufacturers are using automation to address productivity, quality control, reshoring, and skilled labor constraints.
• AI is increasing demand for engineers who can connect machine learning models to sensors, embedded hardware, safety systems, and real-world processes.
• Logistics and warehouse automation continue to require engineers who understand controls, power, machine vision, robotics integration, and reliability.
• Industrial cybersecurity and connected equipment are becoming more important as robots, PLCs, and plant-floor networks become more data-driven.
• Employers increasingly value hybrid skill sets that combine electrical engineering with software, data, mechanical awareness, and systems thinking.

The best job outlook is likely for graduates who do not depend on the degree title alone. Students should build a portfolio, complete internships or employer projects when possible, learn industry tools, and document projects clearly. In robotics and automation, demonstrated ability to integrate and troubleshoot systems can matter as much as classroom performance.

The best online electrical engineering program for robotics and automation is the one that is accredited, technically rigorous, affordable for your situation, realistic for your schedule, and aligned with your target role. A highly ranked program is not automatically the best choice if it lacks the labs, electives, transfer policy, or student support you need.

Start by defining your outcome. If you want to become a controls engineer, prioritize control systems, PLCs, industrial networks, and automation labs. If you want robotics R&D, look for advanced controls, embedded systems, machine perception, simulation, and research or project opportunities. If you want to move from technician to engineer, check whether the program supports transfer credits and whether the degree title meets employer expectations.

Follow these steps before committing to a program: 

1. Verify institutional accreditation and, for bachelor's-level engineering, confirm whether the specific electrical engineering program has ABET accreditation.
2. Map required courses and electives to your target career, especially controls, embedded systems, robotics, power electronics, sensors, and programming.
3. Ask how online labs work, including whether students use mailed kits, remote lab equipment, simulations, local proctors, or required campus visits.
4. Request a full cost estimate that includes tuition, fees, books, software, lab kits, travel, and expected time to completion after transfer review.
5. Review student support services, including engineering advising, tutoring, faculty access, career services, internship support, and technical help for online labs.
6. Ask for examples of recent capstone projects, employer partnerships, student portfolios, or alumni outcomes related to robotics and automation.
7. Check whether credits can transfer into graduate study or stack into certificates if you may continue beyond the first credential.

The table below highlights common red flags and better alternatives. Use it to avoid decisions that look convenient at first but may limit career options later.

A reputable program should welcome detailed questions. If admissions staff cannot explain accreditation, labs, transfer credits, total cost, or career alignment, slow down before enrolling. The smartest choice is usually the program that makes its requirements and outcomes easiest to verify.

• Engineering Technology: Electrical, Automation and Robotics https://www.letu.edu/academics/engineering/electrical-engineering-technology.html
• News and Events https://www.roboticscareer.org/news-and-events/news/27854
• What Are The Top 10 Careers in Robotics in 2026? | NEIT https://www.neit.edu/blog/careers-in-robotics
• Robotics Technician Career Paths & Salaries | UTI https://www.uti.edu/programs/robotics-automation/career-path
• Bachelor of Engineering (Automation and Robotics) - School of Advanced Technology https://www.algonquincollege.com/sat/program/bachelor-of-automation-and-robotics/
• What to Study for a Career in Robotics? https://blog.robotiq.com/what-to-study-for-a-career-in-robotics
• Robotics Engineer Salary 2026: Complete Guide by Role, City & Experience | SVRC https://www.roboticscenter.ai/robotics-engineer-salary
• Diploma in Electrical Engineering with Robotics | PSB Academy https://www.psb-academy.edu.sg/psb-academy/diploma-in-electrical-engineering-with-robotics