2026 Online Electrical Engineering Degrees With Electromagnetics Coursework

An online electrical engineering degree with a focus on electromagnetics is a bachelor's or graduate program in electrical engineering that includes substantial study of electric fields, magnetic fields, wave propagation, transmission lines, antennas, microwave systems, and related design methods. Electromagnetics is the physics behind wireless communication, radar, satellite systems, electric machines, high-speed electronics, sensors, medical imaging devices, and electromagnetic compatibility testing.

At the bachelor's level, electromagnetics is usually part of a broader electrical engineering curriculum. Students also study circuits, electronics, digital systems, signals, controls, programming, probability, and engineering design. At the master's level, students can often choose more specialized courses in antenna theory, RF engineering, microwave engineering, computational electromagnetics, photonics, or wireless systems.

This path is a strong fit for students who are comfortable with calculus, differential equations, physics, and abstract modeling. It is not ideal for someone who wants a mostly hands-on technician program, a short coding bootcamp, or a business-focused technology credential. The payoff is that electromagnetics knowledge supports complex engineering work that cannot easily be reduced to basic software skills alone.

The table below summarizes the main degree options and how they typically fit different student goals. Use it to decide whether you need a full engineering degree, an advanced specialization, or a shorter credential.

Online and campus-based electrical engineering programs can cover the same mathematical and theoretical material, but electromagnetics creates a special challenge: students need ways to connect field theory to real systems. Strong online programs address this with simulation software, remote or take-home labs, live design reviews, recorded demonstrations, and occasional campus intensives when equipment is not practical to ship.

The biggest difference is not whether the lectures are online. It is whether the program gives you enough practice with modeling, measurement, troubleshooting, and design documentation. Electromagnetics is easier to misunderstand if you only watch lectures and solve equations without visualizing fields, testing antennas, or simulating wave behavior.

The comparison below can help you decide whether online or campus delivery better fits your learning style and career constraints.

Online study can be especially practical for military-affiliated students who need flexibility around relocation or duty schedules. Readers comparing benefits, transfer credit, and support services may also want to review online electrical engineering degree programs for veterans before shortlisting schools.

Several accredited U.S. universities offer online electrical engineering degrees or closely related graduate programs where electromagnetics coursework may be available. Availability changes by catalog year, delivery format, and prerequisite sequence, so treat the schools below as starting points and verify current course listings directly with each department before applying.

Accreditation matters in two ways. Institutional accreditation confirms that the university meets broad quality standards, while ABET accreditation is the major programmatic benchmark for U.S. engineering bachelor's degrees. Graduate engineering programs are less commonly evaluated through ABET, so for master's study you should focus on institutional accreditation, faculty expertise, course availability, and research or project fit.

The table below lists examples of accredited institutions that are commonly considered by students looking for online electrical engineering study with possible electromagnetics relevance.

When reviewing school pages, do not assume that the word "electrical" automatically means strong electromagnetics coverage. Look for specific course titles, faculty research areas, software tools, capstone topics, and whether RF, antenna, microwave, power, photonics, or wireless systems electives are offered often enough for online students to take them.

Electromagnetics coursework usually begins after students complete calculus-based physics, multivariable calculus, differential equations, and introductory circuits. The subject can feel abstract because it uses vector calculus and field concepts, but it becomes more concrete when connected to transmission lines, antennas, motors, sensors, wireless channels, and shielding problems.

The table below explains common courses and why they matter for students comparing curricula. Course names vary by school, so focus on learning outcomes rather than titles alone.

Students who want to build a strong electromagnetics profile should look beyond the required course list. The most valuable programs give learners repeated opportunities to connect theory to design and measurement:

• Prioritize programs with at least one advanced elective beyond the required fields course if your goal is RF, antenna, microwave, or EMC work.
• Ask whether online students use industry-standard simulation tools such as electromagnetic field solvers, circuit simulators, or PCB design platforms.
• Look for capstone projects that involve wireless links, RF circuits, electric machines, sensors, power conversion, or high-speed electronic hardware.
• Check whether laboratory work includes measurement concepts such as network analysis, spectrum analysis, impedance matching, or noise characterization.

Admission requirements depend on degree level. Online bachelor's programs generally admit first-year or transfer students who meet university math and science prerequisites, while online master's programs usually require a bachelor's degree in electrical engineering, computer engineering, physics, or a closely related engineering field. Students without the right background may need bridge courses before taking graduate electromagnetics classes.

Because electromagnetics is math-intensive, admissions teams and faculty advisors often pay close attention to calculus, physics, circuits, and signals preparation. A student with weak math preparation may still be admitted to some programs, but the smarter approach is to fill gaps before enrolling in upper-division engineering courses.

Most applicants should be prepared to provide the following materials, though exact requirements vary by school and program level:

• Official transcripts showing prior coursework, GPA, transfer credits, and completed prerequisites.
• Evidence of calculus-based physics, calculus, differential equations, and introductory circuits for upper-division or graduate study.
• A statement of purpose for graduate programs explaining technical interests, career goals, and relevant experience.
• Letters of recommendation for many master's programs, especially research-oriented or selective options.
• Proof of English proficiency for applicants whose prior education does not meet the school's language policy.
• Optional or required GRE scores depending on the graduate program's current admissions rules.

Students comparing engineering with other quantitative fields should also think carefully about career fit. For example, a data scientist degree may be a better match for someone who prefers statistics, machine learning, and business analytics over circuits, physics, and hardware systems.

Online bachelor's degrees in electrical engineering typically require about 120 credits, which often takes four years for full-time first-year students and two to three years for well-prepared transfer students. Online master's programs commonly require about 30 credits and may take one to three years depending on pace, prerequisites, and whether the student completes a thesis, project, or coursework-only plan.

Cost varies widely because tuition may be charged by credit, by term, by residency status, or by program type. The College Board's 2024 Trends in College Pricing reported average published tuition and fees of $11,610 for in-state students at public four-year institutions for 2024-25. That figure is a useful benchmark, but online engineering students should still calculate total program cost because fees, lab kits, software, transfer credits, and course load can change the final amount.

Use the following cost categories when comparing program:

• Tuition: For a 120-credit bachelor's degree, multiply the school's per-credit rate by the number of credits you still need after transfer evaluation.
• Engineering fees: Some programs add course, technology, distance learning, or laboratory fees on top of tuition.
• Books and software: Electromagnetics courses may require technical textbooks, simulation tools, proctoring, or lab materials.
• Residency or travel: Some online engineering programs require short campus visits for labs, exams, or design experiences.
• Time away from work: Accelerated study may reduce calendar time but increase weekly workload, which can affect income and family obligations.
• Financial aid and employer support: Federal aid, military education benefits, employer tuition assistance, scholarships, and transfer credits can materially change net cost.

The best-value program is not always the cheapest advertised option. A low-cost program that lacks ABET accreditation, adequate lab access, or the electives you need for RF or electromagnetics careers may be a poor investment. Conversely, a more expensive program may be reasonable if it reduces time to completion, accepts more transfer credit, provides stronger technical electives, or connects you to relevant employers. 

An online electrical engineering degree emphasizing electromagnetics can lead to roles in industries such as aerospace, defense, telecommunications, semiconductors, automotive electronics, energy, medical devices, consumer electronics, and test equipment. Employers usually care about more than the degree title. They look for evidence that you can model systems, use engineering tools, document assumptions, test hardware, and communicate design trade-offs.

The table below connects electromagnetics-related coursework to common job paths. It is not a guarantee of eligibility, but it can help you choose electives and projects that match your target role.

Current technology trends are increasing the value of engineers who understand both hardware and computation. AI-assisted design tools can accelerate simulation and optimization, but they do not replace the need to understand boundary conditions, material properties, measurement error, or regulatory constraints.

Similarly, growth in wireless devices, electric vehicles, satellite systems, high-speed chips, and electrified infrastructure creates demand for engineers who can reason about fields, interference, and system performance.

If you like technical problem-solving but not advanced physics-heavy hardware work, compare nearby alternatives before committing. Computer science degrees can lead to software, AI, cybersecurity, and systems roles with less emphasis on circuits and electromagnetic theory.

Salary potential for electromagnetics-focused electrical engineers depends on degree level, industry, geography, technical specialization, security clearance, and experience with tools employers use. The BLS reported a May 2024 median annual wage of $111,910 for electrical engineers. Readers should use that figure as a national benchmark, not as a promise, because entry-level roles and high-cost specialized markets can differ substantially.

The table below provides a practical way to interpret earning potential by role type rather than assuming all electrical engineering jobs pay the same. The salary context is directional; always compare current postings in your target metro area and industry.

Return on investment is strongest when the program directly supports the work you want to do. For example, a student targeting antenna design should value advanced electromagnetics electives and simulation access more than a generic low tuition rate. A student targeting broad entry-level electrical engineering work may prioritize ABET accreditation, transfer credit, internships, and total cost over a highly specialized graduate course menu.

Alternatively, students can explore other fields, such as a nutritional science degree online, which fits students more interested in health, wellness, and applied life science than engineering design.

Electrical engineers are not always required to hold a Professional Engineer license, but licensing can matter in power, utilities, public infrastructure, consulting, and roles where engineers sign or seal work for public use. Requirements vary by state, so students should check their state engineering board before assuming an online degree will meet licensing expectations.

The typical U.S. licensure path starts with an ABET-accredited engineering bachelor's degree, the Fundamentals of Engineering exam, qualifying engineering experience, and the Principles and Practice of Engineering exam. Some states allow alternative pathways, but those routes may require additional experience or documentation.

Electromagnetics-focused engineers may also benefit from professional credentials or specialized training, depending on their industry. The options below are most useful when they align with a specific job function rather than being collected randomly:

• Engineering Intern or Engineer-in-Training status: Useful for students or early-career engineers who pass the FE exam and may later pursue PE licensure.
• Professional Engineer license: Most relevant for power, consulting, public systems, and engineering work that affects public safety or requires signed drawings.
• IEEE membership and technical society participation: Helpful for networking, standards awareness, conferences, and staying current in antennas, microwaves, communications, and power fields.
• EMC or compliance training: Valuable for engineers working with product testing, regulatory submissions, shielding, grounding, and emissions control.
• Vendor or tool-specific training: Useful when employers rely on particular electromagnetic simulation, PCB, RF test, or systems engineering platforms.

Do not enroll in a program solely because it mentions licensure preparation. Ask whether the bachelor's program is ABET-accredited, whether graduates have historically pursued FE or PE exams, and whether the curriculum includes the math, science, design, and ethics content commonly expected for engineering licensure.

Choosing a reputable online electromagnetics program requires more than comparing tuition and brand names. The right program should match your career goal, provide enough technical depth, offer credible labs or simulations, and fit your schedule without delaying graduation unnecessarily.

Use the following steps to evaluate programs before applying. They are designed to help you avoid common mistakes that can cost time, money, or career momentum.

1. Verify accreditation first, including institutional accreditation and ABET accreditation for online bachelor's electrical engineering programs when licensure or engineering employer screening matters.
2. Map the curriculum to your target role by identifying required electromagnetics courses, advanced electives, labs, capstone topics, and software tools.
3. Ask how online labs work, including whether students use remote equipment, simulation platforms, shipped lab kits, campus residencies, or partner facilities.
4. Confirm transfer credit rules before enrolling, especially for calculus, physics, circuits, programming, and lower-division engineering courses.
5. Request a total cost estimate that includes tuition, fees, lab materials, software, proctoring, travel, and the number of credits you actually need.
6. Check student support for online learners, including tutoring, faculty office hours, advising, career services, disability accommodations, and technical support.
7. Review employer relevance by looking at internship options, capstone sponsors, alumni roles, faculty expertise, and whether projects align with RF, antennas, EMC, power, or communications.
8. Compare pacing options honestly so you do not overload yourself with calculus, physics, circuits, and electromagnetics while working full time.

Common red flags include vague accreditation language, no clear lab plan, few upper-division electives, limited faculty access, unclear transfer policies, and admissions promises that sound too easy for an engineering degree. Also be cautious if a school markets "electrical engineering" but the curriculum is closer to electronics technology and does not support the engineering roles you want.

If you are still comparing broad online STEM options, use career outcomes and daily work style as filters. Engineering is best for students who want to design and analyze physical systems; analytics, computing, and health science pathways may fit different strengths and goals.

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