2026 Online Electrical Engineering Degrees for Students With Prior Engineering Technology Coursework
Co-Founder and Chief Data Scientist
Engineering technology students often face a tricky question: will their applied coursework shorten the path to a true electrical engineering degree? The stakes are high because the U. S. Bureau of Labor Statistics reports a May 2024 median annual wage of $118,780 for electrical and electronics engineers, but many roles prefer or require an ABET-accredited engineering degree.
This guide explains online degree options, transfer-credit limits, accreditation, costs, timelines, and career outcomes so you can decide whether an online electrical engineering completion path is a smart next move.
Key Things You Should Know
- Prior engineering technology coursework can help, but many electrical engineering programs apply it mostly to electives or lower-division requirements because engineering technology and engineering degrees are accredited under different ABET commissions.
- ABET matters most if you may pursue the Fundamentals of Engineering exam, Professional Engineer licensure, defense-related engineering roles, or graduate engineering study; always confirm whether the online option itself is ABET-accredited.
- Cost and time depend on remaining credits: a student who transfers an associate degree may still need upper-level calculus-based engineering courses, while national 2024-25 published tuition benchmarks show wide cost differences between public in-state, public out-of-state, and private nonprofit colleges.
What are online electrical engineering degree options for engineering technology graduates?
Online electrical engineering degree options for engineering technology graduates usually fall into three categories: full bachelor's degrees, degree-completion programs, and bridge-heavy transfer pathways. The right choice depends on how much math, physics, circuit theory, and general education you have already completed, not just the number of credits on your transcript.
An engineering technology program is typically more applied and lab-oriented, while a Bachelor of Science in Electrical Engineering is usually more theory-heavy and calculus-based. That difference affects transfer credit because a course called "circuits" in an engineering technology program may not be equivalent to a junior-level electrical engineering circuits sequence.
The table below compares common online pathways and when each tends to make sense for students who already have engineering technology coursework.
| Online degree option | Best fit | Main trade-off | What to verify before applying |
| Online BS in Electrical Engineering | Students who want the broadest engineering career and licensure pathway | May require more calculus, physics, and engineering science than an engineering technology graduate expects | ABET Engineering Accreditation Commission status, lab format, transfer rules, and residency credits |
| Online electrical engineering completion program | Students with substantial prior college credit who need the upper-division engineering major | Fewer programs are available, and sequencing can be rigid | Whether prior engineering technology credits satisfy major requirements or only electives |
| Electrical engineering technology bachelor's completion | Students who prefer applied roles in testing, manufacturing, controls, field engineering support, or technical operations | May not meet expectations for jobs labeled "electrical engineer" or PE-track roles | ETAC accreditation, employer recognition, and whether roles require an engineering degree |
| Related engineering or computing degree | Students interested in robotics, embedded systems, manufacturing, controls, or software-heavy electronics roles | May shift your career target away from electrical engineering licensure | Curriculum fit, accreditation, and whether the degree supports your intended job postings |
If your engineering technology background is broad but not deeply electrical, compare closely related pathways before committing. For example, a student drawn to machines, automation, and electromechanical systems may also review an online mechanical engineer degree if the target roles involve product design, thermal systems, robotics hardware, or manufacturing engineering rather than power, electronics, or signal systems.
This pathway makes the most sense if you want engineering design authority, graduate engineering options, or a stronger route toward licensure. It may be less efficient if your goal is technician leadership, field service, instrumentation work, or controls support, where an engineering technology completion degree or industry certification may offer a faster return.
How much prior engineering technology coursework counts toward transfer credit?
The honest answer is that transfer credit varies widely. A student with an associate degree in electrical engineering technology might transfer many general education and technical credits, but still need to complete core engineering requirements such as calculus-based physics, differential equations, electromagnetics, electronics, signals and systems, and senior design.
Most schools evaluate prior coursework in three separate buckets. Understanding these categories helps you avoid assuming that "60 credits accepted" means "half the engineering major is done."
| Credit category | How engineering technology coursework is commonly treated | Why it matters |
| General education | Often transfers if the course is regionally accredited and meets the school's distribution requirements | Can reduce total time and cost even if major credit is limited |
| Math and science foundation | Transfers only if content and level match, especially for calculus, calculus-based physics, chemistry, and differential equations | Electrical engineering upper-division courses often require these as prerequisites |
| Engineering major requirements | May transfer selectively; applied technology courses may become electives rather than direct equivalents | This is where students often lose expected progress toward the major |
| Free or technical electives | Often the most flexible destination for prior engineering technology credits | Helpful, but elective credit may not shorten prerequisite chains |
Before you enroll, ask for a written degree audit, not just an informal estimate. A good transfer review should show exactly which courses satisfy degree requirements and which courses count only toward total credits.
Use this sequence when comparing programs because it forces schools to answer the questions that affect your timeline and cost.
- Request an unofficial transcript evaluation before submitting a deposit.
- Ask which prior courses satisfy required electrical engineering courses, not only electives.
- Confirm whether calculus-based physics and higher-level math are still required.
- Ask whether old technical credits expire or require departmental review.
- Compare the remaining course sequence by term, including prerequisites that may not be offered every semester.
A common mistake is choosing the school that accepts the most total credits without checking how those credits apply. The better choice is usually the program that leaves you with the fewest required credits in the correct sequence, even if the headline transfer number is lower.
Are online electrical engineering programs ABET-accredited?
Some online electrical engineering programs are ABET-accredited, but not all of them are. ABET accreditation is program-specific, not school-wide, so a university can be accredited overall while its online electrical engineering degree is not accredited by ABET's Engineering Accreditation Commission.
ABET uses different commissions for different program types. Electrical engineering programs are generally evaluated by the Engineering Accreditation Commission, while electrical engineering technology programs are generally evaluated by the Engineering Technology Accreditation Commission. That distinction matters because employers, graduate schools, and state licensing boards may treat the two differently.
The table below shows how accreditation affects common student goals.
| Goal | Why ABET may matter | Risk if you skip verification |
| Professional Engineer licensure | Many state boards use ABET engineering accreditation as the cleanest educational pathway | You may face extra experience requirements, transcript review, or ineligibility depending on the state |
| Traditional electrical engineer roles | Some employers screen for ABET-accredited engineering degrees in design, power, aerospace, defense, and infrastructure roles | Your application may be routed to technologist or technician-level roles instead |
| Graduate engineering school | Engineering master's programs may expect calculus-based engineering fundamentals | You may need prerequisite or bridge coursework before admission |
| Applied technical leadership | ABET technology accreditation can still be valuable for hands-on technical roles | The degree may not align with PE-track or research-focused engineering goals |
To check accreditation, search by the exact program name and delivery method in ABET's official program database, then confirm the answer with the department. Do not rely only on phrases such as "ABET-aligned," "designed to meet ABET standards," or "university accredited," because those are not the same as program accreditation.
A practical rule: if your target job postings say "BS in Electrical Engineering" or mention PE licensure, prioritize ABET EAC accreditation. If your target roles emphasize installation, troubleshooting, test, manufacturing support, or field applications, an accredited engineering technology route may still be appropriate.
What admissions requirements do these programs usually expect?
Admissions requirements vary, but online electrical engineering programs usually expect stronger math and science preparation than many engineering technology graduates anticipate. Prior hands-on electronics experience is valuable, but it does not replace calculus, physics, and engineering analysis in a traditional electrical engineering curriculum.
Most programs review applicants on a combination of academic readiness and transfer fit. These are the requirements you are most likely to encounter and why each one matters.
- Regionally accredited prior college coursework, because bachelor's programs need transferable academic credit from recognized institutions.
- Minimum GPA, often with a higher expectation for math, science, and technical courses than for general education courses.
- Calculus readiness or completed calculus, because upper-level electrical engineering uses continuous-time analysis, differential equations, electromagnetics, and signals.
- Calculus-based physics, especially mechanics and electricity and magnetism, because it supports circuits, fields, electronics, and energy systems.
- Programming or computing experience, commonly in C, C++, Python, MATLAB, or similar tools used in simulation and embedded systems.
- Official transcripts and course descriptions or syllabi, because departments often need content-level evidence to decide equivalency.
If you are missing prerequisites, ask whether the school offers them online and whether they can be taken at a community college. This can lower cost, but only if the receiving engineering department confirms the courses will transfer before you enroll.
Red flags include admissions teams that promise large transfer awards without a departmental audit, programs that cannot provide a course rotation, and schools that avoid clear answers about ABET status. Strong programs tend to be transparent about prerequisites, lab expectations, exam proctoring, and how transfer credits are applied.
How do online and on-campus electrical engineering degrees differ?
Online and on-campus electrical engineering degrees can lead to similar academic outcomes when the curriculum, faculty standards, labs, and accreditation are equivalent. The bigger differences are scheduling, lab delivery, access to campus equipment, peer interaction, and how much self-direction the student needs.
The table below highlights the practical differences that matter most for engineering technology graduates who may be balancing work with school.
| Factor | Online electrical engineering | On-campus electrical engineering |
| Schedule | Often better for working adults, though exams and labs may still have fixed windows | More structured weekly schedule with in-person meetings |
| Labs | May use mailed kits, remote instrumentation, simulations, or short campus residencies | Direct access to lab equipment, faculty, and team-based lab work |
| Course sequencing | Can be less flexible if upper-level courses are offered once per year | Often more predictable at large engineering schools |
| Networking | Requires intentional effort through projects, internships, professional groups, and faculty contact | More built-in access to student teams, labs, recruiting events, and research groups |
| Best fit | Motivated students with work experience, transfer credit, and strong time management | Students who want daily campus support, intensive labs, and traditional student engineering life |
Online engineering is not automatically easier. In fact, it can feel harder because advanced math and design work require consistent weekly study without the rhythm of in-person classes. Students who did well in engineering technology labs but have been away from calculus should plan a math refresh before starting upper-division courses.
Online study is also part of a broader shift in technical education. Students comparing electronics, software, and systems careers may also compare an online computer science degree, especially if they are more interested in embedded software, AI systems, cybersecurity, or cloud-connected devices than in power, circuits, and hardware design.
What courses are in an electrical engineering completion curriculum?
An electrical engineering completion curriculum usually starts by closing prerequisite gaps, then moves into upper-level engineering science, labs, design, and specialization electives. Engineering technology graduates may recognize some topics, but the engineering version often uses more mathematical modeling and design analysis.
The table below summarizes common course areas and what they are meant to prepare you to do.
| Course area | Typical topics | Why it matters for career readiness |
| Mathematics | Calculus, differential equations, linear algebra, probability, numerical methods | Supports modeling, signals, control systems, electromagnetics, and communication systems |
| Core circuits and electronics | Network analysis, analog electronics, digital logic, semiconductor devices | Builds the foundation for hardware design, testing, and troubleshooting |
| Signals and systems | Continuous and discrete systems, Fourier analysis, filters, signal processing | Important for communications, controls, audio, imaging, and sensing systems |
| Electromagnetics and power | Fields, waves, transmission lines, machines, power systems, energy conversion | Supports careers in utilities, renewable energy, RF, hardware, and infrastructure |
| Computer and embedded systems | Microcontrollers, computer architecture, firmware, real-time systems | Useful for robotics, Internet of Things devices, automation, and electronics products |
| Senior design | Team-based engineering design, testing, documentation, and presentation | Gives employers evidence that you can apply engineering judgment to an open-ended problem |
Students with engineering technology backgrounds often do well in labs, instrumentation, troubleshooting, and applied projects. The challenge is usually not the hands-on work; it is the math-intensive theory that underpins design decisions.
If your interest is shifting toward software-defined systems, artificial intelligence, or algorithm-heavy product development, you may also compare an accelerated computer science degree. That path may be more direct for software engineering roles, while electrical engineering is stronger for hardware, power, electronics, controls, and physical systems.
How long does an online electrical engineering degree completion take?
Completion time depends less on your total transfer credits and more on prerequisite chains. Even with substantial prior coursework, you may not be able to take signals, electronics, controls, electromagnetics, and senior design all at once because each course often depends on earlier math and engineering courses.
The table below gives a practical way to think about timelines without assuming that every transfer student starts at the same point.
| Starting point | Likely remaining work | Typical planning concern |
| Associate degree in electrical engineering technology | General education may be mostly complete, but calculus-based engineering prerequisites may remain | Technology credits may not replace engineering major courses |
| Some engineering technology college credit | General education, math, physics, and lower-division engineering may still be mixed | Transcript evaluation is essential before estimating graduation date |
| Completed calculus and calculus-based physics | May be ready to enter more upper-division engineering sequences | Course rotation and lab availability become the main bottlenecks |
| Full-time student with few work obligations | Can usually move faster through prerequisites and labs | Engineering course load can be intense even online |
| Working adult studying part time | May need a longer plan with fewer technical courses per term | Burnout risk rises if labs, exams, and work deadlines collide |
A realistic planning process should include both academic and personal constraints. Electrical engineering courses are cumulative, so overloading a term can lead to weaker grades in the very courses employers and graduate programs care about most.
To build a workable timeline, ask the department for a term-by-term plan that includes prerequisites, lab requirements, and course availability. If a key course is offered only once per year, missing it can delay graduation even if you have enough total credits.
How much do online electrical engineering degrees typically cost?
Online electrical engineering degree costs vary by school, residency, transfer credit, technology fees, lab requirements, and how many prerequisites remain. The most reliable way to estimate cost is to multiply the number of required remaining credits by the school's tuition and fees, then add books, software, lab kits, proctoring, travel, and any lost work time.
National tuition benchmarks help frame the decision. The College Board's 2024 Trends in College Pricing reported average published 2024-25 tuition and fees of $11,610 for in-state students at public four-year colleges, $30,780 for out-of-state students at public four-year colleges, and $43,350 at private nonprofit four-year colleges. These are not online electrical engineering prices, but they show why residency status and institution choice can have a major effect on total cost.
When comparing programs, look beyond the advertised per-credit tuition. The following cost items are especially important for online engineering students because they can change the real price of completion.
- Remaining required credits after the official transfer evaluation
- In-state versus out-of-state tuition rules for online students
- Engineering program fees, online learning fees, and lab fees
- Required lab kits, hardware, software licenses, calculators, and testing tools
- Campus residency or travel requirements for labs, orientation, or exams
- Prerequisite courses that must be taken before upper-division engineering classes
- Financial aid eligibility, employer tuition assistance, military benefits, and scholarship access
There are no universal plan names for online electrical engineering pricing, so the safest comparison is total estimated program cost after transfer. Ask each school for a written cost estimate tied to your degree audit, not just a tuition page.
- Total tuition based on remaining credits
- Mandatory fees and engineering-specific fees
- Estimated books, software, lab materials, and equipment
- Travel or residency costs if any in-person labs are required
A common ROI mistake is choosing the lowest tuition without checking whether the program is ABET-accredited, whether credits transfer cleanly, and whether the course sequence fits your work schedule. A cheaper program can become more expensive if it adds semesters or does not support your target career path.
What jobs can electrical engineering graduates pursue?
Electrical engineering graduates can pursue roles in power, electronics, controls, embedded systems, communications, manufacturing, aerospace, defense, transportation, renewable energy, and technical consulting. Students with engineering technology backgrounds may have an advantage in practical testing, troubleshooting, documentation, and lab communication, especially when paired with stronger engineering theory.
The table below summarizes common job directions and the kind of work they usually involve.
| Career path | Typical responsibilities | Helpful preparation |
| Electrical engineer | Design, analyze, test, and improve electrical systems, equipment, or components | ABET engineering degree, circuits, electronics, design projects, and strong documentation |
| Power systems engineer | Work on generation, transmission, distribution, protection, grid reliability, or renewable integration | Power systems coursework, utility exposure, PE-track awareness, and safety knowledge |
| Controls engineer | Design and tune automation systems for manufacturing, robotics, industrial equipment, or process control | Controls, sensors, PLCs, embedded systems, and hands-on troubleshooting |
| Electronics design engineer | Develop analog, digital, mixed-signal, or embedded hardware products | Electronics labs, PCB exposure, simulation tools, firmware basics, and senior design work |
| Test engineer | Create test plans, automate measurements, validate products, and diagnose failures | Instrumentation, statistics, scripting, lab equipment, and quality documentation |
| Field applications engineer | Support customers using technical products, troubleshoot integration issues, and connect sales with engineering teams | Communication skills, product knowledge, electronics fundamentals, and customer-facing experience |
Electrical engineering is also increasingly connected to sustainability and computing. Power electronics, battery systems, electric vehicles, smart buildings, and renewable energy integration are creating more interdisciplinary work, while AI-enabled design tools and automation are changing how engineers simulate, test, and optimize systems.
If your motivation is environmental impact rather than electrical systems specifically, it may be worth comparing engineering options with broader sustainability careers. A guide on what can I do with an environmental science degree can help clarify whether you prefer technical energy systems, environmental compliance, climate data, conservation, or policy-related work.
To improve job readiness while enrolled, build a portfolio of design projects, lab reports, simulations, code, and senior design documentation. Employers often want evidence that online students can solve real engineering problems, communicate results, and work on teams.
What salary and job outlook does electrical engineering have?
The salary and outlook for electrical engineering are strong, but outcomes vary by industry, location, experience, degree type, clearance eligibility, licensure, and technical specialization. Salary data should be used as a benchmark, not a promise.
The U.S. Bureau of Labor Statistics reports that electrical and electronics engineers had a May 2024 median annual wage of $118,780. For a student comparing tuition and transfer options, that figure suggests the field can support a strong long-term return, but only if the degree aligns with the roles you are targeting and does not create unnecessary debt or delay.
BLS employment projections also show continued demand for electrical and electronics engineers, driven by areas such as semiconductor development, communications, renewable energy, automation, and advanced manufacturing. The practical takeaway is that students should choose electives and projects connected to active hiring areas rather than treating all electrical engineering specializations as equal.
The table below shows how career positioning can influence outcomes beyond the degree title.
| Factor | Why it affects salary and opportunity | What students can do |
| Accreditation and licensure path | Some employers and state boards prefer ABET EAC engineering degrees for design authority and PE-track work | Verify ABET status and state licensing expectations early |
| Industry | Power, semiconductors, aerospace, defense, automation, and technology firms may value different skill sets | Choose electives and projects that match target industries |
| Location | Engineering salaries and job availability vary by regional industry clusters and cost of living | Review job postings in the states or metro areas where you plan to work |
| Experience | Internships, co-ops, technician experience, and project portfolios can improve credibility | Translate engineering technology experience into design, testing, and problem-solving examples |
| Technical tools | Employers increasingly expect simulation, programming, data analysis, and automation skills | Build evidence using MATLAB, Python, SPICE tools, CAD tools, microcontrollers, or lab automation |
A good decision is not simply "electrical engineering pays well." The better question is whether the program gets you to the specific roles, industries, and credentials that justify the time and cost for your situation.
Other Things You Should Know About Electrical Engineering
Sometimes, but it depends on the employer and role. Some companies hire engineering technology graduates into applied engineering, test, field, or manufacturing roles, while design-heavy or PE-track jobs may require a Bachelor of Science in Electrical Engineering.
Not always. Many electrical engineers in electronics, manufacturing, software-adjacent hardware, and product development do not need a PE license. Licensure becomes more important for work involving public infrastructure, power systems, building systems, consulting, or signing and sealing engineering documents.
They can be credible if the program uses rigorous lab kits, remote instruments, simulations, documented experiments, and faculty assessment. To strengthen your resume, keep project reports, design files, code, test results, and senior design materials that show what you actually built or analyzed.
Choose electrical engineering if you want the broadest path to design engineering, graduate study, or licensure. Choose electrical engineering technology if you prefer applied technical work, troubleshooting, implementation, testing, or operations and want a curriculum that is typically more hands-on and less theory-heavy.
References
- Eligibility & Application Process | School of Medicine | Queen's University https://meds.queensu.ca/academics/mdprogram/admissions/eligibility_application_process
- What Do Colleges Look For in Students? https://www.collegedata.com/resources/getting-in/what-do-colleges-look-for-in-students
- Online Electrical Engineering Degrees https://www.affordablecollegesonline.org/degrees/engineering-programs/electrical-engineering/
- Job Outlook: Electrical Engineering | Progressive https://www.progressiverecruitment.com/en-us/knowledge-hub/industry-insights/job-outlook-electrical-engineering/
- ABET https://www.abet.org/accreditation/find-programs/
- 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/
