2026 Online Electrical Engineering Degrees With Control Systems Focus

An online electrical engineering degree with a control systems focus is an engineering program that teaches students how to design, analyze, and improve systems that regulate physical processes. In plain terms, control systems help machines, power grids, robots, vehicles, factories, and devices respond predictably to changing conditions.

The "online" part usually means lectures, assignments, simulations, coding work, exams, and advising are delivered remotely. The "control systems focus" may appear as a concentration, elective cluster, graduate certificate, thesis area, or set of upper-division courses rather than as a separate degree title.

The best fit depends on your current education level and career target. This table summarizes the most common degree formats and when they make sense:

Choose a traditional electrical engineering degree if you want the broadest engineering mobility. Choose an engineering technology or certificate route if your immediate goal is more applied, hands-on automation work and you do not need a licensure-oriented engineering degree.

Some online electrical engineering programs are ABET-accredited, but not all of them are. ABET accredits specific programs, not entire universities, and the accreditation status can differ by degree level, campus, delivery format, and program name.

This matters because ABET accreditation is often used as a quality signal by employers, graduate schools, and state engineering licensure boards. If you may eventually pursue the Fundamentals of Engineering exam, the Principles and Practice of Engineering exam, or a Professional Engineer license, verify requirements with your state board before enrolling.

Before applying, check these accreditation details carefully because small wording differences can change your options later:

• Confirm that the exact program title is ABET-accredited, not just a related campus program.
• Check whether accreditation applies to the online format, the on-campus format, or both.
• Ask whether the curriculum includes required labs, design projects, and proctored assessments.
• Review state authorization if you live outside the school's home state.
• Ask admissions whether graduates have been eligible for FE exam pathways in your state.

A common mistake is assuming that regional or institutional accreditation is the same as ABET accreditation. Institutional accreditation matters for federal financial aid and transfer credit, but ABET is the specialized engineering accreditation that carries weight in engineering practice and licensure discussions.

Online and campus electrical engineering degrees can cover the same academic material, but the learning experience is different. The biggest differences are lab access, scheduling flexibility, peer interaction, employer networking, and how much self-direction the student needs.

The comparison below highlights the practical trade-offs that matter most when choosing a format:

Students using military benefits should also compare credit for prior learning, Yellow Ribbon participation, deployment flexibility, and veteran support. A dedicated guide to an electrical engineering degree online for veterans can help service members ask more specific enrollment questions.

Online is not automatically easier. In engineering, the workload can be just as demanding because students still complete math, programming, design, and lab-based assignments. The better question is whether the program's delivery model matches your schedule, learning style, and career timeline.

A control systems curriculum sits at the intersection of electrical engineering, applied mathematics, computing, and physical systems. Students learn how to model a system, measure its behavior, design a controller, test stability, and improve performance.

Course names vary by school, but most controls-focused electrical engineering plans include several of the following areas:

• Calculus, differential equations, linear algebra, and probability for modeling signals and dynamic systems.
• Circuits, electronics, electromagnetics, and power systems for understanding electrical behavior.
• Signals and systems, digital signal processing, and feedback control theory.
• Microcontrollers, embedded systems, sensors, actuators, and instrumentation.
• Programmable logic controllers, industrial automation, robotics, mechatronics, or process control.
• Simulation and programming using tools such as MATLAB, Simulink, Python, C, or vendor-specific automation platforms.
• Senior design, capstone projects, or applied research involving a controlled physical or simulated system.

Because modern controls work is increasingly software-heavy, students should pay attention to how much programming, data analysis, and cybersecurity awareness the curriculum includes. If your main interest is software rather than hardware, a fast track computer science degree may be a better fit than an electrical engineering program.

AI and automation are also changing expectations. Employers increasingly value engineers who can integrate sensors, analytics, machine learning tools, and safety constraints into real-world systems. That does not replace control theory; it makes the fundamentals more valuable because automated systems still need to be stable, reliable, and explainable.

Admissions requirements depend heavily on degree level. Bachelor's programs usually focus on high school preparation, transfer credits, and math readiness. Master's programs usually expect a bachelor's degree in electrical engineering, computer engineering, mechanical engineering, or a closely related STEM field.

Most schools use admissions requirements to answer one question: can the student handle an engineering curriculum that includes advanced math, programming, and lab-based problem solving? Expect some combination of the following:

• High school diploma, GED, or prior college credits for undergraduate admission.
• Strong preparation in calculus, physics, chemistry, and laboratory science.
• College transcripts, minimum GPA expectations, and transfer course evaluation.
• Prerequisite coursework for graduate applicants, especially circuits, signals, programming, and differential equations.
• Resume, statement of purpose, recommendation letters, or professional experience for master's programs.
• English language proficiency documentation for applicants whose prior education was not in English.

If you are missing prerequisites, do not assume you need to abandon the path. Some programs offer bridge courses, conditional admission, nondegree prerequisite enrollment, or transfer pathways from community colleges.

Before you apply, use this short process to reduce wasted time and application costs:

1. Choose the role you want first, such as controls engineer, automation engineer, power systems engineer, or embedded systems engineer.
2. Check whether that role usually expects an ABET-accredited engineering degree, a graduate degree, or applied technical experience.
3. Send unofficial transcripts to admissions and ask for a preliminary transfer or prerequisite review.
4. Ask whether online students have access to the same advising, tutoring, career services, and faculty office hours as campus students.
5. Confirm whether any labs, exams, orientations, or residencies require travel.

An online electrical engineering degree usually takes about the same academic time as an on-campus degree, but calendar time varies because many online students enroll part time. Transfer credit, summer enrollment, prerequisite gaps, and work schedule are the biggest timeline variables.

The table below summarizes common timelines so you can compare the likely commitment before you apply:

Accelerated formats can be useful, but engineering is not a field where speed should be your only priority. A compressed program may be a poor fit if it leaves too little time for calculus, labs, programming practice, internships, or capstone work.

A practical rule is to plan backward from your constraints. If you work full time, have family responsibilities, or need to keep earning income, a part-time online plan may produce a better outcome than an aggressive schedule that leads to course withdrawals or weak project experience.

Costs vary widely by institution, residency status, degree level, transfer credits, and whether the program charges online fees. For national context, the College Board reported the following average published tuition and fee figures for full-time undergraduates in 2024-2025; these are sticker prices before grants, scholarships, employer benefits, or veterans benefits:

• Public four-year in-state averaged $11,610.
• Public four-year out-of-state averaged $30,780.
• Private nonprofit four-year averaged $43,350.

Those figures help frame the market, but they do not tell you the full cost of an online engineering degree. Online students should ask for a program-level estimate that includes engineering fees, lab kits, proctoring, software, textbooks, technology charges, graduation fees, and any required travel.

This table shows the cost factors most likely to change your total investment:

Do not compare programs by tuition alone. A lower tuition rate can be offset by poor transfer policies, limited course availability, or required travel. Conversely, a higher-priced program may be worth considering if it has ABET accreditation, strong lab delivery, employer connections, and a clear path to your target role.

If you are comparing different online fields by affordability and career fit, it can also help to look at non-engineering options such as a library science degree, especially if your main priority is cost containment rather than engineering licensure or technical design work.

A control systems focus prepares graduates for roles that involve designing, automating, monitoring, or improving systems that respond to real-time inputs. These jobs exist in manufacturing, utilities, aerospace, automotive, semiconductor production, robotics, energy, building automation, water systems, and industrial technology.

The table below shows common roles and how they typically use control systems knowledge:

Control systems can also connect to environmental and infrastructure work, including water treatment, energy efficiency, monitoring systems, and emissions controls. If you are comparing engineering with sustainability-oriented paths, a guide on what jobs can you get with an environmental science degree can help clarify the difference between technical engineering roles and environmental science roles.

To become more competitive, build proof of skill rather than relying only on course titles. Employers often value projects that show you can model a system, collect data, write code, tune a controller, document trade-offs, and explain why a design is safe and reliable.

Useful portfolio examples include the following types of work because they show both theory and implementation:

• A PID controller for a motor, temperature system, drone, or simulated industrial process.
• A PLC-based automation project with documented inputs, outputs, safety logic, and test results.
• A power electronics or renewable energy control simulation.
• An embedded system that uses sensors, actuators, and real-time control code.
• A capstone project that includes requirements, design constraints, testing, and failure analysis.

The BLS does not publish a single national category called "control systems engineer," so salary research usually relies on related engineering categories and employer-specific job postings. The closest broad benchmark is electrical engineer: the BLS reported a May 2024 median annual wage of $111,910 for electrical engineers.

Use that figure as a market reference, not a promise. A new graduate in a lower-cost region may earn less, while an experienced controls engineer in semiconductors, aerospace, energy, robotics, or advanced manufacturing may see stronger compensation depending on skills and employer demand.

Several factors tend to influence salary and advancement in controls-related roles:

• Depth in control theory, modeling, and stability analysis.
• Hands-on experience with PLCs, industrial networks, sensors, drives, and safety systems.
• Programming ability in Python, C, C++, MATLAB, ladder logic, or structured text.
• Industry experience in regulated, capital-intensive, or high-reliability environments.
• Professional licensure, project leadership, field troubleshooting, and customer-facing experience.

The strongest salary strategy is to pair the degree with applied evidence. Internships, co-ops, capstones, lab work, and employer-sponsored projects can help show that you can move beyond equations and actually make physical systems perform safely.

Licensure is not required for every control systems job, but it can matter in roles involving public safety, power infrastructure, consulting, stamped engineering work, or government-regulated projects. Requirements vary by state, so students should check their state engineering board early if Professional Engineer licensure is part of the plan.

The typical licensure pathway in the United States includes an engineering degree, the Fundamentals of Engineering exam, qualifying work experience under appropriate supervision, and the Principles and Practice of Engineering exam. An ABET-accredited degree can make this pathway more straightforward in many states.

Certifications are different from licensure. They are usually voluntary credentials that signal specific technical knowledge or platform experience. Controls-related professionals may consider certifications in automation, instrumentation, safety, PLC platforms, cybersecurity, or project management depending on their role.

Use this sequence to decide whether licensure or certification is worth pursuing:

1. Identify the job titles and industries you want, then review actual employer postings.
2. Check whether postings mention PE licensure, FE exam progress, ISA credentials, PLC platform certifications, or safety certifications.
3. Ask your program whether its graduates commonly pursue FE eligibility or controls-related certifications.
4. Prioritize credentials that match your work environment rather than collecting unrelated certificates.
5. Revisit the decision after your first internship or job because employer expectations become clearer once you know your industry.

A common red flag is enrolling in a non-ABET program while assuming you can "fix it later" for licensure. Some states offer alternative pathways, but they may require additional experience or review. If licensure matters to you, verify the path before you commit.

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