2027 Online ABET Engineering Programs With Labs Completed at Partner Campuses Near You
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An online engineering degree is only a practical choice if its laboratory work, accreditation status, and licensure fit your career goal. This guide is for prospective electrical engineering students who need online coursework but can travel to a nearby approved lab site.
The U.S. Bureau of Labor Statistics reports a $111,910 median annual wage for electrical and electronics engineers, making program quality and total cost important investment decisions. Learn how partner-campus labs work, what to verify before enrolling, and whether this path fits your plans.
Key Things You Should Know
- An online electrical engineering program can be ABET-accredited, but you must confirm that the specific degree program, not merely the institution, holds accreditation and that its current accreditation covers your expected graduation period.
- "Partner-campus labs" usually means online theory courses plus required in-person laboratory sessions at an approved campus, extension site, or collaborating institution; travel distance, scheduling, and equipment access can determine whether the format is realistic.
- Electrical and electronics engineers had a 2024 median annual wage of $111,910, according to the U.S. Bureau of Labor Statistics, but salary and professional-engineer licensure outcomes vary by specialty, location, employer, experience, and state rules.
What are online ABET engineering programs with partner-campus labs?
Online ABET engineering programs with partner-campus labs are degree programs that deliver much of the academic curriculum remotely while requiring students to complete selected hands-on work at a physical site. In electrical engineering, laboratory experience matters because students must measure circuits, use instrumentation, troubleshoot systems, and document results under safety and quality procedures.
ABET is a nonprofit accreditor of college programs in applied and natural science, computing, engineering, and engineering technology. For a bachelor's degree intended to prepare students for conventional electrical engineering roles, look for accreditation by ABET's Engineering Accreditation Commission. Engineering technology accreditation can be valuable, but it is a different educational track and may lead to different licensure or employer expectations.
The phrase "near you" should be treated as a verification task rather than a promise. A school may use its own main campus, a satellite location, a community-college partner, a short residential session, or a limited network of approved sites. Ask whether the site is available to online students in your state and whether it supports every required experiment.
| Format | Where theory is completed | Where labs are completed | Best fit |
| Mostly online with campus intensives | Online | Main campus during scheduled sessions | Students able to travel a few times per term or year |
| Online with partner-campus labs | Online | Approved local or regional partner site | Students who need a closer lab location |
| Hybrid engineering degree | Online and on campus | Home campus regularly | Students living near the university |
| Traditional campus degree | On campus | On campus | Students seeking frequent in-person faculty and lab access |
This comparison shows why lab geography deserves as much attention as online-course convenience. A program that appears fully online may still require substantial travel, concentrated weekday attendance, or an approved site that is not actually nearby.
Why does ABET accreditation matter for electrical engineering?
ABET accreditation matters because it provides an external review of whether an engineering program meets established educational criteria. Employers, graduate schools, and state licensing boards may use it as a quality signal, especially for roles involving public safety, regulated infrastructure, or the professional engineer pathway.
For electrical engineering, accreditation review considers areas such as mathematics, science, engineering design, student outcomes, faculty, facilities, and continuous improvement. It does not guarantee a job, admission to graduate school, or eligibility for every state credential. It does make the degree easier to evaluate than an unaccredited program when a hiring manager or licensing board needs evidence of a recognized engineering education.
Before paying an enrollment deposit, take these steps to confirm the credential and the lab arrangement.
- Search ABET's official program database using the institution, degree title, and campus or delivery location.
- Confirm the accreditation commission and the program's named discipline, such as electrical engineering rather than engineering technology.
- Ask the university whether online students receive the same accredited degree as campus students and whether any location-specific approval affects your pathway.
- Request the current lab schedule, approved-site list, travel expectations, and the policy if a partner location loses capacity.
- If professional licensure is a goal, contact the engineering board in the state where you intend to practice before enrolling.
A common mistake is relying on a college's institutional accreditation or a broad statement that it is "ABET affiliated." The relevant question is whether the exact bachelor's program and instructional pathway you plan to complete are included in the applicable accreditation status.
How do partner-campus lab courses work online?
Partner-campus laboratory courses usually combine online preparation with scheduled in-person experiments. Students may complete safety modules, pre-lab calculations, simulation assignments, and reports online, then attend a site to build circuits, operate test equipment, collect measurements, and complete practical assessments.
The amount of travel varies widely. Some programs group labs into intensive weekends or summer sessions; others require recurring sessions throughout a term. A local partner site can reduce travel costs, but it may offer fewer dates or smaller equipment inventories than the main campus.
| Lab component | Typical delivery | What to verify |
| Pre-lab work | Online modules, calculations, simulations | Software access, required computer specifications, deadlines |
| Hands-on experiment | Partner campus or university laboratory | Distance, session frequency, equipment, safety requirements |
| Faculty support | On-site instructor, technician, or remote supervision | Who assesses work and how help is available during labs |
| Lab report and assessment | Usually submitted online after attendance | Individual versus group grading and retake policies |
Use this information to test the format against your work and family schedule before applying. Ask whether labs occur on weekdays, whether missed sessions can be made up, and whether travel, parking, lodging, consumable fees, and protective equipment are included in the published tuition estimate.
Remote hardware kits and simulations can supplement instruction, but they are not automatically substitutes for required physical labs. The school should clearly explain which experiments are completed at home, which must occur at a site, and how those choices support the accredited curriculum.
A typical ABET-accredited electrical engineering bachelor's curriculum builds from calculus and physics into circuits, electronics, signals, electromagnetics, computing, design, and laboratories. Exact course titles differ by university, and transfer students may need a transcript evaluation to determine which prerequisites remain.
The course groups below help you compare curricula without assuming that identical names mean identical content.
| Course area | Typical topics | Why it matters |
| Mathematics and science | Calculus, differential equations, linear algebra, calculus-based physics | Provides the analytical foundation for circuit and system models |
| Circuits and electronics | DC/AC circuits, semiconductor devices, analog and digital electronics | Develops core design and troubleshooting skills |
| Signals and systems | Signal processing, transforms, communications, control concepts | Supports work in communications, automation, and embedded systems |
| Electromagnetics and power | Fields, transmission, machines, power systems | Prepares students for energy, hardware, and infrastructure applications |
| Programming and embedded systems | Programming, microcontrollers, digital systems | Reflects employer demand for hardware-software integration |
| Design and laboratories | Measurement, instrumentation, team design, capstone project | Demonstrates applied engineering judgment and communication |
AI-enabled design tools, simulation platforms, and automated testing are increasingly part of engineering workflows, but they do not remove the need to understand assumptions, validate outputs, and work safely with real hardware. Favor programs that teach students to document designs, interpret measurements, and evaluate tool-generated results rather than simply operate software.
Students aiming at power systems, wireless communications, semiconductors, robotics, or embedded systems should compare technical electives and capstone options. A broad degree title alone does not ensure access to the specialization, laboratory equipment, or faculty expertise relevant to a particular career target.
Admission requirements depend on whether you are entering as a first-year student, transferring from a community college, or returning after prior college work. Online delivery rarely eliminates the mathematics and science preparation needed for an electrical engineering curriculum.
Applicants commonly need the following materials and academic preparation, though each school sets its own standards.
- A high school diploma or equivalent for first-year admission, or official college transcripts for transfer admission
- Demonstrated preparation in algebra, trigonometry, precalculus, or calculus, depending on the entry point
- Science coursework, often including physics; calculus-based physics may be required before upper-division engineering courses
- Minimum grade requirements in prerequisite courses and an overall GPA requirement set by the institution
- Proof that the student can meet lab attendance, safety training, residency, and technology requirements
Transfer credit can shorten the path substantially, but only if prior courses match the receiving program's content and grade standards. Obtain a written transfer evaluation, not an informal estimate, before making financial or employment plans around a projected graduation date.
If application fees or application logistics are a barrier, compare online colleges with no application fee while still independently confirming program-level ABET accreditation and lab availability. Lower application friction should not replace a careful review of prerequisites.
Red flags include admissions staff who cannot identify the lab location, vague answers about calculus prerequisites, or claims that every prior technical course will transfer automatically. Ask for contact information for the engineering department or lab coordinator, not only a general enrollment representative.
A bachelor's degree in electrical engineering commonly requires about four years of full-time study when students begin with the required math preparation and progress through courses in sequence. Part-time enrollment, prerequisite gaps, limited laboratory scheduling, and transfer-credit decisions can extend that timeline.
Engineering is less easily accelerated than some classroom-only majors because calculus, physics, circuits, and laboratories often form a strict prerequisite chain. Taking a lighter online course load may be sensible for a working adult, but it can delay the next lab-based course if it is offered only once per year.
| Enrollment approach | Likely scheduling trade-off | Who it may suit |
| Full-time | Faster progress but heavier weekly workload and more fixed lab commitments | Students able to prioritize school and attend scheduled labs |
| Part-time | More manageable alongside work but a longer prerequisite sequence | Working adults with reliable long-term scheduling flexibility |
| Transfer pathway | Potentially fewer remaining credits, subject to course equivalency | Students with strong math, science, or engineering coursework |
| Post-bachelor's master's degree | Advanced specialization after completing foundational engineering education | Engineers seeking technical depth or career transition options |
For students who already hold a relevant bachelor's degree and are considering graduate specialization instead of a second bachelor's, online 1-year master's programs may be worth comparing. A one-year schedule is not a replacement for an ABET-accredited engineering bachelor's when that undergraduate credential is required for your goal.
Before choosing a pace, map every prerequisite through graduation and mark the in-person lab dates. The most realistic program is not necessarily the one advertising the shortest calendar time; it is the one whose required sequence fits your actual availability.
Total cost includes more than tuition. Electrical engineering students may pay university fees, laboratory fees, books, software, computing costs, travel to partner campuses, lodging for intensive sessions, and lost work time. Compare a school's net price estimate with the expense of reaching each required lab site.
For context, the National Center for Education Statistics reported average published tuition and fees of $11,610 for in-state students at public four-year institutions and $43,350 at private nonprofit four-year institutions in 2024 academic year. These are broad institutional averages, not electrical engineering program prices or net costs after aid, so use them only as a starting benchmark.
The cost categories below are the ones most likely to change the value of an online program with in-person labs.
| Cost factor | Why it can vary | Decision question |
| Tuition rate | Resident status, online rate, credit level, institution policy | Is the quoted rate applicable to your location and program? |
| Laboratory and course fees | Equipment, materials, safety, and specialized courses | Which mandatory fees are excluded from tuition? |
| Travel to lab sites | Distance, session timing, parking, airfare, lodging | What is the full cost for each required visit? |
| Transfer credit | Course equivalencies and grade limits | How many credits are accepted in writing? |
| Financial aid | Enrollment level, eligibility, institutional awards | How will part-time study affect aid and borrowing? |
Compare inexpensive master's programs only if a graduate credential is the appropriate next step for your existing education. For students who do not yet have the foundational engineering bachelor's degree, a lower-priced master's program generally does not solve undergraduate ABET or licensure-preparation needs.
To reduce avoidable costs, request an itemized estimate for all required lab terms, apply for federal and institutional aid when eligible, ask about employer tuition assistance, and avoid borrowing based solely on a salary projection. The best financial comparison uses your expected completion time, required travel, likely aid, and local career goal.
Electrical engineering graduates can pursue roles in power and energy, electronics, communications, controls, embedded systems, aerospace, manufacturing, test engineering, and technical consulting. The exact job title depends on internships, projects, geographic market, security-clearance eligibility where relevant, and the electives or concentration completed.
The U.S. Bureau of Labor Statistics projects 7% employment growth for electrical and electronics engineers from 2024 to 2034. That projection indicates continued demand across the occupation, but it does not predict openings, pay, or hiring conditions for a particular city or specialty.
| Career area | Typical work | Helpful preparation |
| Power and energy | Designing or maintaining generation, transmission, distribution, and protection systems | Power systems courses, field safety awareness, utility or infrastructure internships |
| Embedded systems | Integrating electronics, firmware, sensors, and controls | Programming, microcontrollers, digital design, portfolio projects |
| Communications and signal processing | Developing systems that transmit, process, or analyze signals | Signals, communications, RF, and simulation coursework |
| Test and systems engineering | Verifying performance, diagnosing failures, and coordinating technical requirements | Instrumentation labs, documentation, troubleshooting, teamwork |
| Semiconductors and electronics | Designing, testing, or manufacturing electronic devices and hardware | Electronics, devices, computer-aided design, clean-room exposure where available |
For many entry-level candidates, internships, cooperative education, lab experience, and a well-documented capstone project are decisive differentiators. Ask each program whether online students can access career services, employer events, research opportunities, and internship support comparable to campus-based students.
A degree may be a poor fit if you strongly dislike advanced mathematics, iterative debugging, precise documentation, or scheduled physical lab work. Students drawn mainly to software development may also want to compare computer science or software engineering pathways before committing to the added physics and hardware requirements of electrical engineering.
The U.S. Bureau of Labor Statistics reports a 2024 median annual wage of $111,910 for electrical and electronics engineers. A median is the midpoint for the occupation, not an entry-level offer, a graduate guarantee, or a measure of take-home pay after taxes and benefits choices.
Pay can differ materially by engineering specialty, industry, state, local labor market, work experience, graduate education, and responsibility level. Roles involving advanced hardware, regulated infrastructure, defense-related work, or high-cost metropolitan areas may have different compensation structures than general entry-level positions.
Use salary information as an ROI input rather than a promise. Compare likely local entry-level opportunities with your total educational cost, expected time away from work, debt amount, and the travel expenses created by the lab model. Also examine whether the program publishes transparent career outcomes using clear definitions of employment, response rates, and reporting periods.
Students considering graduate study after the bachelor's degree should not assume that the quickest credential is automatically the best investment. A fastest master's degree may fit some fields and prior academic backgrounds, but engineering employers and licensing boards may require a more specific curriculum, prerequisite base, or accredited undergraduate education.
Do these degrees meet licensure and certification requirements?
An ABET-accredited electrical engineering bachelor's degree is commonly an important educational component for the professional engineer, or PE, pathway, but it does not itself grant a license. Licensure is controlled by state engineering boards, and requirements can include the Fundamentals of Engineering examination, qualifying work experience, the Principles and Practice of Engineering examination, and other state-specific conditions.
The PE credential is especially relevant for engineers who offer services to the public or take responsible charge of certain engineering work. Many electrical engineering jobs in product development, manufacturing, research, software-adjacent roles, and internal corporate engineering do not require individual PE licensure, though employer expectations vary.
Certification is separate from licensure. Employers may value vendor, software, cybersecurity, project-management, or specialty credentials, but their usefulness depends on the role. A certification should complement foundational engineering education and demonstrated project experience rather than substitute for them.
Before enrolling, contact the board in the state where you expect to work and ask whether the exact degree, accreditation status, and online/partner-lab format meet its educational expectations. This is particularly important if you may relocate, pursue public-facing consulting, or work on utility and infrastructure projects.
A frequent mistake is assuming that "online" makes a degree ineligible or, conversely, assuming every online engineering degree automatically supports licensure. Delivery format alone is not the deciding factor; the program's accreditation, your academic record, examination path, experience, and state rules all matter.
Other Things You Should Know About Electrical Engineering
Yes, some programs deliver much of the coursework online while requiring in-person labs, intensives, or approved-site sessions. Confirm that the exact degree program and your instructional pathway are covered by the program's ABET accreditation.
There is no universal distance standard. Calculate the actual travel time and cost for every required session, including the possibility of weekday attendance or multi-day intensive labs, before deciding that a site is practical.
Partner-campus labs must be completed under faculty or technician supervision, with required safety training before any hands-on work begins. Many ABET engineering programs require documented lab attendance, lab reports, and compliance with site-specific rules for equipment, protective gear, and emergency procedures.
It can support the educational portion of the pathway, but qualification depends on your state board, the specific accredited program, examinations, qualifying experience, and other state requirements. Verify eligibility directly with the relevant licensing board.
- Accredited Engineering Degree Online | Compare Programs https://www.accreditedonlinecolleges.org/engineering/
- Online ABET-Accredited Engineering Degree Guide - Educating Engineers https://educatingengineers.com/online-engineering-schools/abet-accredited-degree/
- ABET. (2025). Criteria for accrediting engineering programs: 2025–2026. https://www.abet.org/accreditation/accreditation-criteria/criteria-for-accrediting-engineering-programs-2025-2026/
- U.S. Department of Education. (2025). Accreditation in the United States. https://www.ed.gov/
- National Council of Examiners for Engineering and Surveying. (2025). Education. https://ncees.org/engineering/engineering-licensure/education/
