2027 Online Materials Science & Engineering Degree Programs That Accept 60, 75, or 90 Transfer Credits

Most bachelor's degrees require around 120 credits, so a school that accepts 60, 75, or 90 transfer credits is describing how much prior coursework may be brought into the institution. That number does not automatically tell you how much of the Materials Science & Engineering curriculum is already complete.

The practical distinction is accepted credits versus applied credits. Accepted credits appear on your transfer record, while applied credits satisfy a specific requirement in your degree audit. A chemistry course may transfer as general science credit, for example, but not satisfy the chemistry requirement if it lacked a lab or was not equivalent to the program's required sequence.

The table below shows how 60-, 75-, and 90-credit transfer scenarios usually affect a 120-credit online bachelor's completion plan. Use it as a planning framework, not as a guarantee, because engineering programs often control how many technical, upper-division, and major credits must be taken through the degree-granting school.

A 90-credit transfer limit can be valuable, but it is most useful when the credits line up with the curriculum. In Materials Science & Engineering, the hardest credits to transfer are often specialized courses such as crystallography, transport phenomena, materials processing, mechanical behavior of materials, and senior design.

Fully online bachelor's programs specifically titled Materials Science & Engineering are less common than online programs in business, information technology, healthcare administration, or general engineering technology. Because of lab, equipment, and accreditation expectations, many Materials Science & Engineering pathways are hybrid, degree-completion, engineering technology, manufacturing-focused, or offered through a broader engineering program with materials-related electives.

When comparing programs, look first at program type. A school may be generous with transfer credits overall but strict about which credits can replace engineering major courses. The table below summarizes the most common online or online-friendly pathways and how transfer credits usually work.

If your credits do not map well to a Materials Science & Engineering curriculum, it may be worth comparing adjacent bachelor's options before committing. Some students with strong STEM backgrounds also review the easiest college majors with high pay to understand alternative degree-completion routes that may use more of their existing credits.

The best program is usually the one that applies the most credits to required coursework, not necessarily the one that advertises the highest transfer maximum. For example, a program accepting 90 credits but applying 25 of them only as free electives may be less efficient than a program accepting 75 credits that clears nearly every lower-division prerequisite.

You can tell only after the school maps your previous coursework against its degree requirements. A transcript review that says "90 credits accepted" is not enough; you need a degree audit showing which requirements are satisfied and which remain.

For Materials Science & Engineering, the biggest risk is assuming that a general transfer approval equals major approval. Engineering departments often make separate decisions about technical equivalencies, especially when a course involves labs, design work, software, or professional accreditation standards.

Use this checklist before you choose a program or pay an enrollment deposit:

1. Ask whether the evaluation is unofficial, preliminary, or official, because only the official version should be used for final cost and timeline planning.
2. Request a requirement-by-requirement degree audit that identifies general education, math, science, engineering core, major, elective, lab, and capstone requirements.
3. Confirm whether each technical course transfers as an exact equivalent, a departmental elective, a general elective, or non-applicable credit.
4. Ask whether transferred engineering courses must come from an ABET-accredited or regionally accredited institution to satisfy major requirements.
5. Verify minimum grade rules, because many engineering programs require a C or higher for major prerequisites and may reject pass/fail courses for technical requirements.
6. Ask whether credits accepted above the degree maximum will be excluded from the audit even if they appear on your transcript.

This process is similar to the way professional programs evaluate prerequisites differently from general transfer electives. For example, students comparing top MSW online programs also need to distinguish general admission eligibility from specific prerequisite or field-placement requirements.

A strong transfer evaluation should make your remaining path visible. If the school cannot tell you how many credits remain, which courses are still required, and whether those courses are available online in the next few terms, treat that as a red flag.

Transferable credits usually come from regionally accredited colleges, community colleges, four-year universities, military education, standardized exams, and occasionally prior learning assessments. For a Materials Science & Engineering degree, however, the most valuable credits are those that satisfy sequenced STEM and engineering requirements.

The table below shows common credit sources and how they may apply. It also highlights where students should be careful, because not every credit source carries the same value inside an engineering curriculum.

In engineering-heavy programs, calculus, chemistry, physics, and foundational engineering courses matter more than raw credit volume. A student transferring 60 highly aligned STEM credits may be closer to graduation than a student transferring 90 credits in unrelated electives.

Residency requirements determine how many credits you must complete through the school awarding the degree. Upper-division requirements determine how many junior- and senior-level credits you must complete, often within the major. These two rules are the main reason a 90-credit transfer student may still need more than 30 credits.

Many bachelor's programs require at least 30 credits in residence, and engineering departments may also require that the capstone, design sequence, labs, and a set number of upper-division major courses be completed through the institution. That can limit how much time and money transfer credits save.

Here are the residency and upper-division rules to confirm before you assume a transfer plan is efficient:

• Minimum institutional residency credits required for graduation, such as 30 credits completed through the university.
• Minimum major residency credits, which may require certain Materials Science & Engineering courses to be taken from the degree-granting department.
• Minimum upper-division credits, especially if most of your prior credits are freshman- or sophomore-level courses.
• Required capstone or senior design sequence, which usually cannot be transferred after admission.
• Lab or hands-on requirements that may require approved kits, simulations, local proctoring, short campus visits, or hybrid attendance.
• Limits on how many community college credits can apply to junior- or senior-level requirements.

The main trade-off is flexibility versus precision. A broad online degree-completion program may apply more credits quickly, while a specialized engineering degree may protect career alignment but require more institution-taught technical coursework.

The transfer evaluation process is a formal comparison of your previous courses with the program's curriculum. For Materials Science & Engineering, it often involves admissions staff, the registrar, and faculty reviewers in math, science, and engineering departments.

The steps below show how the process usually works and where you can reduce delays. Following them in order helps you avoid enrolling in a program that accepts your credits but still leaves unexpected requirements.

1. Collect official transcripts from every college attended, including institutions where you withdrew, repeated courses, or earned only a few credits.
2. Gather syllabi for technical courses such as calculus, chemistry, physics, statics, thermodynamics, materials science, electrical circuits, mechanics, and laboratory courses.
3. Submit transcripts for a preliminary review before applying if the school offers one, but do not rely on it as final.
4. Apply and request an official transfer evaluation tied to the exact degree, concentration, catalog year, and online format you intend to enter.
5. Review the degree audit line by line and identify credits listed as electives, excess credits, or non-applicable credits.
6. Appeal missing technical equivalencies with syllabi, lab descriptions, textbooks, learning outcomes, and credit-hour documentation.
7. Ask for a remaining-course schedule showing when each required course is offered online, because a required course offered only once per year can delay graduation.

A good evaluation should produce a realistic map: credits applied, credits remaining, sequence constraints, expected graduation term, and estimated tuition. If a school pressures you to enroll before giving clear answers, slow down and request written documentation.

Completion time depends on remaining credits, course sequencing, enrollment intensity, and whether required labs or design courses are offered online every term. In a 120-credit bachelor's degree, transferring more credits can shorten the path, but only when prerequisites are complete and courses are available when you need them.

The table below gives a practical timeline estimate for students who can take 9 to 15 credits per term. It assumes credits apply directly to the degree and does not account for course bottlenecks, which are common in engineering sequences.

Online enrollment can help working adults maintain momentum, but Materials Science & Engineering is still sequential. A student missing Calculus II may be unable to take physics, thermodynamics, or materials modeling on schedule, even with a large number of accepted transfer credits.

If speed is your top priority, compare the course rotation as carefully as the transfer maximum. Students exploring faster online pathways in other fields, such as an online finance degree, should use the same principle: the fastest program is the one where remaining requirements are available in the right order.

Transfer credits can reduce tuition because you are not paying the new school for courses already completed. The actual savings depend on how many credits apply to the degree, the school's per-credit tuition, engineering course fees, lab fees, technology fees, and whether you qualify for in-state, military, employer, or transfer-student discounts.

College Board's 2024-25 figures put average published tuition and fees for in-state students at public four-year institutions at $11,610 for one academic year. That benchmark matters because transferring credits may eliminate one or more years of enrollment, but only if the credits reduce required coursework rather than sitting as excess electives.

The table below uses a simple per-credit model so you can estimate savings without relying on a school's marketing language. Replace the sample tuition with the exact per-credit rate and fees from each program you are considering.

Cost comparison should include more than tuition. Engineering programs may add lab materials, simulation software, exam proctoring, textbooks, hardware specifications, and occasional travel. If you are comparing online degrees across fields, reviewing tuition-focused guides such as the cheapest EdD online programs can help you see how different online programs present affordability, fees, and completion costs.

The safest calculation is based on remaining required credits, not maximum transferable credits. Ask each school for a written estimate that includes credits remaining, tuition per credit, recurring fees, one-time fees, financial aid eligibility, and the expected number of terms to completion.

Some online degree programs award credit for prior learning, military training, standardized exams, professional certifications, or employer-based training. These credits can be useful, but they usually apply more easily to general education or electives than to upper-division Materials Science & Engineering major requirements.

For engineering students, the main question is whether alternative credit can replace a requirement with specific technical content and learning outcomes. A certification in quality control may support an elective, for example, but it may not replace a required course in phase transformations or mechanical behavior of materials.

Ask these questions before relying on alternative credit:

• Does the program accept ACE-recommended military or workplace credit, and if so, does it apply to the degree or only to free electives?
• Can CLEP, DSST, AP, or IB exam credit satisfy math, chemistry, physics, or general education requirements?
• Are portfolio-based prior learning credits allowed for technical, lab, or upper-division engineering courses?
• Is there a cap on nontraditional credits within the 60-, 75-, or 90-credit transfer maximum?
• Will alternative credits affect financial aid eligibility, residency requirements, or full-time enrollment status?

Be cautious with programs that use speed-focused language without explaining what remains academically required. The same scrutiny applies across online education, including searches for 1 year PhD programs online: a short advertised timeline is meaningful only when it matches accreditation rules, curriculum requirements, and realistic course availability.

Older credits do not always expire automatically, but schools may treat them differently depending on subject, level, accreditation, and program standards. General education courses in writing, humanities, social science, and basic electives often remain usable longer than technical engineering, computing, or lab-based science courses.

Materials Science & Engineering programs may review older STEM credits closely because software tools, laboratory methods, modeling approaches, manufacturing technologies, and industry standards change. A calculus course from years ago may still transfer, while an old computing or materials characterization course may require updated documentation or replacement.

Watch for these common red flags when transferring older credits:

• A school accepts the credit institutionally but the engineering department refuses to apply it to the major.
• The course lacks a lab component that the current curriculum requires.
• The original institution was not regionally accredited or the course was not college-level.
• The course description is too vague to establish equivalency without a syllabus.
• The program has a time limit for technical prerequisites, especially computing, statistics, or laboratory coursework.
• The course transferred as lower-division credit but the degree requires an upper-division equivalent.

If your credits are older, prepare syllabi, catalog descriptions, transcripts, lab details, and any proof of recent work experience that shows continued competence. Even when a course does not transfer directly, documentation may support an appeal, placement decision, or elective credit.

• Arizona State University. (2026). Bachelor of Science in Engineering in Materials Science and Engineering: Online transfer credit evaluation. https://asuonline.asu.edu/online-degree-programs/undergraduate/bachelor-science-engineering-materials-science-engineering/
• Colorado State University Online. (2026). Undergraduate transfer credit policies and degree completion guidelines. https://online.colostate.edu/transfer-credits/
• National University. (2026). Bachelor of Science in Manufacturing Engineering Technology: Transfer credit policy & prior learning assessment. https://www.nu.edu/degrees/engineering-and-computing/programs/bachelor-of-science-in-manufacturing-engineering-technology/
• North Carolina State University. (2026). Online Bachelor of Science in Materials Science and Engineering: Admissions and credit transfer requirements. https://engineeringonline.ncsu.edu/academic-programs/undergraduate/
• Southern New Hampshire University. (2026). Transfer credit policy: Transfer up to 90 credits toward a bachelor's degree. https://www.snhu.edu/transfer-students/transferring-credits