2027 Electrical Engineering Degree Licensure Outcomes Report: Pass Rates, Barriers, and Career Impact
Co-Founder and Chief Data Scientist
Electrical engineering students often ask a practical question: will this degree actually support licensure, better jobs, and long-term mobility? The stakes are real because the U. S. Bureau of Labor Statistics reports a $118,780 median annual wage for electrical and electronics engineers and faster-than-average projected job growth. This report explains how degree accreditation, FE and PE exam outcomes, state rules, costs, delays, and employer expectations affect licensure. It is designed for prospective students, current engineering majors, career changers, and graduates deciding whether the professional engineer pathway is worth the investment.
Key Things You Should Know
- Licensure is not required for every electrical engineering job, but it is often important for roles involving public infrastructure, power systems, consulting, government contracts, responsible charge, or signing and sealing engineering documents.
- Pass-rate data should be read carefully: first-time FE or PE pass rates are not the same as overall pass rates, and NCEES reporting typically separates first-time examinees from repeat examinees because repeat attempts usually reflect different preparation and risk profiles.
- The licensure pathway commonly includes an ABET-accredited engineering degree, the FE exam, supervised engineering experience, the PE exam, and state board approval; direct exam fees alone commonly include a $225 FE exam and a $400 PE exam before state application, transcript, review, and renewal costs.
- Is Professional Licensure Required for Electrical Engineering Degree Careers?
- How Do Electrical Engineering Degree Graduates Qualify for Professional Licensure?
Is Professional Licensure Required for Electrical Engineering Degree Careers?
Professional licensure is required only for certain electrical engineering work, not for every job with "electrical engineer" in the title. In the United States, a licensed professional engineer, often called a PE, is a state-regulated engineer who can take legal responsibility for engineering work that affects public health, safety, and welfare.
For degree shoppers, the key question is not simply "Can I get an engineering job?" It is "Will this program keep the PE pathway open if I later need it?" That distinction matters because many graduates start in design, testing, manufacturing, software, electronics, semiconductors, telecommunications, automation, or defense roles where PE licensure may be optional, while others move into power delivery, building systems, energy infrastructure, consulting, or public-sector work where licensure can become a promotion requirement.
The table below summarizes where licensure is most likely to matter. Use it to match the degree pathway to the kind of work you actually want, rather than assuming that every electrical engineering graduate needs the same credential.
| Career setting | Is PE licensure commonly required? | What it means for degree choice |
| Power systems, utilities, substations, grid modernization, and energy consulting | Often important, especially for design approval or responsible charge | Prioritize ABET accreditation, strong power electives, and published FE preparation support |
| MEP building systems, electrical design consulting, and public infrastructure | Often required for advancement or signing and sealing work | Verify that the program supports FE eligibility in the state where you plan to work |
| Electronics, embedded systems, semiconductors, robotics, and product development | Sometimes useful but often not required | Compare licensure outcomes with labs, internships, design projects, and employer placement |
| Software, data, AI hardware, telecommunications, and systems engineering | Usually optional unless public safety engineering is involved | Licensure may be a secondary credential rather than the main ROI driver |
| Government, defense, transportation, and regulated infrastructure contractors | Varies by role and agency | Ask employers and state boards whether a PE is preferred, required, or only useful later |
A common mistake is assuming that graduation automatically equals licensure. A degree can qualify you academically, but the license normally requires passing exams, documenting experience, meeting state board rules, and maintaining the credential after approval.
How Do Electrical Engineering Degree Graduates Qualify for Professional Licensure?
The standard U.S. pathway for electrical engineering licensure is sequential: earn the right degree, pass the fundamentals exam, gain qualifying experience, pass the professional practice exam, and apply to a state board. Requirements vary by jurisdiction, but most state boards use this basic model.
The steps below show how graduates usually move from student status to full PE licensure. Each step creates a decision point that can affect time, cost, and eligibility.
- Choose an engineering program that meets your target state's education rules, with ABET EAC accreditation being the most widely accepted route for traditional electrical engineering degrees.
- Take the FE Electrical and Computer exam, often near graduation or shortly after graduation, because course material is still fresh and first-time test-taker reporting is easier to interpret.
- Apply for engineer intern or engineer-in-training status if your state uses that designation and requires a separate application after the FE exam.
- Complete supervised engineering experience, commonly under a licensed PE when the work must count toward professional licensure.
- Pass the PE Electrical and Computer exam in the discipline that matches your work, such as Power, Electronics Controls and Communications, or Computer Engineering, if offered and accepted by your board.
- Submit the state PE application, references, transcripts, experience records, exam results, fees, and any ethics or law requirements required by the licensing board.
The table below explains the main checkpoints in plain language. It is useful when comparing schools because a program that helps you complete the degree is not always the same as a program that helps you complete the licensure pathway.
| Licensure checkpoint | What the board is evaluating | Common risk for students |
| Education | Whether the degree meets engineering education standards | Enrolling in a program that is related to engineering technology or computing but does not meet the intended PE education rule |
| FE exam | Knowledge of fundamental engineering topics | Waiting too long after graduation and needing more review time |
| Experience | Progressive engineering responsibility under acceptable supervision | Working in a job that is technical but not clearly creditable for PE experience |
| PE exam | Ability to practice independently in a specific electrical engineering area | Selecting the wrong discipline or underestimating code, standards, and practice-based content |
| State application | Character, references, documentation, ethics, and legal eligibility | Incomplete records, weak experience descriptions, or unverified supervisors |
Students comparing engineering with other graduate pathways should be careful not to apply the same evaluation rules across fields. For example, PhD programs are usually evaluated by research fit, dissertation expectations, and academic career value, while electrical engineering licensure depends heavily on state rules, exam eligibility, and supervised engineering practice.
Electrical engineering licensure exam pass rates reveal how well candidates are prepared for standardized engineering exams, but they do not tell the whole story. A high pass rate can indicate strong academic preparation and exam support, while a low or missing pass rate may signal small cohorts, weak reporting, or students who delay testing until long after graduation.
The most important pass-rate distinction is first-time versus repeat-attempt performance. First-time pass rates are usually the cleaner comparison because they often reflect recent preparation and program alignment, while repeat-attempt pass rates reflect a more mixed group of candidates with different study histories, work demands, and prior exam gaps.
The table below explains the pass-rate terms students commonly see. Use these definitions before comparing programs, because two schools may appear similar while reporting different candidate groups.
| Metric | What it measures | How to use it |
| First-time FE pass rate | Share of first-time candidates who pass the FE exam during a reporting period | Best starting point for judging how well recent coursework supports licensure readiness |
| Overall FE pass rate | All passing candidates divided by all candidates, including repeat attempts if reported that way | Useful only if the school explains who is included and how repeat attempts are counted |
| First-time PE pass rate | Share of first-time PE candidates who pass after gaining experience | Helpful for judging professional readiness, but it is influenced by post-graduation employment and supervision |
| Repeat-attempt pass rate | Share of candidates who pass after one or more failed attempts | Shows remediation outcomes but should not be compared directly with first-time results |
| Cohort size | Number of exam takers included in the rate | Critical for interpretation because very small groups can make a pass rate look unusually high or low |
A strong outcomes report should show the reporting year, exam type, candidate definition, number of test takers, and whether results include only electrical engineering students or a broader engineering group. If a school advertises "excellent pass rates" without cohort size or reporting period, ask for the underlying data before relying on the claim.
Pass rates also need context. The FE exam is typically closer to the undergraduate curriculum, while the PE exam is practice-oriented and usually taken after several years of experience. That means a program may influence FE results directly through coursework and review sessions, but PE outcomes also depend on the graduate's employer, mentor, project exposure, and study discipline.
The most common barriers to electrical engineering licensure are not always academic failure. Many graduates are delayed by documentation problems, employer supervision issues, state-specific rules, cost, work schedules, or choosing a degree that does not match the intended licensing board's education pathway.
The table below summarizes barriers that frequently affect time, cost, and career access. Use it as a risk checklist before enrolling and again before applying for the FE or PE exam.
| Barrier | How it affects licensure | Why it matters for career planning |
| Non-ABET or unclear accreditation status | May trigger additional board review, extra experience requirements, or limited eligibility | Can delay PE licensure or reduce license portability |
| Delayed FE exam attempt | Requires more self-study because foundational coursework is less recent | May slow engineer-in-training status or early licensure planning |
| Weak exam preparation | Increases risk of retakes, additional fees, and lost time | Can postpone PE timeline if FE completion is required first |
| Experience not documented properly | Boards may reject vague, non-engineering, or poorly supervised work descriptions | Can add months if references must be corrected or replaced |
| Lack of PE supervision | Some work may not count fully if not performed under an acceptable licensed engineer | Important for graduates in manufacturing, software, defense, or private industry roles |
| State rule differences | Education, experience, ethics, and exam timing rules can vary | Can affect graduates who move, work remotely, or seek multi-state practice |
Students in online programs should be especially careful about state authorization and licensure disclosure language. Non-licensure degrees can be evaluated more flexibly; for example, an online masters in communications may be chosen for advancement, writing, media, or organizational communication goals, while an electrical engineering degree must be checked against state engineering board rules if the PE pathway matters.
Another common mistake is focusing only on pass rates while ignoring completion and attrition. A school can report strong exam results among the students who reach the exam while still having high course withdrawal rates, limited advising, or few students pursuing licensure. Ask how many students start the program, complete it, sit for the FE exam, pass on the first attempt, and continue toward PE eligibility.
Good exam preparation begins before the final semester. Electrical engineering students who want licensure should treat the FE exam as a planned milestone, not as an optional test to think about after graduation.
The steps below are practical ways to reduce exam and retake risk. They are especially useful for students who work full time, study online, transfer credits, or return to school after a break.
- Map required courses to FE Electrical and Computer content early, including circuits, electronics, power, signals, controls, math, probability, engineering economics, ethics, and computer systems topics.
- Plan the FE exam date while core material is still recent, often during the final year or soon after graduation if your state allows it.
- Use official exam specifications to identify weak topics instead of studying only the subjects you already like.
- Complete timed practice sessions because exam speed, calculator familiarity, and question interpretation can affect performance as much as content knowledge.
- Ask the department whether it provides FE review courses, practice exams, tutoring, faculty office hours, or student study groups.
- If you fail an exam, request a diagnostic review if available, rebuild your study plan by topic area, and retake only after addressing the weakest content areas.
Retakes are manageable, but they have opportunity costs. Besides the exam fee, students may lose time, delay applications, or postpone eligibility for roles that prefer engineer-in-training status. The right response is not panic; it is structured remediation focused on the topics and test conditions that caused the failure.
For PE preparation, the strategy changes. Candidates need to connect exam topics with professional practice, codes, standards, design decisions, and engineering judgment. Graduates should choose jobs and mentors that expose them to the PE discipline they eventually plan to test in, especially if they are targeting power, building systems, or consulting roles.
Electrical engineering licensure is issued by state boards, so requirements can vary even when the exams are nationally recognized. This affects students who attend school in one state, work in another, complete an online program, move after graduation, or plan to serve clients in multiple states.
Reciprocity is often discussed in engineering, but the more precise term is comity or licensure by endorsement. It generally means a licensed PE in one jurisdiction applies to another jurisdiction based on an existing license, exam history, education, and experience. It is not automatic, and the second board can still require documentation, fees, ethics exams, or additional review.
Before choosing a program or moving states, students should verify the following items with the licensing board rather than relying only on admissions language.
- Whether the exact degree title and accreditation status meet the board's education requirement for FE and PE eligibility.
- Whether the board allows students to take the FE exam before graduation or requires degree completion first.
- How much qualifying experience is required and whether it must be supervised by a licensed PE.
- Whether experience gained in another state, remote role, military setting, federal agency, or private company will be accepted.
- Whether the state requires a law, ethics, or rules exam in addition to NCEES exams.
- How the board treats engineering technology, foreign degrees, transfer-heavy records, or nontraditional online programs.
State differences matter for ROI because a program that is acceptable in one jurisdiction may require extra steps in another. If you know where you want to live or practice, start with that state's rules; if you expect to move, choose the most portable route you can reasonably afford.
The licensure timeline usually extends beyond the degree. A traditional bachelor's degree in electrical engineering commonly takes about four years of full-time study, while PE licensure typically requires additional qualifying experience after graduation. The total timeline depends on state rules, exam timing, employment setting, and how quickly the candidate documents experience.
The cost of licensure is also separate from tuition. Exam fees are only one part of the budget, and students should plan for applications, transcripts, study materials, travel if needed, renewals, and retakes.
The table below outlines common cost and time components. Use it to build a realistic budget instead of comparing degree tuition alone.
| Item | Typical role in the pathway | Cost or time consideration |
| Electrical engineering degree | Academic foundation for FE eligibility and later PE pathway | Usually the largest cost; compare tuition, fees, labs, transfer credit limits, and time to completion |
| FE exam | Fundamentals exam often taken near graduation | NCEES exam fee is commonly $225, with possible state-related costs |
| Engineer intern application | State recognition after passing the FE in many jurisdictions | May require application fees, transcripts, and processing time |
| Qualifying experience | Supervised engineering work before PE eligibility | Often measured in years; quality of supervision can affect approval |
| PE exam | Professional practice exam in a selected electrical engineering discipline | NCEES exam fee is commonly $400, before board fees or study materials |
| PE application and renewal | State approval and ongoing license maintenance | May include board fees, references, ethics requirements, and continuing education |
Students should also price the cost of delay. A failed exam, missing transcript, unqualified supervisor, or non-accepted degree can add months or years to the pathway. That delay may affect eligibility for promotions, consulting roles, or responsible-charge work even if the graduate remains employed in an engineering-related position.
To estimate the full investment, compare three numbers: total degree cost after aid, expected time to licensure under your state's rules, and the career value of PE eligibility in your intended field. For power systems, consulting, public infrastructure, and MEP design, the credential may have a stronger career impact than in software-heavy or product-focused roles.
Licensure can affect pay, employment, and advancement, but its value depends on the electrical engineering specialty. The BLS median wage for electrical and electronics engineers is $118,780, which provides useful market context, but it does not isolate the effect of PE licensure. In practice, the PE credential tends to matter most where engineers approve designs, lead public-facing projects, supervise engineering work, or compete for consulting and government contracts.
The table below compares how licensed and unlicensed pathways often differ. It should not be read as a salary guarantee; instead, use it to identify where licensure may expand access or improve advancement potential.
| Outcome factor | Licensed PE pathway | Unlicensed electrical engineering pathway |
| Job eligibility | Can qualify for roles requiring responsible charge, stamped drawings, or regulated engineering approval | Can qualify for many design, testing, manufacturing, software, electronics, and systems roles that do not require sealing work |
| Advancement | Often helpful for senior engineer, project engineer, principal engineer, consultant, or engineering manager tracks in regulated fields | Advancement may depend more on technical specialization, patents, product delivery, management, or security clearance |
| Mobility | Can improve portability for consulting and multi-state work when comity requirements are met | Mobility depends more on employer demand, technical stack, experience, and degree reputation |
| Entrepreneurship | Important for independent consulting where engineering services must be offered to the public | May be sufficient for product startups, software ventures, or technical services that do not require licensed engineering practice |
| Risk and responsibility | Higher legal and ethical responsibility for public safety work | Responsibility can still be high, but legal authority to practice regulated engineering may be limited |
Licensure is not the only route to leadership. Some engineers pair technical experience with management training, and others move into operations, product strategy, or executive roles. For readers weighing engineering licensure against business leadership preparation, executive MBA programs online can offer a different form of career leverage, especially for professionals who want broader management responsibilities rather than authority to sign engineering work.
The best ROI case for PE licensure occurs when your target role explicitly values it. Before investing in exam preparation and supervised experience, review job postings, talk with licensed engineers in your specialty, and ask employers whether PE status affects promotion, project leadership, billing rates, or eligibility for senior roles.
Electrical engineering graduates can build strong careers without a PE license, especially in industries where products, systems, software, electronics, or research are the main focus rather than public engineering approval. The degree can still be valuable because it develops quantitative reasoning, design judgment, systems thinking, programming, electronics knowledge, and problem-solving skills.
Common non-licensed career options include roles in embedded systems, semiconductor design, robotics, automation, renewable energy product development, telecommunications, test engineering, systems engineering, data centers, software engineering, technical sales, product management, and engineering operations. These roles may still require strong technical evidence through projects, internships, portfolios, security clearance, certifications, or graduate coursework.
The table below shows how several non-licensed paths differ from the PE track. Use it to decide whether licensure is essential, optional, or unnecessary for your intended career.
| Career path | PE license importance | What employers may value instead |
| Embedded systems engineer | Usually optional | C programming, microcontrollers, real-time systems, hardware debugging, and project experience |
| Semiconductor or electronics design engineer | Usually optional | Circuit design, simulation tools, lab skills, fabrication knowledge, and device physics |
| Power electronics engineer | Sometimes useful, depending on application | Converters, motor drives, controls, thermal design, testing, and standards knowledge |
| Technical product manager | Usually not required | Engineering background, market analysis, communication, roadmap planning, and cross-functional leadership |
| Systems engineer in defense or aerospace | Varies by employer | Systems architecture, requirements management, modeling, documentation, and sometimes security clearance |
Some graduates also move into communication-heavy technical roles, such as documentation, policy, training, marketing, or stakeholder engagement. In those cases, an online masters in communications may complement engineering experience better than a PE license if the goal is technical communication rather than regulated engineering practice.
Students should avoid the false choice of "licensed equals successful" and "unlicensed equals limited." The better question is whether your target job market rewards PE authority, deep technical specialization, business leadership, communication skill, or another credential. The right degree decision starts with the role you want, then works backward to the accreditation, exams, internships, and experience that support it.
Accreditation is one of the strongest predictors of whether an electrical engineering degree will support a straightforward licensure path. In most states, an ABET Engineering Accreditation Commission degree is the clearest academic route because it signals that the program has met recognized standards in math, science, engineering design, faculty qualifications, assessment, and continuous improvement.
Program quality affects licensure outcomes in practical ways. Students need enough calculus, physics, circuits, signals, electronics, controls, power, labs, design work, and engineering ethics to pass exams and perform in supervised engineering roles. A lower-cost program can still be a strong choice, but only if it meets licensure eligibility and provides enough academic depth.
The table below highlights quality factors that are especially relevant to licensure. These are the details to verify before comparing tuition or delivery format.
| Program factor | Why it affects licensure outcomes | What to ask the school |
| ABET EAC accreditation | Often simplifies education eligibility for FE, PE, and comity applications | Is the exact electrical engineering degree accredited, and since what year? |
| Electrical engineering curriculum depth | Supports FE subject coverage and later PE specialization | Which courses map to FE Electrical and Computer exam topics? |
| Labs and design projects | Builds practical competence that can support employment and supervised experience | How are remote labs, in-person labs, or lab intensives handled? |
| Faculty and advising | Helps students plan electives, exam timing, internships, and licensure documentation | Who advises students specifically on FE and PE pathways? |
| Published outcomes | Improves transparency around completion, exam readiness, and career fit | Are FE pass rates, graduation rates, and placement outcomes published by cohort? |
Online and hybrid engineering degrees can support licensure when they meet the same accreditation and state eligibility requirements as campus programs. The format itself is less important than whether the exact degree is board-acceptable, includes required labs, and gives students access to engineering design experiences. By contrast, a photography degree online may be judged mainly by portfolio, creative development, and software skills, while electrical engineering licensure depends on regulated education standards and exam eligibility.
One red flag is a program that uses broad language such as "engineering-related" without clearly stating whether it is an ABET-accredited electrical engineering degree. Engineering technology, applied engineering, electronics technology, and computer engineering programs may be valuable, but they can lead to different licensure rules depending on the state.
Other Things You Should Know About Electrical Engineering
No. Many electrical engineering graduates work in electronics, software, manufacturing, telecommunications, automation, semiconductors, and product development without a PE license. Licensure is more important for public infrastructure, consulting, power systems, MEP design, and roles involving signed engineering documents.
The FE exam is an early fundamentals exam often taken near graduation. Becoming a PE usually requires the FE exam, qualifying engineering experience, the PE exam, and state board approval. Passing the FE alone does not make someone a licensed professional engineer.
Compare first-time pass rates separately from overall or repeat-attempt rates. Also ask for the reporting year, cohort size, exam type, and whether the data includes only electrical engineering students. A pass rate without these details is hard to interpret.
It can be, but only if the exact program meets the licensing board's education requirements. The most important factors are accreditation, lab and design requirements, state eligibility, and whether the degree is recognized by the board where you plan to seek licensure.
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