STEM vs. Non-STEM Degrees (College ROI Guide)
STEM degrees often lead to strong earnings in some fields, but the label alone does not predict return on investment. Compare specific majors and careers by net price, time to finish, completion rates, debt, and employment outcomes. A lower-cost non-STEM program may be the better choice when it fits your strengths and leads to a clear career path.
Many families say the same thing: “We know STEM can pay well, but how do we know the extra cost is worth it?” That is the right question. A major’s financial value depends on more than its category. The school, the student’s chance of graduating, the career they pursue, and the debt they take on can all change the result.
I compare programs by the likely path from enrollment to work, not by broad labels. The goal is not to prove that STEM or non-STEM is better. It is to find a degree that fits your abilities, career plans, and budget without relying on promises that the available data cannot support.
Admissions and Program Overview: Comparing STEM and Non-STEM Options
A fair comparison starts with a specific major at a specific school. “STEM” covers very different fields, while non-STEM includes fields with varied costs and career paths. Before comparing earnings, check whether you can enter the program, meet its prerequisites, finish on time, and access the career or credential you want.
STEM commonly includes science, technology, engineering, and mathematics, but definitions can differ across agencies and schools. Non-STEM is a broad label for other fields, not a single career track. A computer science major and a biology major may face different course demands and job markets; the same is true of a history major and a nursing major.
There is no national GPA or test-score cutoff for undergraduate admission. Check each school’s published admission profile, required high school or college courses, and current testing policy. Common Data Set reports and official admissions pages can help you understand the applicant pool, but reported ranges do not guarantee admission.
Next, confirm that the institution is accredited by a recognized U.S. institutional accreditor. The U.S. Department of Education’s accreditation database is a primary check; the Council for Higher Education Accreditation directory is another resource. Some careers also call for program-specific accreditation or approval. For example, ABET accredits certain engineering and computing programs. Requirements depend on the program, employer, profession, and state.
| What to compare | Questions to ask |
|---|---|
| Admission and preparation | Are math, lab science, or other courses required before entry? Are there minimum grades in prerequisites? |
| Accreditation | Is the institution recognized? Does the career or state require program-level approval? |
| Net price | What will the school cost after grants and scholarships, based on its net price calculator? |
| Completion path | Can required courses be taken in sequence, and are they offered often enough to finish on schedule? |
| Career target | What jobs do graduates pursue, and what credentials or further study do those jobs require? |
Use the FAFSA and any required school aid forms by their deadlines. Review grant and scholarship renewal rules, including GPA and credit-load requirements. A financial aid offer is not the same as a four-year cost estimate: repeat the net-price review for each year, and ask how aid may change.
Degree Curriculum, Prerequisites, and Graduation Requirements
Curriculum affects both fit and cost. A bachelor’s degree commonly requires about 120 semester credits, or the quarter-credit equivalent, but total requirements, general education, residency rules, and transfer limits vary by institution. Compare the actual course map, not just the number of credits shown on a program page.
STEM programs often require a sequence of math, lab science, or technical courses. If you miss a prerequisite or a course fills up, later classes may have to wait. Non-STEM programs also have sequences, internships, studio work, clinical requirements, language study, or capstones in some fields. The catalog and department adviser can confirm what applies to the program you want.
For transfer applicants, request an official credit evaluation before enrolling. Do not rely on a general transfer guide or a verbal assurance that credits “should count.” Ask which credits apply to the major, which count only as electives, and which do not transfer. Then request a term-by-term completion plan. Lost credits can add tuition and delay the start of full-time earnings.
Compare total cost, not just tuition
Net price is the cost of attendance after grants and scholarships. It may include tuition, fees, housing, food, books, and other listed costs, but estimates depend on the student and school. Use each institution’s net price calculator and ask about costs that may not fit your circumstances, such as travel or required equipment.
Build a realistic total-cost estimate:
- Add expected net price for each year, including likely fee changes.
- Include extra terms if the course map or transfer evaluation suggests they may be needed.
- Subtract grants and scholarships, but do not treat loans as discounts.
- Check whether paid internships, work-study, or part-time work are available without assuming they are guaranteed.
- Compare the likely debt at graduation with expected earnings in the occupation you are considering.
A lower sticker price does not always mean a lower total cost. A program can cost more if credits fail to transfer or required courses delay graduation. Conversely, a higher-priced school may offer enough grant aid to reduce its net price. Compare written cost estimates and completion plans side by side.
Academic Success, Support Services, and Student Experience
A degree’s value depends partly on whether you can complete it. Completion data can help you assess risk, but school-wide rates do not tell you exactly what will happen to one student. Look at program-specific information when available, and ask how the institution supports students who need help with prerequisites, advising, or course sequencing.
Compare academic support in practical terms. Ask whether tutoring is available for gateway math and science classes, how often students meet with advisers, and whether required courses fill quickly. For any major, find out how students gain relevant experience through internships, research, projects, fieldwork, or portfolios.
The best-fit program is not always the one with the most demanding curriculum or the highest advertised salary. Consider your preparation, interests, learning style, and willingness to complete the work. A student who dislikes core tasks in a major may be less likely to finish or to stay in the related career. A non-STEM program can also require strong quantitative, writing, research, or technical skills.
I use hypothetical comparisons to show why the label can mislead. Imagine two students choosing between an engineering program with a high net cost and a communications program with a much lower net cost. The engineering route may offer access to occupations with higher pay, but only if the student can complete its prerequisites and wants that work. Communications may be a better financial fit if its cost is lower and the student builds experience for a defined role. Neither outcome is guaranteed; the next step is to test both pathways against real program and occupation data.
Career Pathways, Employment Outcomes, and Return on Investment
Return on investment, or ROI, is the value a student receives compared with the cost and time invested. For college, no single public statistic captures it perfectly. Compare net cost, completion likelihood, borrowing, time to degree, and career outcomes together. Then check whether each source measures the same students, years, and type of earnings.
Do not treat STEM as a guaranteed high-earning category. Pay varies by occupation, location, experience, degree level, and other factors. Some STEM graduates pursue further education or work outside their major. Non-STEM graduates also enter varied occupations, and some careers require graduate study or a license. A broad average can hide these differences.
Use data sources for the questions they can answer:
- College Scorecard: Review institution and field-of-study information where available. Check the reporting period and population; figures are not a promise of an individual salary.
- BLS Occupational Outlook Handbook: Compare occupations’ reported pay, typical entry-level education, and job outlook. These are occupation-level figures, not earnings caused by a particular degree.
- NCES: Use its data for college costs, enrollment, and completion measures. Confirm whether a statistic applies to the school, program, or student group you are comparing.
- School outcomes: Ask for program-level completion, placement, internship, and licensure results, including how the school defines and collects each measure.
A useful first comparison is debt-to-earnings. Divide projected student debt by a cautious estimate of annual earnings in the target occupation. The result is a screening tool, not a universal pass-or-fail rule. It does not include living costs, taxes, interest over time, or the chance that you earn a different amount. Compare monthly loan payments with a realistic take-home budget as well.
| Comparison item | STEM example | Non-STEM example | How to use it |
|---|---|---|---|
| Program cost | Net price and likely time to complete a specific STEM major | Net price and likely time to complete a specific non-STEM major | Compare total projected cost, not category averages |
| Career earnings | BLS wage data for a named occupation | BLS wage data for a named occupation | Treat wages as occupation estimates, not guaranteed graduate pay |
| Completion risk | Prerequisite sequence, course access, and program completion data | Major requirements, course access, and program completion data | Ask what could add terms or prevent completion |
| Further requirements | Graduate study, certification, or licensure if relevant | Graduate study, certification, or licensure if relevant | Add time and cost before judging returns |
| Student debt | Expected borrowing at graduation | Expected borrowing at graduation | Compare with cautious earnings estimates and monthly payments |
A step-by-step decision process
- Name the target. List likely occupations, required credentials, and the kind of work you want. Compare occupations rather than STEM and non-STEM averages.
- Build a short list. Check accreditation, admissions requirements, curriculum, completion data, internship access, and net price at each school.
- Verify transfer credits and timing. Get a written evaluation and map prerequisites, electives, and required projects or placements by term.
- Compare financial scenarios. Estimate total cost and borrowing, then use conservative earnings figures. Include a scenario where graduation takes longer or the first job differs from your target.
- Plan for completion and work. Track credits, GPA, aid-renewal terms, and prerequisites each term. Use advising and career services early, and seek relevant experience before graduation.
The key decision is not “Which category pays more?” It is “Which specific program gives me a realistic path to work I want at a cost I can manage?” If the evidence is thin, ask the school for program-level results and verify career requirements with the relevant licensing body or employer.
Frequently Asked Questions
These answers clarify how to compare undergraduate STEM and non-STEM programs without relying on broad claims. Use them as a starting point, then confirm details with the school, the relevant career authority, and current public data. Program rules and available outcome measures can differ, so check the source and reporting period for each figure.
Do STEM degrees have a higher ROI than non-STEM degrees?
Not always. Results vary by major, school, cost, completion, career, and location. Compare specific programs and occupations rather than relying on a category-wide average.
Which degree type has the highest salary?
There is no single answer that applies to every graduate. Use BLS data to compare named occupations, then check whether the career typically requires a bachelor’s, further study, or a license.
How can I compare college ROI before enrolling?
Estimate net price and time to completion, review borrowing and completion data, and compare outcomes for the careers each program can lead to. Keep assumptions cautious.
Is a STEM degree worth taking on debt for?
It may be worth considering if the program fits your preparation and career goals and the projected debt is manageable. Compare net cost with realistic occupation-level earnings, not advertised salary claims.
Do non-STEM degrees lead to good jobs?
They can lead to many kinds of work, but outcomes depend on the major, experience, and career path. Check the occupations graduates enter and the skills or credentials employers request.
Should I choose a major based on College Scorecard earnings?
Use Scorecard as one source, not a guarantee. Check its reporting period, student group, and whether the data are reported for your field and institution.
How many credits does a bachelor’s degree require?
About 120 semester credits is common, but requirements vary. Confirm the program’s total credits, residency rules, transfer limits, and required course sequence in the official catalog.
What should transfer students verify before enrolling?
Request a written credit evaluation and a realistic completion plan. Confirm which credits meet major requirements, which count as electives, and whether needed courses are available on schedule.
Does accreditation affect degree value?
It can. Check the institution in the U.S. Department of Education’s accreditation database. For careers with specific education rules, confirm whether program-level accreditation or state approval is required.
What is the biggest financial risk when choosing a degree?
Borrowing for a program without a clear, achievable completion and career plan can increase risk. Delayed graduation, lost transfer credits, or required further study can raise total cost.
(This article was written by one of our staff writers, Benjamin Carter. Visit our Meet the Team page.)
