2026 Online Electrical Engineering Degrees With Veteran-Friendly Funding Support
Choosing an online electrical engineering degree is a high-stakes decision, especially if you plan to use veteran education benefits. The field is expanding: the U. S. Bureau of Labor Statistics projects electrical and electronics engineer employment to grow 9% from 2024 to 2034.
This guide is for veterans, active-duty service members, military spouses, and transfer students comparing online programs. You will learn how accreditation, GI Bill rules, labs, admissions, timelines, and salary data affect your return on investment before you enroll.
Key Things You Should Know
- Prioritize ABET-accredited online electrical engineering programs if you may pursue engineering licensure, federal engineering roles, graduate school, or employers that screen for accredited degrees.
- Veteran funding can cover substantial costs, but benefits differ by school type: public in-state tuition is treated differently from private tuition caps, Yellow Ribbon support, housing allowance rules, and transfer-credit policies.
- The BLS reported a May 2024 median annual wage of $118,780 for electrical and electronics engineers, but outcomes vary by industry, clearance eligibility, location, experience, and whether the role is design-, power-, software-, or systems-focused.
What is an online electrical engineering degree with veteran funding support?
An online electrical engineering degree is a college program that teaches students how to design, analyze, test, and improve electrical systems. Common areas include circuits, electronics, embedded systems, power systems, communications, controls, electromagnetics, and digital signal processing.
"Veteran funding support" means the school is set up to help eligible students use military-connected education benefits such as the Post-9/11 GI Bill, Montgomery GI Bill, Veteran Readiness and Employment, military tuition assistance, Yellow Ribbon funding, or veteran scholarships.
The most important distinction is that electrical engineering is not the same as electrical engineering technology. Electrical engineering programs usually emphasize theory, advanced math, design, and preparation for engineering roles. Electrical engineering technology programs are often more applied and may fit technician, technologist, testing, manufacturing, or field-support roles. Both can be valuable, but they do not always lead to the same licensure or employer outcomes.
This path usually makes sense for veterans who enjoyed electronics, avionics, radar, nuclear power, communications, cybersecurity-adjacent systems, weapons systems, utilities, maintenance, or technical leadership in the military. It may not be the best fit if you want a short credential, dislike calculus-heavy coursework, or need a program with no scheduled labs or proctored exams.
If affordability is your first filter, comparing the cheapest online electrical engineering degree options can help you identify lower-cost schools before you apply military benefits.
The table below summarizes which online engineering route may fit different goals. Use it as an early screening tool before requesting transcripts or talking to admissions counselors.
| Program type | Best fit | Watch for |
| Bachelor's in electrical engineering | Students seeking design engineering, systems engineering, power, electronics, controls, or graduate engineering pathways | ABET status, lab format, calculus readiness, transfer-credit limits, and senior design requirements |
| Bachelor's in electrical engineering technology | Students targeting applied technical roles, testing, automation, manufacturing, field service, or maintenance engineering support | Whether employers or licensing boards treat the degree differently from engineering |
| Master's in electrical engineering | Engineers or technical professionals seeking specialization in power, communications, semiconductors, controls, robotics, or signal processing | Prerequisite engineering background, thesis versus non-thesis format, and employer tuition support |
| Graduate certificate | Professionals who already have a degree and need focused skills in one technical area | Usually not a substitute for an ABET-accredited bachelor's degree when one is required |
Which electrical engineering programs are ABET accredited online?
ABET accreditation is one of the most important quality signals for engineering programs. For electrical engineering, the key designation is typically accreditation by the Engineering Accreditation Commission, often called EAC. Some related online programs are accredited by the Engineering Technology Accreditation Commission, or ETAC, which may be excellent for applied technology careers but is not always treated the same as EAC accreditation.
Because ABET status can change and online delivery formats vary, students should verify each program directly in the ABET search tool and with the school before enrolling. The examples below show the kinds of online or distance-friendly options students commonly compare; they should not be treated as a complete or permanent list.
| School or program example | Common online format | Accreditation point to verify | Why it matters for veterans |
| Arizona State University online electrical engineering | Fully online coursework with structured labs and projects | Confirm EAC accreditation for the specific degree and campus/delivery listing | Useful for students who need broad employer recognition and flexible scheduling |
| University of North Dakota distance electrical engineering | Online coursework with required hands-on or intensive lab components | Confirm the current ABET-accredited program name and delivery requirements | May fit students who can plan occasional lab participation around work or family duties |
| Florida International University online electrical engineering | Online bachelor's pathway with engineering coursework and design expectations | Confirm current EAC accreditation and whether online students follow the same accredited curriculum | Relevant for transfer students seeking a public-university option |
| Electrical engineering technology programs | Often online or hybrid with applied labs | Confirm whether the program is ETAC rather than EAC accredited | Can be strong for applied technical roles but may affect PE licensure options in some states |
The safest approach is to ask the school for the exact degree title, accreditation commission, accredited campus or delivery listing, and whether online students graduate from the same accredited program as campus students. A common mistake is seeing "ABET" on a department page and assuming every online engineering-related degree at that school has the same accreditation.
Veterans should also ask whether the school has a dedicated military or veteran services office. Accreditation tells you about academic quality, but a strong veteran office can help you avoid benefit-certification delays, payment gaps, and course-load mistakes that affect housing allowance eligibility.

How do veteran education benefits pay for online engineering degrees?
Veteran education benefits can reduce the out-of-pocket cost of an online electrical engineering degree, but the details depend on eligibility, school type, course load, benefit tier, and whether the school participates in programs such as Yellow Ribbon. The Post-9/11 GI Bill is often the central benefit for eligible veterans because it can help with tuition, fees, books, supplies, and a monthly housing allowance.
For the 2025-2026 academic year, the VA lists a national maximum of $29,920.95 for tuition and fees at private or foreign schools under the Post-9/11 GI Bill.
Public schools are handled differently for eligible students, generally with in-state tuition and mandatory fees covered up to the student's eligibility level. This distinction matters because the same online degree can have a very different net cost depending on whether it is public, private, in-state, out-of-state, or Yellow Ribbon-supported.
The table below explains the major funding tools military-connected students often compare. Use it to identify which office to contact and which questions to ask before enrolling.
| Funding source | Who it may help | What to confirm before enrolling |
| Post-9/11 GI Bill | Eligible veterans, service members, and transferred-benefit dependents | Benefit percentage, tuition coverage, online housing allowance rules, book stipend, and remaining months of entitlement |
| Yellow Ribbon Program | Students whose private-school or out-of-state costs exceed standard GI Bill coverage | Whether the specific school and degree participate, annual contribution limits, and whether awards are first-come, first-served |
| Veteran Readiness and Employment | Veterans with service-connected disabilities who need education for suitable employment | Eligibility, approved employment goal, required counseling, supplies, and whether engineering is approved for your plan |
| Military tuition assistance | Active-duty service members and some reserve or Guard members | Service-branch rules, annual caps, grade requirements, and whether TA can be combined with other benefits |
| Institutional veteran scholarships | Veterans, active-duty students, spouses, or dependents depending on school policy | Renewal rules, stackability with GI Bill benefits, GPA requirements, and deadlines |
Before committing to a program, follow a short benefit-verification sequence. This can prevent the most expensive mistakes, especially in engineering programs where prerequisites and lab courses may affect full-time status.
- Ask the school certifying official to estimate how your benefits apply to the specific online electrical engineering degree, not just the university overall.
- Confirm whether every required course is approved for VA benefits and whether remedial, prerequisite, or repeated courses are covered.
- Check whether online-only enrollment changes your monthly housing allowance compared with taking at least one eligible in-person course.
- Request a written transfer-credit evaluation before you assume military training, JST credits, CLEP exams, or prior college courses will shorten the degree.
- Build a funding plan for books, lab kits, software, calculators, proctoring, travel for labs if required, and semesters when benefits may not cover the full bill.
How do online and campus electrical engineering programs differ?
Online and campus electrical engineering programs can lead to similar academic outcomes when they use the same curriculum, faculty standards, and accreditation. The biggest differences are not the equations or design concepts; they are scheduling, lab delivery, peer interaction, advising, and how much structure the student receives week to week.
Cost also deserves a careful look. College Board data for 2024-2025 shows average published tuition and fees of $11,610 for in-state students at public four-year institutions, $30,780 for out-of-state students at public four-year institutions, and $43,350 at private nonprofit four-year institutions. These are not engineering-specific prices, but they show why veterans should compare total net cost rather than assuming online automatically means cheaper.
The table below compares the practical differences that matter most for engineering students using military benefits, working full time, or managing family responsibilities.
| Factor | Online electrical engineering | Campus electrical engineering | Decision point |
| Schedule | Often asynchronous or evening-friendly, though exams and labs may be scheduled | More fixed class and lab times | Online works better for shift work; campus may help students who need structure |
| Labs | May use lab kits, simulations, remote labs, or short residencies | Uses physical labs with immediate instructor support | Ask how circuits, electronics, controls, and senior design labs are completed |
| Peer network | Built through discussion boards, group projects, and virtual meetings | Built through clubs, labs, tutoring, and design teams | Campus may offer stronger spontaneous networking; online requires more initiative |
| Veteran services | Varies widely by school; strong programs offer remote benefit support | May include on-campus lounges, peer groups, and certifying officials | Remote students should test response time before enrolling |
| Career access | Can support internships and remote employer events, but geography matters | May offer local employer pipelines and lab assistant roles | Students seeking defense, utilities, or semiconductor work should study employer connections |
Online is usually better for disciplined students who already understand how to manage time, communicate proactively, and learn from technical documentation. Campus may be better for students who need face-to-face tutoring, want undergraduate research, or plan to participate heavily in robotics, power, Formula SAE, satellite, or electronics clubs.
A red flag is any program that minimizes the difficulty of engineering labs or tells you the online format requires little weekly commitment. Electrical engineering is math-heavy and cumulative. Falling behind in calculus, physics, or circuits can delay graduation even if your benefits cover the tuition.
What courses are included in an online electrical engineering curriculum?
An online electrical engineering curriculum usually moves from math and science foundations into circuit analysis, electronics, systems, and design. The degree is sequenced tightly because later courses assume you can use calculus, differential equations, programming, and physics without stopping to relearn them.
The table below shows common course areas and why they matter professionally. Exact names vary by school, but ABET-accredited programs generally cover similar engineering outcomes.
| Course area | Typical subjects | Career relevance |
| Math and science foundation | Calculus, differential equations, linear algebra, probability, physics, and chemistry | Supports modeling, signal analysis, electromagnetics, controls, and power calculations |
| Circuits and electronics | DC and AC circuits, semiconductor devices, analog electronics, digital logic, and instrumentation | Prepares students for hardware design, testing, troubleshooting, and embedded systems |
| Programming and computing | C, Python, MATLAB, microcontrollers, data acquisition, and simulation tools | Important for automation, robotics, signal processing, firmware, and test engineering |
| Signals, systems, and communications | Signal processing, control systems, communication theory, filters, and feedback systems | Applies to radar, wireless systems, aerospace, defense, medical devices, and industrial controls |
| Power and energy | Power systems, machines, renewable energy, power electronics, and grid fundamentals | Relevant to utilities, electrification, EV infrastructure, renewable integration, and manufacturing |
| Design and lab sequence | Engineering design, lab reports, team projects, safety, ethics, and senior capstone | Shows employers you can turn theory into tested, documented engineering work |
Students with military electronics or technical maintenance experience may find some concepts familiar, but that experience does not replace the mathematical depth of an engineering degree. The smartest preparation is to refresh algebra, trigonometry, and precalculus before the first calculus course. If you have been away from school for several years, a slower first term can be a better ROI decision than overloading and risking failed courses that consume benefits.
Current engineering programs are also adapting to AI-enabled design tools, digital twins, power-grid modernization, cybersecurity concerns in embedded devices, and semiconductor workforce demand. These trends do not remove the need for fundamentals. Instead, they make it more important to understand what the tools are calculating, where models can fail, and how to document design decisions for safety-critical systems.

What admissions requirements do online electrical engineering programs require?
Admissions requirements vary by school and degree level, but online electrical engineering programs are usually more selective about math readiness than many other online majors. A school may admit you to the university first, then require additional prerequisites before you can enter upper-division engineering courses.
Most applicants should expect the school to review several academic and technical readiness factors. These items matter because missing prerequisites can extend your timeline and change how veteran benefits apply to your schedule.
- High school diploma, GED, or prior college credit depending on freshman or transfer status
- Transcripts from every college attended, including community college, military-connected institutions, and prior universities
- Math placement, completed precalculus, or readiness for calculus-based engineering coursework
- Prior coursework in physics, chemistry, programming, or introductory engineering when required
- Minimum GPA requirements that may differ for general admission, transfer admission, and engineering major admission
- English proficiency documentation for applicants whose prior education was not in English
- Military transcripts such as JST or CCAF records when the school evaluates military learning for credit
Transfer students should be especially careful. Engineering programs often accept general education credits more easily than technical credits because circuits, physics, and calculus sequences must align closely. A course that transfers as elective credit may not satisfy an engineering requirement.
Ask admissions and the engineering department the following questions before you apply. They will help you avoid enrolling in a school that accepts you generally but leaves you far from the actual engineering major.
- Will I be admitted directly into electrical engineering, pre-engineering, or general studies?
- Which of my prior math, physics, programming, and engineering courses satisfy degree requirements?
- How many credits must I complete at your school to graduate?
- Are any labs, exams, orientations, or senior design activities synchronous or in person?
- What happens to my course plan if I fail or withdraw from calculus, physics, or circuits?
If you are unsure whether you want an engineering-heavy path, compare the workload with other online majors before using benefits. For example, students who are more interested in health, coaching, or wellness careers may decide it is more practical to study exercise science online rather than commit to a calculus-based engineering curriculum.
Employer Confidence in Online vs. In-Person Degree Skills, Global 2024
How long does it take to finish an online electrical engineering degree?
A bachelor's degree in electrical engineering typically requires about four years of full-time study for first-time students, but online learners often take longer because they transfer in credits, work full time, deploy, care for family members, or slow down during difficult technical sequences. Transfer students with strong calculus, physics, and programming credits may finish faster, while students starting below calculus may need additional terms.
The table below gives a realistic timeline comparison. It is more useful than a simple "four-year degree" label because benefit planning depends on course load, prerequisites, and remaining entitlement.
| Student profile | Likely timeline | Main reason timeline changes |
| First-time full-time student | About four years | Completes math, science, engineering core, labs, electives, and capstone in sequence |
| Community college transfer with aligned prerequisites | About two to three years after transfer | Calculus, physics, programming, and general education credits reduce remaining coursework |
| Working adult taking part-time loads | Often five to six years or more | Technical courses require substantial weekly study time and may not be offered every term |
| Veteran with military technical credit but limited college math | Varies widely | Military experience may help with context, but calculus and physics sequences still drive progress |
| Master's student with engineering background | About one and a half to three years | Depends on part-time status, thesis requirements, and course availability |
The biggest mistake is planning only around the number of credits. Engineering timelines are controlled by prerequisite chains. If Calculus I is required before Physics I, and Physics I is required before circuits, a single delayed or failed course can push several later courses back.
Students comparing graduate or alternative online pathways should also recognize that engineering timelines differ from fields with fewer lab dependencies. For example, some MLIS programs may offer more flexible sequencing than electrical engineering because they typically do not require the same calculus-based lab progression.
To finish efficiently, build a term-by-term plan with an academic advisor and a school certifying official. The plan should show which terms keep you at the benefit level you need, which courses are prerequisites, and what backup options exist if a required course is not offered when expected.
What jobs can you get with an electrical engineering degree?
An electrical engineering degree can lead to roles in energy, electronics, defense, aerospace, telecommunications, semiconductors, manufacturing, transportation, medical devices, robotics, and computing hardware. Veterans may be especially competitive when they can connect military systems experience with engineering documentation, testing discipline, safety culture, leadership, and security-clearance eligibility.
The table below connects common roles with what the work actually involves. Use it to decide whether you prefer design, testing, field systems, software-connected hardware, or infrastructure.
| Job path | Typical responsibilities | Good fit for students who like |
| Electrical engineer | Designs, analyzes, tests, and improves electrical components, circuits, or systems | Math-based design, troubleshooting, documentation, and technical problem solving |
| Power systems engineer | Works on generation, transmission, distribution, renewable integration, protection, or grid reliability | Energy infrastructure, utilities, renewables, and large-scale systems |
| Electronics engineer | Develops or tests electronic devices, sensors, communication equipment, or control hardware | Hardware, signals, lab testing, and device performance |
| Controls engineer | Designs automation and feedback systems for manufacturing, robotics, aerospace, or industrial processes | Programming, systems behavior, robotics, and real-time response |
| Embedded systems engineer | Works with hardware and software in connected devices, vehicles, defense systems, or medical products | Microcontrollers, C programming, electronics, and debugging |
| Test engineer | Builds test plans, validates products, analyzes failures, and documents compliance | Measurement, quality, lab work, and structured problem solving |
| Systems engineer | Coordinates requirements, interfaces, reliability, risk, and integration across complex technical systems | Big-picture engineering, cross-functional communication, and mission-focused planning |
The best first job depends on your background. A veteran with avionics, radar, communications, nuclear, or electronics maintenance experience may have a strong story for test, field, defense, or systems roles. A student with strong programming skills may lean toward embedded systems, controls, robotics, or hardware-software integration.
Current hiring trends favor engineers who can work across disciplines. Electrification, renewable energy, semiconductor investment, automation, AI-enabled products, and connected devices all increase the need for engineers who understand both physical systems and software-driven analysis. That does not mean every electrical engineer becomes a software engineer, but it does mean programming and data skills can strengthen your career options.
What salary can electrical engineering graduates expect?
Salary depends on role, industry, location, clearance requirements, degree level, internship experience, and technical specialty. The U.S. Bureau of Labor Statistics reported a May 2024 median annual wage of $118,780 for electrical and electronics engineers. Median wage is not an entry-level guarantee; it is the midpoint for workers in the occupation, so new graduates may start below it while experienced engineers in specialized industries may earn more.
The table below explains how to interpret salary potential without relying on a single number. It can help you evaluate ROI more realistically when comparing program cost, benefit coverage, and career goals.
| Salary factor | How it can affect earnings | What students should do |
| Industry | Defense, semiconductors, utilities, aerospace, software-connected hardware, and consulting can pay differently | Compare employer postings in your target industry before choosing electives |
| Location | High-cost engineering hubs may offer higher pay but also higher living costs | Look at net purchasing power, not just salary |
| Security clearance | Some defense and federal contractor roles value clearance eligibility or prior cleared experience | Maintain documentation and understand clearance requirements if this path fits your background |
| Internships and projects | Hands-on design, testing, and capstone experience can improve competitiveness | Build a portfolio of lab reports, simulations, code, schematics, and design decisions |
| Graduate education | A master's degree may help in specialized technical roles, research, or advancement | Do not enroll automatically; compare employer tuition assistance and job requirements first |
For veterans, ROI should be measured by net cost, time to completion, benefit use, and career alignment. A low-tuition program that lacks the accreditation or lab quality you need may be a poor investment. A higher-cost program with strong ABET alignment, transfer evaluation, veteran advising, and employer connections may be worthwhile if benefits cover most costs and the degree matches your target role.
Avoid assuming salary outcomes are automatic. Employers usually care about whether you can solve engineering problems, communicate clearly, use tools responsibly, and document safe, testable designs. Internships, senior design, undergraduate research, and military technical experience can all help translate the degree into job opportunities.
Do electrical engineers need licensure or professional certification?
Electrical engineers do not always need a license for private-sector design, testing, embedded systems, electronics, or manufacturing roles. Licensure becomes more important when engineers offer services to the public, sign or seal engineering documents, work in consulting, or take responsibility for public infrastructure such as power systems. Requirements vary by state, so students should check the licensing board where they plan to work.
The traditional professional engineering pathway usually follows a sequence. It is not required for every electrical engineering job, but it can be valuable for power, utilities, construction, public-sector, and consulting careers.
- Earn an engineering degree that meets the education expectations of the state licensing board, often with ABET accreditation playing an important role.
- Pass the Fundamentals of Engineering exam to become an engineer intern or engineer-in-training, depending on state terminology.
- Gain qualifying engineering experience under appropriate supervision, usually over several years.
- Pass the Principles and Practice of Engineering exam in the relevant discipline when eligible.
- Maintain the license through renewals and continuing education if required by the state.
Professional certifications can also help, but they should match your specialty. For example, power engineers may look at power systems credentials, electronics professionals may pursue soldering or electronics manufacturing credentials, and automation professionals may add controls, PLC, robotics, or vendor-specific training. Certifications are usually supplements, not substitutes for an engineering degree when a degree is required.
Some electrical engineers later move into AI, autonomy, sensor analytics, or grid data roles. If your long-term goal is research leadership rather than engineering licensure, a specialized graduate path such as a data science PhD online may be more relevant than a PE license, depending on the role.
The main red flag is enrolling in a non-ABET or technology-focused program without understanding how your state, employer, or graduate school will treat it. Ask the licensing board or target employers directly if licensure, federal engineering classification, or graduate admission is part of your plan.
Other Things You Should Know About Electrical Engineering
Yes, it can help with practical context, troubleshooting habits, safety awareness, and systems thinking. However, most engineering programs still require the full math and science sequence, so military experience rarely replaces calculus, physics, circuits, or upper-division engineering design courses.
Often, yes. Programs may require a capable laptop, engineering software, a graphing or scientific calculator, lab kits, circuit components, simulation tools, webcams for proctored exams, or access to reliable high-speed internet. Ask for a full technology and lab-cost list before enrolling.
They can be, especially when the program is accredited and the labs require real measurement, design documentation, testing, and analysis. Employers care less about whether a lab was online or on campus and more about whether you can explain what you built, tested, fixed, and learned.
It is possible, but it is demanding. Many working students take part-time course loads, especially during calculus, physics, circuits, and electronics terms. A lighter schedule may protect your GPA, benefits, and long-term progress better than overloading too early.
References
- Find Programs - ABET https://www.abet.org/accreditation/find-programs/
- Inside the Best Online Bachelor's in Electrical Engineering Degrees https://www.onlinecolleges.me/engineering-degrees/bachelors/electrical-engineering/
- Best Online Electrical Engineering Degrees 2025 https://www.onlineu.com/degrees/electrical-engineering
- What can you do with an electrical engineering degree? - People of Pacific https://www.pacific.edu/blog/2025/01/24/what-can-you-do-with-an-electrical-engineering-degree/