2026 Best Online Bachelor's in Electrical Engineering at Accredited U.S. Universities
Choosing an online electrical engineering bachelor's degree is a high-stakes decision because the field rewards rigorous technical training, not just a credential. The U. S. Bureau of Labor Statistics reports a 2024 median pay of $113,460 for electrical and electronics engineers, making program quality, accreditation, labs, and career fit especially important.
This guide is for transfer students, working adults, military learners, and first-time students comparing accredited U. S. options. You will learn how online programs work, what they cost, which universities stand out, and how to choose a degree that supports your career goals.
Key Things You Should Know
- For engineering roles, prioritize programs with institutional accreditation and, when available, ABET Engineering Accreditation Commission accreditation because some employers, graduate programs, and PE licensure boards use ABET status as a screening factor.
- Most online electrical engineering bachelor's programs require about 120 to 128 credits, with four years typical for first-time full-time students and shorter timelines possible for transfer students with calculus, physics, and general education credits.
- The BLS reports 9% projected employment growth for electrical and electronics engineers from 2024 to 2034, but outcomes vary by industry, location, internships, technical portfolio, and whether the program includes hands-on lab and design experience.
What is an online bachelor's in electrical engineering and who is it best suited for?
An online bachelor's in electrical engineering is an undergraduate engineering degree focused on the design, analysis, testing, and improvement of electrical and electronic systems. Students study circuits, electromagnetics, signals, power systems, electronics, control systems, embedded systems, and engineering design. In a well-designed online program, lectures and assignments are delivered remotely, while lab work may be completed through mailed kits, simulation software, remote lab platforms, approved local facilities, or short campus visits.
This degree is best for students who want to work with hardware, energy systems, communications, semiconductors, robotics, automation, aerospace systems, or embedded electronics. It is especially practical for working adults and transfer students who cannot relocate but can handle a math-heavy curriculum. It is usually not the best fit for students who mainly want software development without physics-heavy coursework, or for learners who need a fully self-paced program with minimal weekly structure.
The table below summarizes fit by student goal. Use it to decide whether electrical engineering is the right path or whether a related field may better match your interests.
| Student goal | How well the degree fits | Why it matters |
| Design electrical systems, electronics, or power equipment | Strong fit | The curriculum directly supports circuit analysis, systems design, power, controls, and electronics roles. |
| Move from technician work into engineering roles | Strong fit if the program is rigorous and properly accredited | A bachelor's degree can help technicians qualify for engineering-track positions, especially when paired with work experience. |
| Work in sustainability, conservation, or environmental policy | Partial fit | Electrical engineering can support renewable energy careers, but students focused on policy or ecology may also compare what can you do with an environmental studies degree. |
| Become a general software developer | Possible but not always efficient | Computer science, software engineering, or computer engineering may offer a more direct route. |
| Avoid advanced math | Poor fit | Calculus, differential equations, physics, and circuit theory are central to the degree. |
One common mistake is choosing electrical engineering only because it sounds broadly marketable. The better approach is to compare the actual curriculum against the systems you want to work on. A student interested in electric vehicles, grid modernization, automation, or semiconductor design will usually get more value from this degree than a student who is only looking for a general technology credential.
Are online bachelor's in electrical engineering at U.S. universities properly accredited?
Some are, but students need to verify two different layers of accreditation. First, the university itself should hold institutional accreditation from an accreditor recognized by the U.S. Department of Education or the Council for Higher Education Accreditation. Second, the specific electrical engineering program may hold specialized ABET accreditation, usually through the Engineering Accreditation Commission.
ABET accreditation is especially important for a traditional engineering degree because it evaluates curriculum, faculty qualifications, student outcomes, continuous improvement, and engineering design content. It can matter for employers that hire into engineering development programs, for graduate school preparation, and for students who may later pursue Professional Engineer licensure. However, not every legitimate engineering-related online degree is ABET-accredited, and some are engineering technology programs rather than engineering programs.
Before enrolling, students should confirm accreditation directly and document what they find. These steps reduce the risk of choosing a program that does not support the career path you expect.
- Search the university's official accreditation page and confirm institutional accreditation is current.
- Look up the exact program name in the ABET public program search, not just the school name.
- Check whether the accredited program is electrical engineering, electrical and computer engineering, or electrical engineering technology.
- Ask admissions whether online students earn the same degree title and transcript notation as campus students.
- If PE licensure may matter, contact the relevant state licensing board before enrolling because requirements can vary by state.
A major red flag is a school saying it is "aligned with ABET standards" without confirming actual ABET accreditation for the specific program. Another red flag is a program that avoids explaining how labs, design projects, and proctored assessments work. Electrical engineering requires applied technical competence, so accreditation and hands-on verification matter more than convenience alone.

How do online electrical engineering degrees compare to campus-based programs in quality and outcomes?
An online electrical engineering degree can be academically comparable to a campus program when the same faculty standards, lab expectations, course outcomes, assessments, and accreditation criteria apply. The delivery mode is less important than whether students complete rigorous engineering work and can demonstrate design, analysis, testing, and troubleshooting skills.
The main difference is not usually the lecture content; it is the student experience around labs, peer collaboration, internships, faculty access, and project support. Online students need more self-discipline and should look closely at how each program handles hardware, software, remote labs, and senior design.
The table below compares online and campus formats across the factors that most affect learning quality and career readiness.
| Factor | Online electrical engineering | Campus-based electrical engineering |
| Lecture access | Often asynchronous or hybrid, useful for working students | Usually scheduled in person with live classroom interaction |
| Labs | May use kits, simulation, remote instrumentation, local partners, or short residencies | Usually uses campus lab facilities and direct equipment access |
| Team projects | Requires strong coordination through digital tools | Often easier to coordinate face to face |
| Internships and recruiting | More dependent on the student's local market and proactive networking | May benefit from campus career fairs and employer visits |
| Flexibility | Usually stronger for working adults, military students, and caregivers | Usually stronger for students who want a traditional residential experience |
| Employer perception | Generally strongest when the degree comes from an accredited, recognized university and does not signal a weaker curriculum | Generally familiar to employers, especially when the school has established recruiting pipelines |
For many students, the best online program is not the easiest one; it is the one that makes engineering practice visible. Look for design reviews, lab reports, capstone documentation, version-controlled code, circuit simulations, and project artifacts that you can discuss in interviews. Employers hiring entry-level engineers often care less about whether you watched lectures online and more about whether you can solve engineering problems under realistic constraints.
What courses and technical skills are typically covered in an online electrical engineering curriculum?
Online electrical engineering curricula are usually structured like campus programs: foundational math and science first, engineering core courses next, and electives or concentrations near the end. The strongest programs also build communication, documentation, teamwork, and engineering ethics into technical projects because engineers must explain and defend design decisions.
Current industry trends are also shaping coursework. Growth in power electronics, electric vehicles, semiconductors, robotics, wireless systems, industrial automation, and AI-enabled engineering tools is increasing the value of students who can combine circuit fundamentals with simulation, programming, and data analysis.
The table below shows common course areas and the practical skills they develop. This can help you compare whether a program is broad enough for your target roles.
| Course area | What students usually learn | Career relevance |
| Calculus, differential equations, and linear algebra | Mathematical modeling, rates of change, systems behavior, and matrix methods | Essential for signals, controls, power, and electromagnetics |
| Physics for engineers | Mechanics, electricity, magnetism, and laboratory measurement | Builds the physical foundation for engineering analysis |
| Circuit analysis | DC and AC circuits, network theorems, impedance, frequency response, and measurement | Core preparation for nearly every electrical engineering role |
| Electronics | Diodes, transistors, amplifiers, operational amplifiers, and semiconductor behavior | Supports hardware design, testing, and troubleshooting |
| Signals and systems | Time-domain and frequency-domain analysis, filtering, sampling, and transforms | Important for communications, controls, audio, radar, and sensing |
| Digital logic and embedded systems | Logic design, microcontrollers, firmware, sensors, and hardware-software integration | Useful for robotics, IoT, automotive, aerospace, and consumer electronics |
| Power systems and energy conversion | Power generation, transmission, motors, transformers, converters, and grid concepts | Supports utilities, renewable energy, electric vehicles, and industrial systems |
| Control systems | Feedback, stability, system response, controllers, and dynamic modeling | Important for automation, robotics, manufacturing, and aerospace systems |
| Capstone design | Requirements, prototyping, testing, documentation, trade-off analysis, and presentation | Creates interview-ready evidence of applied engineering ability |
Students should also expect to use technical tools. Common examples include MATLAB, Python, SPICE-based circuit simulation, CAD or PCB tools, microcontroller development environments, lab instruments, and collaborative documentation platforms. AI tools may help with code suggestions, literature review, or simulation workflows, but students still need to understand the physics and validate results; an AI-generated answer cannot replace engineering judgment.
What admission requirements and prerequisites do online electrical engineering programs usually have?
Admission requirements vary by university, but electrical engineering is more prerequisite-sensitive than many online bachelor's programs. Schools want evidence that students can handle calculus-based physics, advanced math, and technical problem-solving. Transfer students are often evaluated course by course because missing a prerequisite can delay upper-division engineering coursework.
Most programs ask for a combination of academic records, math readiness, and general university admission materials. The following requirements are common, though each school may set its own thresholds.
- High school diploma, GED, or equivalent preparation for first-time undergraduate admission.
- Official transcripts from all previously attended colleges for transfer applicants.
- College algebra, trigonometry, precalculus, or calculus readiness before entering the engineering sequence.
- Calculus-based physics and chemistry requirements, especially for students transferring into upper-division coursework.
- Minimum GPA requirements that may be higher for engineering admission than for general university admission.
- English composition and general education coursework for degree completion.
- Possible placement testing, advising review, or prerequisite validation before enrolling in core engineering courses.
Students with an associate degree should not assume that all credits will apply to electrical engineering. Technical electives, non-calculus physics, or algebra-based engineering technology courses may transfer as general credit but not satisfy engineering prerequisites. Ask for a written degree audit before committing.
A smart preparation plan is to strengthen math before the first term. If you have been away from school, review algebra, trigonometry, and functions before calculus. Electrical engineering becomes much harder when students are trying to learn circuits and repair weak math foundations at the same time.

How long does an online electrical engineering bachelor's take, and what does it cost?
Most online electrical engineering bachelor's degrees require about 120 to 128 credits. A first-time full-time student typically needs around four academic years, while a transfer student with an associate degree and the right prerequisites may finish in two to three years. Part-time students often take longer because engineering courses build in sequence, and missing one prerequisite can postpone later courses.
Cost depends on residency rules, public versus private tuition, transfer credits, online fees, lab kits, textbooks, software, and whether students can continue working. 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, $30,780 for out-of-state students at public four-year institutions, and $43,350 at private nonprofit four-year institutions for 2024-25. Online engineering programs may charge differently, so use these figures as a benchmark rather than a quote.
The table below shows the main cost drivers. It is useful because the lowest tuition rate is not always the lowest total cost if the program extends your timeline or does not accept your transfer credits.
| Cost factor | Why it affects total price | How to evaluate it |
| Per-credit tuition | Engineering degrees require many credits, so small per-credit differences add up | Multiply tuition by remaining credits after transfer evaluation |
| Residency pricing | Some public universities charge different rates for in-state and out-of-state online students | Ask whether online students receive a special rate |
| Transfer credit | Accepted credits can reduce both cost and time | Request an official or preliminary transfer audit |
| Lab kits and equipment | Online engineering may require hardware, instruments, shipping, or approved software | Ask for a course-by-course estimate of required materials |
| Course availability | Limited course rotations can extend enrollment | Ask whether upper-division courses are offered every term or only once per year |
| Opportunity cost | Studying part time may preserve income but lengthen the path to completion | Compare full-time, part-time, and employer-funded options |
Students focused on affordability should compare total completion cost, not just annual tuition. A guide to the cheapest engineering degree online can be a useful starting point, but you should still verify ABET status, lab requirements, transfer policies, and whether the program matches electrical engineering rather than a broader engineering technology pathway.
To reduce cost, complete transferable general education and math prerequisites at an accredited community college when appropriate, apply for employer tuition assistance, ask about military or veteran benefits, and avoid retaking courses because of poor sequencing. The cheapest program is not always the best value if it lacks the accreditation or upper-division depth needed for your target job.
Which accredited U.S. universities offer the best online bachelor's in electrical engineering?
The best online electrical engineering program depends on your starting credits, career target, budget, schedule, and need for ABET accreditation. For most students seeking engineering roles, the strongest options are regionally accredited U.S. universities with an online electrical engineering or closely related engineering program, transparent lab delivery, and clear student outcomes.
The universities below are strong options to research first because they are established U.S. institutions with online engineering pathways relevant to electrical engineering students. Always confirm the current catalog, delivery format, tuition, and ABET status for the exact program and term before applying.
| University | Online program to review | Best for | Key decision note |
| Arizona State University | Online Bachelor of Science in Engineering in Electrical Engineering | Students who want a large-scale online engineering program from a major public research university | Review lab delivery, pacing, and ABET information for the exact online program. |
| University of North Dakota | Online Bachelor of Science in Electrical Engineering | Students who want a traditional electrical engineering curriculum with online access and structured engineering support | Check residency, lab, and any required synchronous or campus components. |
| Stony Brook University, SUNY | Online electrical engineering degree-completion pathway | Transfer students who already have significant lower-division coursework | Verify prerequisite fit carefully because degree-completion programs may not serve first-time freshmen. |
| Florida International University | Online Bachelor of Science in Electrical Engineering pathway | Students seeking a public university option with online support and year-round planning possibilities | Confirm current online availability, ABET status, and course sequencing with the department. |
| University of Arizona | Online electrical and computer engineering-related bachelor's pathway | Students interested in overlap between electrical systems, computing, and hardware-software integration | Compare the degree title and accreditation status against your target jobs because ECE and EE can differ by curriculum. |
A practical way to choose among these schools is to start with fit, not prestige. If you are a transfer student, the best program may be the one that accepts the most applicable credits and offers the upper-division sequence when you need it. If you want power systems or controls, check elective availability. If you want embedded systems or semiconductors, review lab and design projects closely.
Use the following comparison process before shortlisting programs. It will help you avoid relying on rankings alone.
- Confirm institutional accreditation and program-level ABET status where relevant.
- Request a transfer evaluation before estimating cost or graduation date.
- Ask how labs are completed and whether any travel is required.
- Compare upper-division electives against your career goal, such as power, electronics, communications, controls, or embedded systems.
- Review capstone expectations and ask whether online students complete team-based engineering design projects.
- Ask career services how online students access internships, employer events, résumé support, and alumni networks.
The best program is the one that preserves engineering rigor while fitting your life. A convenient program that delays core courses, lacks required lab support, or does not align with your target industry can become more expensive in the long run.
What entry-level jobs can you get with an online electrical engineering bachelor's degree?
An accredited online electrical engineering bachelor's can support many of the same entry-level roles as a campus degree, provided the curriculum is rigorous and the student can show technical competence. Employers typically look for evidence of circuits knowledge, lab skills, design projects, programming ability, communication skills, and internship or co-op experience.
The table below outlines common entry-level roles and what they usually involve. Job titles vary by employer, so focus on responsibilities and required skills rather than titles alone.
| Entry-level role | Typical responsibilities | Skills that help |
| Electrical engineer I | Assist with design, analysis, testing, documentation, and troubleshooting of electrical systems | Circuit analysis, lab measurement, CAD tools, technical writing |
| Electronics engineer | Work on components, boards, sensors, amplifiers, communication devices, or embedded hardware | Electronics, PCB concepts, signal testing, debugging |
| Power systems engineer | Support power distribution, grid equipment, renewable energy systems, protection studies, or utility projects | Power systems, energy conversion, safety standards, simulation tools |
| Controls engineer | Develop or maintain control systems for manufacturing, robotics, aerospace, or process systems | Feedback control, PLC concepts, MATLAB, dynamic systems |
| Test or validation engineer | Create test plans, collect data, validate product performance, and document failures | Instrumentation, statistics basics, scripting, lab discipline |
| Embedded systems engineer | Work at the intersection of circuits, microcontrollers, sensors, and firmware | C or C++, microcontrollers, digital logic, debugging tools |
| Field applications engineer | Help customers apply technical products, troubleshoot systems, and communicate with design teams | Communication, product knowledge, circuit fundamentals, customer support |
Internships matter because they translate coursework into workplace evidence. Students who cannot relocate for a summer internship should look for local manufacturers, utilities, defense contractors, automation firms, telecom companies, research labs, and startups. Remote technical internships exist, but many electrical engineering roles still require access to hardware, equipment, or secure facilities.
Graduates can improve their entry-level prospects by building a focused portfolio. Strong examples include a PCB project, microcontroller system, power electronics simulation, controls model, senior design prototype, or lab report showing measurement and troubleshooting. A portfolio does not replace a degree, but it can make an online student's hands-on ability easier for employers to evaluate.
What salary ranges and career growth can electrical engineering graduates expect?
Salary depends on location, industry, employer, security clearance, internships, technical specialty, and level of responsibility. The most useful national benchmark is the BLS figure for electrical and electronics engineers: median annual pay was $113,460 in May 2024. This does not mean a new graduate should expect that exact figure; medians include experienced professionals and higher-paying industries, so entry-level offers may be lower while specialized or senior roles may be higher.
The BLS also projects 9% employment growth for electrical and electronics engineers from 2024 to 2034. For students, that points to a favorable broad market, especially in areas tied to power infrastructure, electronics, automation, communications, electric vehicles, semiconductor manufacturing, and defense systems. Still, hiring can be cyclical in specific industries, so students should build adaptable skills rather than relying on one narrow job title.
The table below shows how career direction can influence earning potential and advancement. It avoids promising specific salaries because real offers vary by region and employer.
| Career direction | Common growth path | What can improve advancement |
| Power and energy | Engineer I to power systems engineer, protection engineer, project engineer, or utility specialist | Power electives, internship with a utility or energy firm, familiarity with safety and grid standards |
| Electronics and hardware | Junior hardware engineer to design engineer, senior electronics engineer, or product development lead | PCB projects, lab troubleshooting, electronics design, simulation, documentation |
| Embedded systems | Embedded engineer to firmware-hardware integration specialist or systems engineer | C or C++, microcontrollers, real-time debugging, sensors, digital logic |
| Controls and automation | Controls engineer to automation lead, robotics engineer, or manufacturing systems engineer | Controls coursework, PLC exposure, robotics projects, industrial internship |
| Communications and RF | Junior RF or communications engineer to wireless systems, radar, or signal processing roles | Signals, electromagnetics, RF labs, spectrum and measurement experience |
When evaluating return on investment, compare occupations rather than simply comparing online degrees. For example, students researching outcomes across different online majors may look at resources on online animal science degree salary, but electrical engineering should be judged against engineering labor markets, technical requirements, and the cost of completing an accredited program.
Career growth usually comes from combining the degree with experience. Internships, co-ops, undergraduate research, professional society projects, security clearance eligibility, graduate study, or licensure can all affect long-term options. Students who want leadership roles should also develop project management, technical communication, budgeting, and cross-functional teamwork skills early.
How can students evaluate and choose a reputable online electrical engineering program?
Choosing a reputable online electrical engineering program requires more than scanning tuition and rankings. The right program should match your career target, transfer profile, learning style, budget, and need for accreditation. It should also be transparent about labs, faculty support, course sequencing, student outcomes, and total cost.
Use the following checklist when speaking with admissions advisors, department staff, or program directors. These questions are practical because they reveal whether the program can actually support your path to graduation and employment.
- Is the university institutionally accredited, and is the exact electrical engineering program ABET-accredited or otherwise clearly identified?
- Will my transcript or diploma indicate online delivery, or is it the same degree awarded to campus students?
- How are labs completed, and what hardware, software, or travel is required?
- Which courses are synchronous, asynchronous, or offered only in specific terms?
- How many of my transfer credits apply directly to the degree, not just as electives?
- What is the estimated total cost to complete the remaining credits, including fees, lab kits, and materials?
- What career services, internship support, faculty office hours, tutoring, and engineering clubs are available to online students?
- What capstone or senior design projects have recent online students completed?
The table below highlights common mistakes and better alternatives. Use it as a final screen before submitting an application deposit.
| Common mistake | Why it is risky | Better alternative |
| Choosing based only on the lowest tuition | A low rate can be offset by poor transfer credit, extra terms, or weak support | Compare total completion cost and graduation timeline |
| Ignoring ABET or program-level accreditation | Some employers, graduate schools, and licensing boards may care about the exact accreditation | Verify the program name in official accreditation sources |
| Assuming online labs are minimal | Engineering requires hands-on or equivalent applied work | Ask for detailed lab methods and equipment expectations |
| Not checking course rotation | Upper-division engineering courses may not be offered every term | Request a term-by-term degree plan |
| Confusing engineering with engineering technology | Both can be valuable, but they may lead to different roles and licensure treatment | Compare degree titles, curriculum math depth, and employer expectations |
| Relying only on rankings | Rankings may not reflect your transfer credits, schedule, or specialty interests | Prioritize accreditation, fit, support, cost, and outcomes |
Students who discover that electrical engineering is not the right match still have strong online options in adjacent fields. If you prefer information organization, digital archives, research services, or data stewardship rather than engineering design, an online library science degree may point toward a very different but still technology-connected career path.
The best final step is to compare two or three programs using the same criteria. Put the total cost, accepted credits, accreditation status, lab model, course schedule, and career support in one document. A program that looks attractive in marketing may be less compelling once you compare the details side by side.
Other Things You Should Know About Electrical Engineering
Often, yes. Depending on the program, students may need lab kits, microcontrollers, measurement tools, circuit components, simulation software, or a computer that can run engineering applications. Ask for a materials estimate before enrolling.
Yes. Online students can apply for internships, co-ops, and project-based roles, but they may need to be more proactive because they are not always near campus recruiting events. Local utilities, manufacturers, defense contractors, automation firms, and electronics companies are good places to start.
Not always. Many electrical engineers work in electronics, embedded systems, telecommunications, or manufacturing without a PE license. Licensure is more relevant in fields involving public infrastructure, power systems, consulting, or stamped engineering plans, and requirements vary by state.
Neither field is universally harder, but electrical engineering usually includes more physics, circuits, lab measurement, and continuous math-heavy modeling. Computer science usually goes deeper into algorithms, software systems, and computation. The better choice depends on whether you prefer physical systems, software systems, or both.
References
- 6 Best Online Electrical Engineering Degree Programs for Future Engineers https://www.myprivatetutor.com/blog/best-online-electrical-engineering-degree-programs
- How to Evaluate If an Engineering Program Is a Good Fit - Your College-Bound Kid https://yourcollegeboundkid.com/2023/03/10/how-to-evaluate-if-an-engineering-program-is-a-good-fit/
- What Can You Do With an Electrical Engineering Degree? https://www.onlineu.com/resources/college-planning/what-can-you-do-with-electrical-engineering-degree
- Essential Skills You Learn in an Electrical Engineering Course – Discover Training https://discovertraining.net/essential-skills-you-learn-in-an-electrical-engineering-course/
- Online Electrical Engineering Degrees - BSEE, MSEE https://www.onlineengineeringprograms.com/electrical
- Inside the Best Online Bachelor's in Electrical Engineering Degrees https://www.onlinecolleges.me/engineering-degrees/bachelors/electrical-engineering/