2027 How to Verify the Engineering Program, Not Only the University's Accreditation
Co-Founder and Chief Data Scientist
Choosing an engineering degree based only on a university's accreditation can create a costly mismatch with licensure and employer expectations. For electrical engineers, the U.S. Bureau of Labor Statistics projects 7% employment growth from 2023 to 2033, making program quality and credential fit especially important. This guide is for prospective electrical engineering students, transfer students, and working adults comparing campus and online options. You will learn exactly how to verify ABET status, assess labs and curriculum, compare total costs, and choose a program aligned with your career goal.
Key Things You Should Know
- Verify the specific degree program, degree title, campus or delivery location, and accreditation period in ABET's records; a university's institutional accreditation does not automatically mean its electrical engineering program is ABET-accredited.
- For the most direct path toward PE licensure, choose an ABET Engineering Accreditation Commission (EAC)-accredited bachelor's program and confirm requirements with the licensing board in the state where you expect to practice.
- Electrical engineers had a $109,010 median annual wage in May 2023, according to the U.S. Bureau of Labor Statistics, but salary and career access also depend on specialization, location, experience, security requirements, and the program's hands-on preparation.
How do you verify an electrical engineering program's accreditation status in the U.S.?
In the U.S., verification should begin with the exact program - not the school's homepage, marketing claims, or a general statement that the university is "accredited." Electrical engineering programs are commonly evaluated by ABET's Engineering Accreditation Commission, while the institution itself is reviewed by an institutional accreditor recognized by the U.S. Department of Education or the Council for Higher Education Accreditation.
Use this sequence before applying, transferring, or paying a deposit. It helps distinguish a current, qualifying engineering degree from a similarly named program that may have different recognition.
- Find the exact degree name on the school's catalog, such as Bachelor of Science in Electrical Engineering, and note the campus or online location.
- Search ABET's official accredited-program database using the institution name, program name, and location.
- Confirm the accrediting commission is the Engineering Accreditation Commission and check that the listed program name matches the degree you will receive.
- Check the published accreditation period and ask whether your expected graduation date falls within the program's accredited status.
- Review the university catalog and request written confirmation from the engineering department if the program is new, has changed names, or is delivered at multiple sites.
- For a PE goal, contact the relevant state licensing board before enrollment to confirm that the program meets that state's education standard.
A program can be accredited while another engineering major at the same institution is not. Likewise, a school may have strong institutional accreditation but offer an engineering technology, applied engineering, or interdisciplinary program with different accreditation and licensure implications. Read the credential wording carefully.
What is the difference between institutional accreditation and program-specific accreditation?
Institutional accreditation evaluates the university as a whole: governance, academic oversight, financial stability, student services, and broad educational quality. Program-specific accreditation evaluates whether a particular academic program meets discipline-based standards. For an aspiring electrical engineer, both matter, but they answer different questions.
This comparison shows why "the college is accredited" is not a complete answer when your goal involves engineering employment, graduate study, or professional licensure.
| Type of accreditation | What it evaluates | Why it matters to an electrical engineering student |
| Institutional accreditation | The college or university overall | Can affect federal financial aid eligibility, credit transferability, and the general legitimacy of the institution. |
| ABET program accreditation | A named degree program at a particular location | Signals that the curriculum, faculty, facilities, student outcomes, and continuous improvement processes meet engineering standards. |
| Engineering technology accreditation | Technology-oriented programs, often through a different ABET commission | May fit applied technical careers but can create a different route to PE licensure than an EAC-accredited engineering degree. |
Institutional accreditation is necessary to evaluate a school's overall standing, but it is not a substitute for ABET accreditation when you want a conventional electrical engineering degree. Students planning design work under licensure rules, government contracting, or graduate engineering study should ask employers, graduate programs, and state boards which credential they expect.
How can you confirm ABET accreditation for an electrical engineering degree?
Confirming ABET accreditation requires matching four details: the institution, the program title, the physical or instructional location, and the applicable accreditation period. Do not assume that a university's flagship campus and satellite campus share the same program status, and do not assume that an online completion option is covered unless it is explicitly included.
Ask the engineering department for a direct, written answer to these questions before enrolling. The answers can reveal whether the program's public claims match the credential you will earn.
- What is the exact degree title printed on the diploma and transcript?
- Is this specific electrical engineering program accredited by ABET's Engineering Accreditation Commission?
- Which instructional locations, including online or hybrid pathways, are included in the accreditation?
- What accreditation period applies to students entering and graduating in my expected timeframe?
- Has the program recently changed curriculum, ownership, name, campus, or delivery format?
- Can you provide the program's published student outcomes, graduation rates, and career-support information?
New programs deserve extra caution. A school may describe a program as "seeking," "pursuing," or "designed to meet" ABET standards. Those phrases do not mean the program is currently accredited. Some programs may later receive accreditation with retroactive coverage for eligible graduates, but students should not rely on a future decision without understanding the written policy and the risk involved.
ABET EAC accreditation matters most when you want to pursue Professional Engineer licensure. Although many electrical engineering jobs do not require a PE license, licensure can be valuable for work involving public-facing engineering services, consulting, regulated infrastructure, signing or sealing plans, and career mobility. Requirements are set by individual state licensing boards, not ABET alone.
A common pathway begins with an EAC-accredited bachelor's degree, followed by the Fundamentals of Engineering exam, qualifying experience under the state's rules, and the Principles and Practice of Engineering exam. States can differ on experience requirements, exam timing, degree equivalencies, and whether an applicant educated in a non-ABET program needs additional review.
The practical trade-off is straightforward: if you are certain you will work only in software, embedded systems, product development, or private industry roles where a PE is uncommon, a nontraditional program may still fit your goals if employers accept it. If you may pursue consulting, power systems, public utilities, or work requiring legal responsibility for engineering documents, an EAC-accredited degree generally reduces uncertainty.
Other credentials, such as vendor certifications in automation, cloud systems, cybersecurity, or semiconductor tools, can strengthen a technical résumé but do not replace an engineering degree where employers or boards require one. Treat them as role-specific additions rather than substitutes for program accreditation.
An online electrical engineering program should be judged by the same program-level accreditation standard as a campus program, plus its ability to deliver meaningful laboratory, design, advising, and assessment experiences. "Online" is a delivery method, not evidence of accreditation or an indication that a program meets PE education requirements.
Start by confirming that the exact online pathway is included in the program's ABET listing or is formally administered as part of the accredited program. Then examine how the school handles laboratory work, proctored assessments, team-based senior design, faculty access, and required campus visits.
Institutional structure also deserves attention, especially when comparing mission-driven distance-learning options. Reviewing non profit online universities can help you identify schools to investigate, but you must still verify the particular electrical engineering program and delivery arrangement.
The format that fits best depends on your constraints. A hybrid program can suit a working technician who can attend scheduled lab intensives. A primarily campus-based program may be stronger for a student who needs frequent access to research labs, makerspaces, and recruiting events. Avoid any program that cannot clearly explain where and how you will complete supervised electrical, electronics, circuits, and design laboratory requirements.
A credible electrical engineering curriculum builds from calculus, physics, programming, circuits, and electronics into advanced work such as signals and systems, electromagnetics, communications, control systems, power systems, embedded systems, or semiconductor electronics. The best specialization is the one that supports your target field, not necessarily the one with the trendiest title.
Look beyond course names. Strong programs show how students apply theory through progressively more difficult labs, design projects, technical writing, teamwork, ethics, and a culminating design experience. These elements matter because employers need graduates who can test systems, interpret data, document decisions, and troubleshoot under real constraints.
This comparison can help you identify whether a curriculum supports your intended entry-level role.
| Program feature | What strong evidence looks like | Career relevance |
| Core engineering foundations | Required coursework in circuits, electronics, programming, mathematics, physics, signals, and electromagnetics | Supports broad eligibility for electrical engineering roles and graduate study. |
| Hands-on laboratories | Documented equipment access, experiments, safety procedures, faculty supervision, and data analysis | Builds practical troubleshooting and measurement skills employers often assess in interviews. |
| Senior design or capstone | Multi-term team project with specifications, testing, documentation, and presentation | Provides portfolio material and experience resembling professional project work. |
| Technical electives | Coherent options in power, controls, communications, embedded systems, RF, or microelectronics | Lets students align coursework with local industries and career goals. |
| Industry engagement | Internship support, employer advisory input, career fairs, and project sponsorships | Can improve access to work experience, though it does not guarantee placement. |
A red flag is a curriculum that emphasizes general management or broad technology topics while providing little evidence of upper-division electrical engineering analysis and lab work. That pathway may still be useful for technical management, but it is not interchangeable with a rigorous engineering degree.
Compare programs using total educational cost and completion risk, not just advertised tuition per credit. Electrical engineering often requires prerequisite sequences in calculus, physics, circuits, and labs, so a missed course or unavailable lab can extend time to degree. Transfer credit policies can be particularly consequential because schools may not accept older technical coursework or may require key engineering classes to be taken in residence.
Before comparing offers, collect the same information from every school. This gives you a realistic view of affordability, scheduling, and the likelihood that the degree will serve your career plans.
- Total tuition and mandatory fees for the credits you personally need after transfer evaluation
- Additional costs for lab kits, software, textbooks, travel, housing during lab residencies, and proctored exams
- Whether financial aid, employer tuition assistance, veterans' benefits, and scholarships apply to your enrollment format
- Required prerequisite courses and the earliest term each required engineering course is offered
- Maximum transferable credits, residency requirements, and how the school evaluates prior technical coursework
- Full-time, part-time, evening, hybrid, and summer scheduling options
- Withdrawal, repeat-course, and refund policies if work or family responsibilities interrupt your studies
An accelerated or flexible format can be valuable for a prepared learner with transferable prerequisites, but speed should not come at the expense of laboratory depth or accreditation fit. Students exploring broader flexible options can also compare a self paced accredited online college, while recognizing that self-paced study is less common for ABET electrical engineering degrees because sequenced labs and group design work require structured participation.
A lower-cost public option may produce better value when it accepts credits and offers the needed specialization. A private nonprofit program can also be sensible when its aid package, schedule, transfer policy, and student support reduce your actual cost or time away from work. Compare net price and completion conditions rather than assuming institution type determines value.
Program accreditation can make it easier for employers to understand what your degree represents, particularly at organizations with established engineering hiring pipelines. It does not guarantee an internship, co-op, clearance, or job offer. Employers also weigh coursework, projects, communication skills, work authorization, location, GPA policies, and evidence that you can work with hardware and software tools.
For students beginning with an associate degree, technician experience, or lower-division credits, a transfer plan can be a practical way to control costs. However, an associate credential is usually not equivalent to a four-year electrical engineering degree for engineering roles. Explore 2 year online degrees that pay well if you need a faster workforce option, then verify whether its credits can transfer into the specific engineering bachelor's program you may later pursue.
To improve early-career prospects, build evidence of competence before graduation. Prioritize a capstone project you can explain clearly, a technical résumé, faculty relationships, career-fair participation, and internships or undergraduate research where available. Students interested in power or defense-related work should also understand that some positions have citizenship, background-check, or security-clearance conditions independent of degree accreditation.
When speaking with a program, ask which employers recruit electrical engineering students, whether internships earn academic credit, how often career services serve online learners, and whether the school publishes outcomes separately for electrical engineering rather than across all STEM programs.
Electrical engineering can lead to work in power generation and distribution, electronics design, embedded systems, communications, controls and automation, semiconductors, aerospace, medical devices, and testing. The right program should support the field you want to enter, since a power-focused curriculum and a microelectronics-focused curriculum may lead to different internship networks and technical portfolios.
The U.S. Bureau of Labor Statistics reported a May 2023 median annual wage of $109,010 for electrical engineers and projected 7% employment growth for electrical and electronics engineers from 2023 to 2033. The wage figure is a national median, not an entry-level salary or a promise of individual earnings. Pay varies substantially by industry, geography, experience, degree level, and specialized skills.
This overview connects common paths with the preparation that can help students choose electives and experiences deliberately.
| Career path | Typical work | Useful program preparation |
| Power systems engineer | Helps design, analyze, test, or maintain electrical generation, transmission, distribution, and protection systems | Power systems, machines, protection, controls, and utility-focused internships |
| Embedded systems engineer | Develops hardware-software systems for devices, products, and industrial equipment | Programming, microcontrollers, digital design, electronics, and debugging projects |
| Controls or automation engineer | Works with sensors, actuators, control logic, industrial processes, and automation systems | Control theory, instrumentation, programming, and systems integration labs |
| Communications or RF engineer | Works on wireless, networking, signal processing, antennas, or radio-frequency systems | Signals, communications, electromagnetics, RF labs, and simulation tools |
| Test or validation engineer | Develops test procedures, analyzes failures, and verifies product performance | Measurement labs, electronics, scripting, documentation, and quality-minded project work |
Automation and AI tools are changing engineering workflows by accelerating simulation, code assistance, documentation, and data analysis. They do not remove the need for engineers who can validate results, understand physical systems, meet safety constraints, and make accountable design decisions. For a broader comparison of earning potential across fields, review majors that make the most money alongside curriculum fit, debt level, and your aptitude for advanced mathematics and technical problem-solving.
How can you avoid diploma mills and misleading "accredited" electrical engineering programs?
Diploma mills and misleading programs often use legitimate-sounding language without providing verifiable evidence of institutional recognition, program accreditation, faculty qualifications, laboratory instruction, or academic standards. The word "accredited" alone is not enough; you need to know who granted the accreditation and what, exactly, was accredited.
Watch for these warning signs before submitting an application or payment. One sign alone may not prove misconduct, but several together justify pausing and independently verifying the school.
- Claims of accreditation without naming the accreditor or providing a way to verify the claim in an official directory
- Promises of an electrical engineering degree in an implausibly short timeframe without showing prerequisites, labs, assessments, and credit requirements
- Degrees awarded primarily for "life experience" with little documented faculty evaluation or supervised academic work
- Vague course descriptions, no published faculty credentials, and no clear physical or remote laboratory arrangements
- Pressure to enroll immediately, pay large upfront amounts, or avoid asking about transfer credits and refunds
- Claims that a program qualifies graduates for PE licensure everywhere without acknowledging state-specific rules
- Websites that blur the distinction between institutional accreditation, programmatic accreditation, certification, and membership in professional groups
A safer approach is to verify institutional recognition through official directories, verify the exact engineering program through ABET's database, read the academic catalog, and obtain written answers about location, lab requirements, tuition, refunds, transfer credit, and licensure alignment. If a school will not answer those questions clearly, choose a more transparent option.
Other Things You Should Know About Electrical Engineering
No. Some employers hire graduates from non-ABET programs, especially for certain private-sector technology roles. However, ABET EAC accreditation is often the lower-risk choice for students who may seek PE licensure, transfer to graduate engineering programs, or apply to employers that specify an accredited engineering degree.
Yes. A distance engineering program should hold the same programmatic accreditation as its campus version, most often ABET Engineering Accreditation Commission approval. Check the program listing in ABET’s directory and confirm the exact location or delivery format is named on the accredited program record.
Employers typically focus on the degree, institution, technical skills, projects, internships, and interview performance. An online format can be credible when the specific program is appropriately accredited, includes rigorous lab and design experiences, and gives you a strong technical portfolio.
Electrical engineering usually emphasizes mathematical analysis, design theory, and advanced engineering science. Electrical engineering technology generally emphasizes applied implementation and operation. Both can lead to technical careers, but their ABET commission, curriculum depth, graduate-school options, and PE licensure pathways may differ.
- What Is College Accreditation? How to Check If a School Is Legit https://abound.college/finishcollege/advice/accreditation-why-is-it-so-important/
- How to Check if a Graduate Program is Accredited (and Why This Matters) | ProFellow https://www.profellow.com/tips/how-to-check-if-a-graduate-program-is-accredited-and-why-this-matters/
- Credentials Evaluations | NCEES https://ncees.org/ncees-services/credentials-evaluations/
