2026 Online Electrical Engineering Degrees With the Best FAFSA-Friendly Options
Choosing an online electrical engineering degree is a high-stakes decision because the right program must be affordable, accredited, hands-on, and eligible for federal aid. The U. S. Bureau of Labor Statistics reported a May 2024 median annual wage of $111,910 for electrical engineers, making program quality and total cost especially important.
This guide is for prospective bachelor's and master's students comparing FAFSA-friendly online options. You will learn how to evaluate accreditation, costs, admissions, timelines, curricula, and career outcomes so you can choose a program that fits your goals and budget.
Key Things You Should Know
- For bachelor's students, the safest online electrical engineering options are degree programs at Title IV-eligible universities with institutional accreditation and, ideally, ABET Engineering Accreditation Commission accreditation for the specific bachelor's program.
- The 2025-2026 Federal Pell Grant maximum is $7,395, but many engineering students still need scholarships, employer tuition benefits, transfer credits, or federal loans because lab fees, software, equipment, and nonresident tuition can raise total cost.
- BLS data shows electrical engineers had a May 2024 median annual wage of $111,910, but salaries vary by industry, location, graduate education, security clearance, PE licensure, and experience in areas such as power, semiconductors, controls, and embedded systems.
What are the best online electrical engineering degrees that accept federal financial aid?
The best FAFSA-friendly online electrical engineering degrees are offered by institutions that participate in federal student aid, award recognized degrees rather than informal certificates, and provide the technical depth employers expect. For a bachelor's degree, ABET accreditation is a major quality signal because it can affect engineering licensure, graduate admissions, and employer screening.
The table below highlights strong U.S. options to investigate first. Availability, tuition, state authorization, and aid eligibility can change, so confirm details directly with the school before applying.
| School | Online electrical engineering option | Best fit | FAFSA-friendly factors to verify |
| Arizona State University | Online Bachelor of Science in Engineering in Electrical Engineering | Students who want a fully online, ABET-accredited bachelor's pathway from a large public research university | Title IV participation, ABET status for the online-delivered program, lab format, online tuition, transfer credit rules |
| University of North Dakota | Online Bachelor of Science in Electrical Engineering | Students who can handle a rigorous online engineering sequence with possible in-person or scheduled lab requirements | Title IV participation, ABET status, campus visit or lab expectations, residency-based tuition policies |
| Florida International University | Online Bachelor of Science in Electrical Engineering | Transfer-ready students seeking a public university option with structured online support | Title IV participation, ABET status, prerequisite sequencing, Florida/nonresident cost differences |
| University of Arizona | Online electrical and computer engineering bachelor's pathway | Students interested in both electrical systems and computing-intensive engineering work | Title IV participation, accreditation details for the specific degree, lab access, transfer acceptance |
| Colorado State University | Online Master of Engineering or Master of Science in Electrical Engineering | Working engineers who already hold a technical bachelor's degree and want graduate specialization | Graduate federal loan eligibility, institutional accreditation, employer tuition reimbursement compatibility |
| Johns Hopkins Engineering for Professionals | Online Master of Science in Electrical and Computer Engineering | Professionals targeting advanced technical roles in systems, communications, photonics, or related fields | Federal aid eligibility for degree-seeking students, course load requirements, employer sponsorship rules |
A "best" program depends on your starting point. A first-time undergraduate should prioritize ABET-accredited bachelor's programs, transfer affordability, and lab access. A working engineer with an accredited bachelor's degree may get better return from a master's program that lets them specialize without pausing employment.
Use this short screening process before requesting information from any school:
- Confirm the institution appears in the federal school code system and participates in Title IV federal student aid.
- Check whether the specific bachelor's program is ABET-accredited, not just whether the university has other accredited engineering programs.
- Ask how labs are completed online, including required kits, simulations, proctored exams, or campus visits.
- Request a total-cost estimate that includes tuition, fees, transfer-credit assumptions, software, equipment, and any travel.
- Compare graduation requirements with your target career, especially if you plan to pursue professional engineering licensure.
How do online electrical engineering programs compare to campus-based options for flexibility and outcomes?
Online electrical engineering programs can be a strong choice for students who need schedule flexibility, live far from campus, or want to keep working while studying. The trade-off is that engineering is lab-heavy, so the best online programs must deliberately replace or supplement campus labs with remote labs, mailed kits, simulations, supervised local work, or short residencies.
NCES reporting published in 2024 showed that a majority of U.S. undergraduates took at least one distance education course in recent fall enrollment data. For engineering students, this means online learning is no longer unusual, but program design still matters more than delivery format alone.
The comparison below shows where online and campus-based programs usually differ. Use it to decide whether flexibility is worth the added self-management required in an online engineering curriculum.
| Decision factor | Online electrical engineering degree | Campus-based electrical engineering degree |
| Schedule flexibility | Often better for working adults, military students, caregivers, and students far from campus | Better for students who want a fixed weekly routine and direct access to faculty and peers |
| Labs and equipment | May use remote lab platforms, take-home kits, simulation tools, or short residencies | Typically offers immediate access to lab benches, instrumentation, makerspaces, and in-person lab partners |
| Networking | Requires more intentional participation in virtual office hours, project teams, IEEE chapters, and internships | Often easier to access student groups, research labs, career fairs, and informal faculty contact |
| Academic pacing | Can be part-time or asynchronous, but calculus, circuits, and labs still require consistent weekly time | Usually follows a more predictable semester sequence with scheduled lectures and labs |
| Employer perception | Strong when the school is accredited, the degree name is credible, and projects demonstrate real skills | Strong when the program has recognized engineering accreditation, labs, internships, and recruiting ties |
Online is usually the better fit if you need to study around work and can stay disciplined without daily campus structure. Campus may be better if you learn best through in-person labs, want undergraduate research access, or need a highly structured environment to succeed in calculus-heavy courses.

How can I verify that an online electrical engineering degree is properly accredited in the U.S.?
Accreditation protects you from investing in a degree that employers, graduate schools, licensing boards, or financial aid agencies may not recognize. In the U.S., you should look at two levels: institutional accreditation for the college or university and programmatic accreditation for the engineering degree.
For bachelor's-level electrical engineering, ABET Engineering Accreditation Commission accreditation is especially important if you may pursue professional engineer licensure or work in regulated engineering environments. Graduate electrical engineering programs are not typically ABET-accredited in the same way, so institutional accreditation, faculty expertise, research areas, and employer reputation become more important for master's applicants.
Follow these steps before enrolling:
- Search the university in the U.S. Department of Education-recognized accreditation databases or the school's accreditation disclosure pages.
- Confirm that the exact degree name and delivery format match what you plan to enroll in.
- For bachelor's degrees, search ABET's public program database and verify the electrical engineering program, degree level, campus, and accreditation dates.
- Ask admissions whether online students receive the same diploma wording as campus students, if that matters to your employer or licensing board.
- If licensure is a goal, contact your state engineering board before enrolling to confirm whether the program meets education requirements.
Common red flags include vague claims such as "aligned with ABET standards," a school that promotes accreditation without naming the accreditor, or a program page that discusses engineering careers but awards a non-engineering technology credential. Engineering technology degrees can be valuable, but they may lead to different licensure and job pathways than electrical engineering degrees.
What FAFSA, grants, scholarships, and employer tuition benefits can help pay for an online electrical engineering degree?
FAFSA-friendly means the school participates in federal student aid and the student is enrolled in an eligible degree program. Submitting the FAFSA can open access to federal grants, federal loans, work-study opportunities, and state or institutional aid, depending on your financial profile and enrollment level.
Cost comparisons should go beyond tuition. College Board's 2024 pricing data placed average published tuition and fees for public four-year in-state students at $11,610 for 2024-2025, while public out-of-state and private nonprofit sticker prices were much higher. For online engineering students, the practical lesson is to compare total net cost after aid, not just the advertised per-credit rate.
These funding sources are the most relevant for online electrical engineering students:
- Federal Pell Grants: Need-based grants for eligible undergraduates that do not have to be repaid; the 2025-2026 maximum award is $7,395.
- Federal Direct Loans: Undergraduate and graduate students may qualify, but annual and aggregate limits apply, and borrowing should be weighed against expected career plans.
- State grants: Some states provide aid for online students if the institution and program meet residency or authorization rules.
- Institutional scholarships: Engineering colleges may offer merit, need-based, transfer, adult learner, or STEM scholarships.
- Professional scholarships: IEEE chapters, utility associations, defense-related organizations, and local engineering societies may support students in power, electronics, communications, or controls.
- Employer tuition assistance: Working adults in utilities, manufacturing, aerospace, defense, and technology firms may receive reimbursement for job-related engineering coursework.
- Military and veteran benefits: Students using GI Bill or military tuition assistance should compare school participation, transfer policies, and support services; this is especially important when comparing an electrical engineering degree online for veterans.
Avoid the mistake of choosing the lowest tuition without checking course availability. If required engineering courses are offered only once per year, a cheaper program can become more expensive through delayed graduation, extra fees, or lost work time.
What admission requirements and prior coursework do online electrical engineering bachelor's and master's programs expect?
Electrical engineering is math-intensive, so admissions teams look closely at preparation in calculus, physics, computing, and earlier engineering coursework. Requirements vary by institution, but weak prerequisite planning is one of the most common reasons students are admitted conditionally, delayed, or required to take extra courses.
The table below summarizes typical expectations. It is not a substitute for a school's catalog, but it can help you estimate how close you are to being application-ready.
| Program level | Common admission expectations | Prior coursework that matters most | Best candidate profile |
| Bachelor's, first-year entry | High school diploma or equivalent, transcripts, minimum GPA, placement requirements, and sometimes standardized test policies depending on the school | Precalculus or calculus readiness, physics, chemistry, and computing fundamentals | Students prepared for a full engineering sequence from calculus through senior design |
| Bachelor's, transfer entry | College transcripts, minimum transfer GPA, prerequisite grades, and evaluation of prior credits | Calculus I-III, differential equations, calculus-based physics, programming, circuits, and general education | Community college or prior university students who want to complete upper-division engineering online |
| Master's in electrical engineering | Bachelor's degree, technical GPA review, statement of purpose, resume, recommendations, and sometimes GRE scores | Signals and systems, circuits, electronics, electromagnetics, probability, controls, programming, or equivalent engineering coursework | Engineers, computer engineers, physicists, or technical professionals seeking advanced specialization |
| Master's bridge or conditional pathway | Admission with required leveling courses before full graduate standing | Missing undergraduate EE foundations such as circuits, signals, electronics, or applied math | Career changers with related STEM backgrounds who need to fill technical gaps |
If you are missing prerequisites, do not assume you need to restart from the beginning. Ask each school whether it accepts community college calculus and physics, offers online leveling courses, allows credit by exam, or provides a formal transfer pathway into upper-division engineering.

How long do online electrical engineering degrees take, and what do typical program structures look like?
An online electrical engineering bachelor's degree usually requires about four years of full-time study for first-time students, while transfer students may finish faster if their calculus, physics, and lower-division engineering credits apply. Master's programs often take two to three years part time, though timelines vary by course load and whether a thesis is required.
Engineering sequences are less flexible than many online majors because courses build on each other. Circuits depends on calculus and physics; signals depends on differential equations; controls, power, and communications depend on several earlier layers. A missed prerequisite can delay progress by a full term.
Most online electrical engineering programs follow one of these structures:
- Full bachelor's pathway: Students complete general education, math, science, engineering core, labs, electives, and senior design through the university's online format.
- Degree-completion pathway: Students transfer in lower-division math, physics, and general education credits, then complete upper-division engineering courses online.
- Part-time working-adult pathway: Students take one or two courses per term to balance employment, family responsibilities, and technical workload.
- Online master's coursework pathway: Graduate students complete advanced courses in areas such as power systems, communications, controls, electronics, or computer engineering without a thesis.
- Thesis or project-based master's pathway: Students complete research or an applied engineering project, which can be useful for doctoral study or R&D-focused careers.
Students comparing timelines should also consider opportunity cost. If you want a faster computing-focused credential and are less committed to hardware, circuits, or licensure-oriented engineering, an accelerated computer science degree online may be a better fit than trying to compress an electrical engineering curriculum.
What core courses, concentrations, and technical skills are covered in online electrical engineering curricula?
Online electrical engineering curricula teach students how to analyze, design, test, and improve electrical and electronic systems. The best programs combine theory with applied design so graduates can move from equations and simulations to real devices, networks, and systems.
The table below shows the major curriculum areas and the skills they support. Use it to compare programs against the kind of engineering work you want to do.
| Curriculum area | Typical courses | Skills developed | Career relevance |
| Math and science foundation | Calculus, differential equations, linear algebra, calculus-based physics | Modeling, problem-solving, quantitative reasoning | Required for nearly every advanced electrical engineering topic |
| Circuits and electronics | Circuit analysis, analog electronics, digital logic, semiconductor devices | Designing and troubleshooting electrical systems and components | Useful in hardware, embedded systems, instrumentation, and manufacturing |
| Signals and systems | Signals, digital signal processing, communications, probability | Analyzing data, noise, waveforms, and information transmission | Relevant to telecom, radar, audio, imaging, wireless, and defense systems |
| Power and energy | Power systems, machines, power electronics, renewable energy integration | Designing and evaluating generation, transmission, conversion, and grid systems | Useful for utilities, energy storage, electric vehicles, and grid modernization |
| Controls and automation | Control systems, robotics, embedded control, mechatronics | Modeling dynamic systems and designing feedback-based automation | Relevant to aerospace, manufacturing, automotive, robotics, and process industries |
| Computing and embedded systems | Programming, microcontrollers, computer architecture, FPGA or HDL design | Building hardware-software systems and real-time devices | Useful in IoT, defense electronics, consumer devices, medical devices, and automotive systems |
Students interested in climate, sustainability, or conservation careers should distinguish electrical engineering from environmental science. Electrical engineers may work on grid reliability, energy storage, solar inverters, and electric vehicles, while students asking what can you do with an environmental studies degree may be looking for roles in policy, ecology, environmental consulting, or resource management instead.
Current trends are reshaping the curriculum. AI-assisted design tools, digital twins, semiconductor supply chain investments, electric vehicle infrastructure, and renewable energy integration are increasing the value of programming, data analysis, power electronics, cybersecurity awareness, and systems thinking alongside traditional circuit theory.
What entry-level and advanced career paths are available with an online electrical engineering degree?
An online electrical engineering degree can lead to the same broad career categories as a campus degree when the program is properly accredited and technically rigorous. Employers usually care about accreditation, projects, internships, skills, security eligibility for certain roles, and your ability to solve engineering problems more than whether courses were online.
The table below connects degree level with common roles. Actual titles vary by employer, and some positions require industry experience, licensure, citizenship, or a graduate degree.
| Career stage | Possible roles | Typical responsibilities | Credential or experience advantage |
| Internship or co-op | Electrical engineering intern, test engineering intern, power systems intern | Run tests, document results, support design teams, build prototypes, analyze data | Coursework in circuits, labs, programming, and CAD or simulation tools |
| Entry-level bachelor's | Electrical engineer, controls engineer, power engineer, hardware test engineer, field application engineer | Design circuits or systems, troubleshoot equipment, prepare technical documentation, support manufacturing or field deployment | ABET-accredited bachelor's degree, projects, internships, and strong lab skills |
| Mid-career | Systems engineer, design engineer, embedded systems engineer, protection and controls engineer, validation engineer | Lead subsystems, coordinate cross-functional teams, improve reliability, manage testing and compliance | Several years of experience, specialization, PE license for some roles, or graduate coursework |
| Advanced or leadership | Principal engineer, engineering manager, power systems consultant, R&D engineer, technical program manager | Set technical direction, mentor engineers, manage complex projects, advise clients, or lead product development | Master's degree, PE license, patents, publications, domain expertise, or management experience |
Electrical engineering is not the only path into technical work. If you like organizing technical knowledge, research systems, archives, data stewardship, or academic technology support more than designing hardware, a master of library science may fit better than an engineering degree.
The biggest career mistake is graduating without applied evidence of skill. Online students should build a portfolio of lab reports, design projects, simulations, code, senior design work, and internship outcomes that shows employers they can apply theory to real systems.
What salary ranges and long-term earning potential can electrical engineers expect in different U.S. industries?
Electrical engineering salaries vary widely because the field spans utilities, semiconductors, aerospace, telecommunications, manufacturing, consulting, defense, and technology. The BLS reported a May 2024 median annual wage of $111,910 for electrical engineers, which is a useful national benchmark but not a personalized salary prediction.
The table below gives practical salary context by career direction rather than promising exact outcomes. Use it to think about earning potential alongside cost, location, risk, and your preferred work environment.
| Career direction | Typical salary position relative to the national median | Factors that can raise earning potential | Trade-offs to consider |
| Power and utilities | Often competitive, especially for licensed or grid-modernization roles | PE licensure, protection and controls expertise, renewable integration, high-voltage experience | May involve field work, regulated environments, emergency response, or location constraints |
| Semiconductors and electronics | Can be strong for specialized design, validation, and fabrication roles | Device physics, VLSI, RF, test engineering, cleanroom or manufacturing experience | May require relocation to regional technology clusters and fast product cycles |
| Aerospace and defense | Often competitive for systems, avionics, radar, communications, and embedded roles | Security clearance eligibility, systems engineering, RF, controls, reliability, graduate study | Hiring may depend on citizenship, clearance, contracts, and location |
| Manufacturing and automation | Varies by industry, plant complexity, and controls expertise | PLC programming, robotics, instrumentation, process control, reliability engineering | May include plant schedules, travel, or production downtime responsibilities |
| Consulting and professional services | Can grow substantially with licensure, client responsibility, and specialization | PE license, project management, power systems analysis, code compliance, client communication | Billable work, deadlines, travel, and client management can be demanding |
Long-term earning potential usually improves when engineers move beyond generalist coursework into scarce capabilities: power protection, RF design, embedded systems, cybersecurity for industrial systems, semiconductor validation, model-based design, or engineering leadership. Graduate study can help, but it works best when tied to a specific specialization rather than pursued only for a credential.
How strong is the job outlook for electrical engineers, and which sectors are seeing the most demand?
The job outlook for electrical engineers is generally solid because electrification, automation, communications infrastructure, chip production, defense systems, and grid modernization all depend on electrical expertise. Current BLS projections place electrical and electronics engineers on a growth path roughly in line with or above many professional occupations, but demand differs sharply by specialty and region.
The strongest demand signals are appearing in sectors where hardware, software, and physical infrastructure meet. Students can improve employability by choosing electives and projects that map to these areas.
- Power systems and grid modernization: Utilities and energy companies need engineers who understand reliability, protection, power electronics, renewable integration, and transmission constraints.
- Semiconductors and electronics manufacturing: Domestic investment in chip production has increased interest in engineers who understand devices, testing, automation, and process reliability.
- Electric vehicles and charging infrastructure: Employers need power electronics, controls, battery systems, embedded software, and systems integration skills.
- Aerospace, defense, and communications: Radar, RF systems, avionics, satellites, secure communications, and embedded systems remain important hiring areas.
- Industrial automation: Manufacturers need controls, robotics, sensors, instrumentation, and data-driven reliability expertise.
AI will not eliminate the need for electrical engineers, but it is changing expectations. Engineers who can use simulation, automation, code generation, test data, and AI-assisted design tools responsibly may be more competitive than those who rely only on manual calculations. At the same time, safety-critical systems still require human judgment, verification, documentation, and accountability.
Other Things You Should Know About Electrical Engineering
Yes, but the degree should usually be from an ABET-accredited engineering program, and you must meet your state board's exam, experience, and application requirements. Rules vary by state, so confirm requirements before enrolling.
Often, yes. Some programs require electronics kits, microcontrollers, software, calculators, or remote lab fees. Ask for a complete equipment list before comparing costs.
The technical content is not easier online. Many students find online study harder because it requires more self-discipline, especially in calculus, physics, circuits, and labs. Strong scheduling habits are essential.
It is possible, but a part-time course load is usually more realistic. Electrical engineering courses are sequential and time-intensive, so working students should ask advisors for a long-term plan before registering.
References
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