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How Online Electrical Engineering Degrees Work (2026)
Updated September 5, 2026BLS dataCollege ScorecardOn this page
Online electrical engineering degrees use asynchronous, synchronous, hybrid, and low-residency formats, and in this field the format question reduces to one thing: how does the program handle laboratories? Lectures on circuit analysis stream fine. Problem sets travel. Simulation tools run anywhere. What does not travel by default is a bench with an oscilloscope, a function generator, a power supply, and an instructor who can tell you why your measured waveform disagrees with your model.
That is why fully online, ABET-accredited bachelor’s programs in electrical engineering are rare and why online master’s programs are common. Graduate coursework is analytical. Undergraduate engineering is analytical plus experimental, and ABET criteria expect the experimental half to be real.
This page explains the common delivery formats, how each one handles the laboratory problem, and how format affects pacing, exams, and the senior design capstone.
Advantages
Study around a full-time engineering or technician job
Same degree titles and ABET accreditation as campus programs where the program is accredited
Simulation and design tools are identical to what campus students use
Recorded lectures let you replay derivations as many times as needed
Disadvantages
Laboratory delivery varies widely and is the main quality difference between programs
Hybrid programs require travel that is easy to miss in the catalog
Proctored exams have fixed dates and identity requirements
Remote students can be harder to place on a hardware capstone team
Quick Answers
What are the main online formats for electrical engineering programs?
Asynchronous coursework, synchronous live sections, hybrid programs with periodic campus laboratory sessions, and low-residency structures with short concentrated intensives. The format changes how laboratories and exams happen more than it changes the lecture content.
How do online electrical engineering labs actually work?
Four common approaches. At-home laboratory kits ship you a small instrument that combines an oscilloscope, function generator, and power supply with a breadboard, and you upload measurements and reports. Remote laboratories give you scheduled control of real instrumentation on campus over the internet. Partner or proctored laboratories let you complete required work at an approved local facility. Campus intensives concentrate a term of laboratory work into a week or two on site. Many programs mix these by course level.
Are online exams proctored?
Usually, and heavily in this major. Expect remote proctoring software, a webcam and identity check, restrictions on what materials you may have, and fixed exam windows you must be available for. Some programs require a testing center instead. Ask about proctoring fees and about time-zone scheduling before you enroll.
Can I do the senior design capstone remotely?
It depends on the program and it is worth asking early. ABET-accredited programs require a major design experience, and hardware capstones involve parts, assembly, and testing. Some programs form distributed teams and ship components. Some require the capstone to be completed at a campus intensive. Some let remote students propose a project tied to their employer, which is often the best option if you already work in the field.
How much time should I plan each week?
Time commitment varies by course load and term length. Engineering courses combine lecture, problem sets, simulation assignments, and laboratory reports, and the problem sets are the part students underestimate. Ask each school for a sample weekly schedule for a core engineering course rather than a general estimate.
At a Glance
Formats available: Asynchronous, synchronous, hybrid, and low-residency
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recent school-level data published by the U.S. Department of Education (College Scorecard and IPEDS).
To qualify, a school must be currently operating and accredited by an agency recognized by the
U.S. Department of Education. Each eligible school is then scored on five measures, percentile-ranked
against schools at the same credential level:
BOCSCORE
Graduation rate 30%
Median earnings, 10 years after entry 25%
Average net price (lower is better) 20%
Retention rate 15%
Fully online availability 10%
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BOC
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Asynchronous courses let you work through lectures and materials on your own schedule within a defined window.
Typical characteristics
Recorded lectures and worked derivations you can replay
Weekly problem sets, simulation assignments, and discussion posts
Fixed deadlines without live class meetings
Laboratory work completed on a kit or in a remote laboratory session you schedule
This is the dominant format for online master’s programs and for the lecture half of undergraduate courses. It suits a working engineer well, because you can watch a derivation three times at midnight. The weakness is that a stuck problem set becomes a message thread instead of a five-minute conversation, so check how quickly instructors and teaching assistants respond.
Synchronous online courses
Synchronous courses are built around scheduled live sessions.
Typical characteristics
Real-time lecture and problem-solving with an instructor working through examples
Fixed weekly meeting times
Live question and answer, which matters most in the math-heavy core courses
Attendance expectations
Watching an experienced engineer set up a problem in real time teaches judgment that a recording compresses out: which approximation to make, which term to drop, when the model stops describing the circuit. The constraint is time zones and work schedules, which is why many programs record the live sessions as a fallback.
Hybrid and low-residency formats
Hybrid programs combine online coursework with required on-campus laboratory sessions. Low-residency programs concentrate that requirement into short intensives, often a week or two at a time.
Typical characteristics
Lecture and problem work delivered online
Laboratory sequences completed on campus in concentrated blocks
Travel, lodging, and time off work for each required session
Access to real instrumentation and, for power or radio-frequency work, equipment that cannot ship
If travel is a constraint, confirm the residency requirement before enrolling. A program marketed as online is not fully remote if two laboratory weeks a year are required. Get the number of sessions, their typical dates, and whether they are ever offered in alternate windows.
The laboratory problem, in detail
This section is the reason this page exists. Compare the four approaches honestly.
At-home kits work well for introductory circuits and digital logic. A pocket instrument plus a breadboard covers resistor-capacitor transients, operational amplifier circuits, and basic logic. Limits: bandwidth, voltage range, and the absence of an instructor watching your probe technique.
Remote laboratories give you scheduled control of instruments physically located on campus. They handle equipment you cannot own, and they preserve real measurement noise. Limits: scheduling contention, and you are not touching the hardware, which matters for building physical intuition.
Partner or proctored laboratories send you to an approved local facility, sometimes a community college. This works when such a facility exists near you and is a hard constraint when it does not. Ask whether the school arranges the placement or leaves it to you.
Campus intensives are the most faithful and the most disruptive. A week of concentrated laboratory work with real supervision is genuinely equivalent to a semester of weekly sessions in learning terms. It also requires time off work and travel.
Power laboratories, high-frequency and antenna measurement, and anything involving significant energy are the hardest to deliver remotely. If your intended specialization is in one of those areas, weight the hybrid options more heavily.
Tools, software, and setup
A computer able to run circuit simulation and design software, which is more demanding than typical coursework requirements
Simulation tools for circuits and systems, plus a numerical computing environment
Schematic capture and printed circuit board layout software for design courses
Hardware description language tools for digital design
A laboratory kit or scheduled remote laboratory access
A quiet space and webcam that satisfies remote proctoring requirements
Problem sets dominate the week and they do not compress. A laboratory adds a scheduled block plus a report. Simulation assignments expand to fill whatever time you give them. The format determines how much slack you have when a derivation will not come out.
Consider
Whether laboratory sessions have separate deadlines from problem sets
How quickly instructors and teaching assistants answer technical questions
Whether recorded live sessions are available if you cannot attend
Whether tutoring exists for the math-heavy core courses
Whether proctored exam windows conflict with your work schedule
Working engineers, especially at the master’s level
Students who need live problem-solving
Undergraduates needing a full accredited lab sequence
Ask each school three questions in writing: how every required laboratory course is delivered, how many on-campus days the degree requires in total, and how a remote student is placed on a senior design team. Those three answers separate a genuine online engineering program from a lecture catalog with an engineering name.
Online support services
Academic advising, which matters more here because sequencing errors cost terms
Library and database access for standards and technical literature
Technical support for simulation software and remote laboratory platforms
Tutoring for calculus, differential equations, and circuits
Capstone advising, including whether remote students get the same adviser access
Availability and hours vary by institution. Ask whether support covers the evenings and weekends you will actually be studying.
How to choose the right format
Self-check questions
Can I travel for campus laboratory sessions, or do I need a fully remote path
Do I learn derivations from recordings, or do I need to ask questions live
Is my target specialization one that requires equipment that cannot ship, such as power or radio frequency
Can I satisfy remote proctoring requirements at home, or do I need a testing center
Am I pursuing the bachelor’s, where laboratories dominate the format question, or the master’s, where they largely do not
If you are a working engineer adding a master’s, asynchronous delivery is usually the efficient choice. If you are completing a bachelor’s and want ABET accreditation and licensure eligibility, expect and plan for a hybrid structure. For a broader discussion of value, see Is an Online Electrical Engineering Degree Worth It.
Data verified: September 5, 2026.
Salary, employment, and tuition figures on this page are sourced from the U.S. Bureau of Labor Statistics (OEWS May 2025; Employment Projections 2024–2034) and the U.S. Department of Education College Scorecard (2023 cohort). The source agency and data year are cited inline with every statistic.
