2027 Software Engineering Degree Licensure Outcomes Report: Pass Rates, Barriers, and Career Impact
A software engineering degree can lead to high-paying work, but it does not automatically lead to professional licensure. That distinction matters for students aiming at safety-critical systems, government contracting, consulting, or public-facing engineering work. The U. S. Bureau of Labor Statistics projects 17% growth for software developers, quality assurance analysts, and testers, but most of these jobs do not require a PE license. This report explains licensure eligibility, pass-rate data limits, common barriers, costs, timelines, and career impact so readers can judge whether a degree supports their target career.
Key Things You Should Know
- Software engineering licensure is specialized: most U.S. software jobs do not require a Professional Engineer license, but licensure can matter for regulated, public-safety, consulting, defense, infrastructure, or systems engineering roles.
- National software-specific PE pass-rate tracking is limited because the NCEES PE Software Engineering exam was discontinued after April 2019; applicants now need to verify which FE or PE exam their state board will accept.
- The biggest licensure barriers are not only exam failure; they also include ABET program status, state eligibility rules, experience documentation, retake costs, ethics requirements, and delays when moving across states.
- Key Things You Should Know
- Is Professional Licensure Required for Software Engineering Degree Careers?
- How Do Software Engineering Degree Graduates Qualify for Professional Licensure?
- What Do Software Engineering Licensure Exam Pass Rates Reveal About Graduate Outcomes?
- What Barriers Most Often Prevent Software Engineering Graduates From Becoming Licensed?
- How Can Software Engineering Students Prepare for Licensing Exams, Retakes, and Remediation?
- How Do State Requirements and Reciprocity Affect Software Engineering Licensure?
- How Much Does Software Engineering Licensure Cost, and How Long Does It Take?
- How Does Licensure Affect Pay, Employment, and Advancement for Software Engineering Graduates?
- What Career Options Exist for Software Engineering Graduates Without a Professional License?
- Top Trending Software Engineering Rankings
Is Professional Licensure Required for Software Engineering Degree Careers?
Professional licensure is not required for the majority of software engineering degree careers. Many graduates work as software developers, QA engineers, DevOps engineers, cybersecurity analysts, systems analysts, data engineers, product engineers, or technical project leads without ever becoming licensed.
Licensure becomes more relevant when a software engineer offers engineering services to the public, signs or seals engineering documents, works on systems where failure can endanger people, or practices in a state and role where "engineering" work is legally regulated. In those cases, the credential is usually the Professional Engineer, often shortened to PE.
The table below separates common software engineering career directions by how likely a PE license is to matter. This helps students avoid overvaluing licensure for jobs that rarely require it, while still recognizing the situations where it can create access.
| Career direction | Is PE licensure commonly required? | What the degree outcome means |
| Software development and application engineering | Usually no | Employers typically prioritize programming ability, portfolio evidence, internships, systems knowledge, and experience. |
| Quality assurance, testing, DevOps, and cloud engineering | Usually no | Licensure is rarely a hiring filter, though certifications and hands-on platform skills may matter. |
| Embedded systems, aerospace, transportation, medical device, and critical infrastructure software | Sometimes | Licensure may strengthen credibility when software is part of a regulated engineering system. |
| Engineering consulting or public-sector engineering work | More likely | A PE license may be necessary to offer services, approve work, or advance into responsible charge roles. |
| Academic research, doctoral study, or advanced R&D | Usually no | Graduate education and research output usually matter more than PE status. |
The practical takeaway is simple: licensure should be evaluated against the job you actually want. If your goal is mainstream software development, a strong curriculum, internships, and employer placement outcomes may matter more than PE eligibility. If your goal involves engineering authority, public safety, or regulated systems, licensure eligibility becomes a much larger part of program value.
How Do Software Engineering Degree Graduates Qualify for Professional Licensure?
Software engineering graduates usually qualify for professional licensure through the same broad engineering pathway used in other engineering fields, but state boards decide the exact rules. A typical pathway includes an accredited engineering degree, the Fundamentals of Engineering exam, supervised engineering experience, and a Principles and Practice of Engineering exam accepted by the state.
Students should understand the sequence before enrolling because graduation and licensure are separate outcomes. The usual process looks like this:
- Earn a qualifying engineering degree, ideally from an ABET-accredited software engineering, computer engineering, electrical engineering, or closely related engineering program accepted by the state board.
- Pass the Fundamentals of Engineering exam if the state requires it or if it is the preferred route to engineer-in-training status.
- Document qualifying supervised engineering experience, often under a licensed PE, with duties that match the state's definition of engineering practice.
- Pass an accepted PE exam, recognizing that a software-specific PE exam is no longer offered nationally and that the acceptable alternative may vary by board.
- Complete state-specific requirements such as references, ethics rules, law exams, background questions, fees, and continuing education after licensure.
One common mistake is assuming that any "software engineering" degree automatically qualifies a graduate for engineering licensure. Program title alone is not enough. Students should ask whether the exact program, delivery format, and catalog year are ABET-accredited and whether graduates have been accepted by the licensing board in the state where the student wants to practice.
Online programs require the same level of checking. An online degree can support licensure if it is the same board-acceptable accredited program, but a non-accredited online program may create eligibility problems. This is similar to how applicants in other regulated fields must verify state authorization and licensure fit before enrolling in LMFT programs.

What Do Software Engineering Licensure Exam Pass Rates Reveal About Graduate Outcomes?
Software engineering licensure exam pass rates are harder to interpret than pass rates in fields with a single required national exam. The main reason is that the dedicated PE Software Engineering exam was discontinued after April 2019, so there is no current national software-specific PE exam pass-rate series for new candidates.
That does not make pass-rate analysis useless. It means students must read available exam data carefully and ask schools and boards what test population the numbers describe. First-time pass rates show how well prepared new candidates may be on their first attempt, while repeat-attempt or overall rates can be lower or higher depending on how many retakers are included.
The table below explains the main pass-rate terms students will see and how to use them when judging a program. The goal is to prevent misleading comparisons between programs, exams, or reporting years.
| Metric | What it means | How to use it |
| First-time pass rate | The share of candidates who pass on their first attempt. | Best for judging initial academic and exam preparation, especially when cohort size is disclosed. |
| Repeat-attempt pass rate | The share of candidates who pass after one or more prior failures. | Useful for understanding remediation support, but it should not be mixed with first-time results. |
| Overall pass rate | A combined result that may include first-time and repeat candidates. | Convenient but less precise; always ask what candidate types are included. |
| Program-reported pass rate | A school's reported result for its own graduates or exam takers. | Helpful only if the school discloses the year, exam, cohort size, and whether non-reporting graduates are excluded. |
| National exam pass rate | A testing organization's result across candidates taking a specific exam. | Good context, but it may not reflect software engineering graduates if they take different FE or PE exams. |
When a school advertises strong licensure outcomes, ask for the underlying details. A 90% first-time pass rate from 10 candidates tells a different story than an 80% pass rate from 100 candidates. Also ask whether the rate includes only graduates who reached the exam stage; a high pass rate may hide weak degree completion, low exam participation, or advising that steers weaker candidates away from testing.
How Do Accreditation and Program Quality Affect Software Engineering Licensure Outcomes?
Accreditation is one of the most important program-quality factors for students who may want engineering licensure. In engineering, ABET accreditation is often the strongest signal that a program meets recognized standards in math, science, engineering design, faculty qualifications, assessment, and continuous improvement.
For software engineering students, accreditation matters because state boards may treat ABET-accredited engineering degrees differently from non-accredited computing, information technology, or general software development degrees. A non-accredited program can still lead to excellent software jobs, but it may create extra licensure review, additional education requirements, or denial of eligibility depending on the state.
The table below compares program characteristics that commonly affect licensure outcomes. It is designed to help students look beyond marketing language and focus on evidence that a degree supports the licensing pathway.
| Program factor | Why it affects licensure outcomes | What students should verify |
| ABET accreditation | State boards often use it as a benchmark for engineering education quality. | Confirm the exact program name, campus or online format, and accreditation dates. |
| Engineering curriculum depth | Licensure pathways usually expect engineering science, design, mathematics, and professional practice, not only coding. | Review required courses in calculus, discrete math, probability, systems, design, ethics, and engineering practice. |
| Faculty and advising support | Students need accurate guidance on FE timing, state eligibility, experience records, and exam selection. | Ask whether the department has a dedicated licensure advisor or engineering board contact. |
| Internship and co-op access | Relevant supervised experience may help later documentation for licensure. | Ask what share of students complete engineering-related internships and whether employers include regulated industries. |
| Outcome transparency | Graduation rates, job placement context, and exam participation give a fuller view than pass rates alone. | Request pass-rate methodology, cohort size, completion data, and graduate destinations. |
Online versus campus delivery is not the deciding factor by itself. A well-supported online ABET-accredited engineering program may be more useful for licensure than an on-campus program without the right accreditation or advising. The key is whether the program is recognized by the relevant licensing board and whether it helps students build the experience and documentation they will need later.
What Barriers Most Often Prevent Software Engineering Graduates From Becoming Licensed?
The most common barriers to software engineering licensure occur before, during, and after the exam process. Some students discover too late that their degree is not board-preferred, while others struggle to document qualifying experience because their job title is "software developer" rather than "engineer" or because they did not work under a licensed PE.
These barriers matter because they can add time, cost, uncertainty, or a need to change employers. Students should evaluate them before choosing a program, not after graduation.
- Program eligibility barrier: the degree may not be ABET-accredited or may be classified as computing rather than engineering by a state board.
- Exam-selection barrier: because the PE Software Engineering exam is discontinued, candidates may need board approval to take a related exam such as computer engineering or another accepted discipline.
- Experience-documentation barrier: software work may not count if it is not considered engineering practice under state rules or is not supervised by an acceptable licensee.
- Retake barrier: failed FE or PE attempts add fees, study time, and months of delay, especially when exam windows or board approvals are limited.
- Mobility barrier: a license in one state does not automatically authorize practice in another state, even when comity is available.
- Employer-support barrier: many software employers do not have licensed engineers on staff, making references and supervised experience harder to document.
A major red flag is a program that promotes "licensure-ready" outcomes without naming the states where graduates have qualified, the exams they took, and the number of candidates included in the results. Another red flag is an admissions answer that treats licensure as automatic. A more trustworthy program will explain uncertainty, state variation, and the difference between academic preparation and board approval.

How Can Software Engineering Students Prepare for Licensing Exams, Retakes, and Remediation?
Students who want licensure should prepare early because the pathway is cumulative. The strongest candidates do not wait until graduation to learn board rules; they align coursework, exam timing, internships, and documentation from the beginning.
A practical preparation plan should include both exam readiness and eligibility protection. These steps can reduce avoidable delays:
- Identify the state board where you plan to seek initial licensure and read its education, exam, and experience rules before enrolling.
- Verify ABET accreditation for the exact degree program and delivery format, not just the institution.
- Ask which FE exam recent graduates have taken and whether the department recommends taking it before or soon after graduation.
- Keep syllabi, course descriptions, transcripts, internship records, supervisor names, and project descriptions in case the board requests documentation.
- Seek internships or early jobs in regulated, safety-critical, infrastructure, aerospace, defense, medical, transportation, or consulting environments if PE licensure is part of your plan.
- Build a retake budget and study calendar so a failed exam attempt delays progress but does not derail the pathway.
- Use diagnostic exam reports after any failed attempt to target weak subjects rather than repeating the same study approach.
Retake planning is especially important because repeat attempts can affect both morale and timeline. A failed exam does not mean the degree was a poor investment, but repeated failures without remediation may indicate gaps in fundamentals, exam strategy, or alignment between the candidate's program and the chosen exam.
Students should also ask schools for concrete supports. Good questions include whether faculty advise students on FE exam timing, whether review courses are available, whether alumni have pursued PE licensure, and how the program tracks licensure-related outcomes separately from general software employment.
How Do State Requirements and Reciprocity Affect Software Engineering Licensure?
State requirements are a central reason software engineering licensure outcomes vary. Engineering licensure is regulated by state boards, so an education pathway accepted in one state may require extra review in another. Reciprocity, often called comity, can make mobility easier after initial licensure, but it is not automatic approval.
Students who may move after graduation should check portability before committing to a program. The table below shows the state-level factors most likely to affect software engineering graduates.
| State-level factor | Why it matters | Risk for software engineering graduates |
| Accepted degree types | Boards may distinguish engineering degrees from computer science, IT, or software development degrees. | A graduate may need additional education review or may not qualify through the standard route. |
| Accepted PE exam discipline | The software-specific PE exam is no longer available. | Candidates may need approval for a related exam, and board interpretations can differ. |
| Experience rules | Boards define qualifying engineering experience differently. | Software work may be questioned if it lacks engineering design responsibility or licensed supervision. |
| Ethics or law exam | Some states require state-specific professional practice testing. | Applicants may face additional steps even after passing national exams. |
| Comity requirements | Licensed engineers moving states usually apply through a separate process. | Missing records, nonstandard education, or unclear experience can slow mobility. |
The safest approach is to plan for the strictest state where you might practice, not only the easiest initial option. This is especially important for students considering remote work, federal contracting, or multi-state consulting because the location of the client, project, or engineering responsibility may affect licensing expectations.
State-specific licensure research is not unique to engineering. Students comparing regulated careers should make the same habit across fields, whether they are evaluating software engineering boards or online LMFT programs with state-by-state clinical requirements.
How Much Does Software Engineering Licensure Cost, and How Long Does It Take?
Software engineering licensure costs are usually modest compared with tuition, but the timeline can be long because supervised experience often takes years after graduation. The main financial risk is not only exam fees; it is delayed eligibility, retesting, extra coursework, or changing jobs to obtain qualifying experience.
The table below summarizes common cost and time components. Exact fees vary by state, testing body, and employer support, so students should treat these as planning categories rather than guaranteed totals.
| Cost or time component | Typical role in the pathway | What to watch |
| Bachelor's degree | Usually the academic foundation for the standard engineering licensure route. | Tuition varies widely, and lower cost is less useful if the program does not meet board expectations. |
| FE exam | Often used to begin the engineer-in-training path. | The NCEES FE exam fee is commonly listed at $175, but state-related costs may differ. |
| PE exam | Usually required for full PE licensure. | The NCEES PE exam fee is commonly listed at $375, with additional board application or license fees possible. |
| State application and license fees | Required for review, approval, and license issuance. | Fees vary by state and may repeat for renewal. |
| Exam preparation | May include review courses, practice exams, books, or tutoring. | Employer reimbursement can significantly change out-of-pocket cost. |
| Supervised experience | Often takes several years and must meet board definitions. | The largest opportunity cost may be choosing jobs that support licensure rather than higher-paying non-licensed software roles. |
For many students, the degree takes about four years and the licensure pathway may extend several years beyond graduation because experience must be earned and documented. Transfer credits can reduce degree time, but students should confirm that transferred technical courses still satisfy ABET program requirements and board expectations.
Students considering advanced study should separate licensure ROI from graduate-degree ROI. A research doctorate may support academic or advanced R&D goals, while licensure supports regulated engineering practice; those are different investments. If comparing doctoral timelines, resources on the easiest doctorate to get can help frame time-to-completion questions, but it should not be treated as a substitute for PE eligibility.
How Does Licensure Affect Pay, Employment, and Advancement for Software Engineering Graduates?
Licensure can improve career access in specific software engineering niches, but it should not be oversold as a universal salary booster. The broader software labor market already pays well without licensure: the BLS reported a median annual wage of $133,080 for software developers in May 2024. That figure shows why many graduates choose direct employment over the longer PE route.
The career impact of licensure is strongest when the credential unlocks responsibilities that unlicensed employees cannot perform. These may include responsible charge, engineering sign-off, consulting authority, public-sector eligibility, leadership in regulated systems, or credibility in multidisciplinary engineering teams.
The table below compares licensed and non-licensed outcomes in practical terms. It can help students decide whether the PE pathway is likely to support their intended return on investment.
| Outcome area | Licensed software engineering path | Non-licensed software career path |
| Job access | Can help for regulated engineering, consulting, government, infrastructure, and safety-critical systems roles. | Fits most software development, cloud, data, QA, cybersecurity, and product engineering roles. |
| Advancement | May support engineering authority, responsible charge, or senior roles in licensed engineering organizations. | Advancement usually depends on technical depth, architecture skills, product impact, leadership, and business results. |
| Pay impact | Potentially valuable when licensure is required for higher-responsibility engineering work. | Can still lead to strong compensation, especially in specialized technical and high-demand industries. |
| Mobility | May improve professional credibility but requires state-by-state licensing compliance. | Often more flexible across employers and remote roles, though market competition can be intense. |
| Best fit | Students targeting public safety, infrastructure, engineering consulting, or regulated systems. | Students targeting mainstream software, startups, platforms, enterprise systems, or technical product work. |
AI and automation are also changing the ROI calculation. As coding tools improve, employers may place more value on systems thinking, verification, security, architecture, and accountability. Licensure is one way to signal professional responsibility in certain engineering settings, but it is not the only path to advancement.
Some software engineers move into management instead of licensure. For those comparing technical leadership with business leadership, an AACSB online MBA may be relevant, especially when the target role is product strategy, operations, entrepreneurship, or executive management rather than regulated engineering practice.
What Career Options Exist for Software Engineering Graduates Without a Professional License?
Software engineering graduates have many strong career options without a professional license. In fact, most software roles are built around demonstrated ability, experience, systems knowledge, collaboration, and problem-solving rather than PE status.
These non-licensed paths can be a better fit when the student wants faster workforce entry, broader remote opportunities, or roles in companies that do not perform regulated engineering services. Common options include:
- Software developer or software engineer in web, mobile, enterprise, or platform development.
- DevOps, site reliability, or cloud engineer focused on deployment, scalability, automation, and infrastructure.
- Quality assurance engineer, test automation engineer, or software development engineer in test.
- Cybersecurity analyst or security engineer working on secure systems, threat detection, or application security.
- Data engineer, machine learning engineer, or analytics engineer building data pipelines and production models.
- Embedded systems developer in organizations where engineering licensure is not required for the specific role.
- Technical product manager, solutions architect, developer advocate, or engineering operations specialist.
The main risk of skipping licensure is not lower employability overall; it is reduced access to roles where a PE is legally or contractually expected. Students should decide based on target employers, not general prestige. If job postings in the desired niche rarely mention PE licensure, then portfolio strength, internships, certifications, and interview readiness may produce a better near-term return.
Graduate business education is another alternative for software professionals who want leadership without the PE pathway. Students who need accessible management options may compare the easiest MBA program to get into, but they should still evaluate accreditation, cost, career services, and employer relevance rather than choosing only by admissions convenience.
Other Things You Should Know About Software Engineering
Usually no. Most software development, QA, cloud, data, and cybersecurity jobs do not require PE licensure. A license is more relevant for public-facing engineering services, regulated systems, safety-critical infrastructure, consulting, or roles requiring engineering sign-off.
No dedicated national PE Software Engineering exam is currently offered. The exam was discontinued after April 2019, so candidates must ask their state board which related PE exam, if any, is acceptable for their licensure goal.
No. ABET accreditation can strongly support eligibility, but state boards still control education approval, exam acceptance, experience requirements, references, ethics rules, and final licensure decisions.
It can be worth it for students targeting regulated engineering, consulting, government, infrastructure, aerospace, medical, transportation, or safety-critical systems. For mainstream software jobs, the better investment may be internships, technical projects, interview preparation, and specialized skills.
Top Trending Software Engineering Rankings
References
- Declining Pass Rates: It’s Not the Test, It’s the Candidates https://www.credentialinginsights.org/Article/declining-pass-rates-its-not-the-test-its-the-candidates
- Is a Software Engineering Degree Worth It? ROI, Jobs & Career Demand https://www.gisma.com/blog/is-a-software-engineering-degree-worth-it-assessing-roi-and-job-market-demand
- It's Time to License Software Engineering https://www.slater.dev/2025/09/its-time-to-license-software-engineering/
- 10 best countries for software engineers – Highest paying countries https://www.instarem.com/blog/best-countries-for-software-engineers/
- Software Engineers Face Hiring Challenges https://www.pennyforward.com/software-engineers-face-hiring-challenges/
- Software Engineering Degree Career Outcomes: Jobs, Salaries & Growth https://hakia.com/degrees/software-engineering/career-outcomes/