2026 Online Physics Degrees With Engineering Physics Concentrations
Co-Founder and Chief Data Scientist
Choosing an online physics degree with an engineering physics concentration is really a question of fit. Do you want rigorous physics training, applied engineering coursework, and enough hands-on preparation for technical roles? The timing matters because U.S. employers continue to value quantitative, modeling, instrumentation, and computing skills.
The Bureau of Labor Statistics reports a May 2024 median annual wage of $166,290 for physicists. This guide explains accreditation, courses, admissions, cost, online learning trade-offs, careers, salaries, and program-selection steps so you can judge whether this degree matches your goals.
Key Things You Should Know
- Online engineering physics options are less common than general online physics or engineering programs, and the strongest choices usually combine institutional accreditation, advanced lab access, faculty mentoring, and clear transfer or residency rules.
- College Board's 2024 pricing data lists average published tuition and fees at $11,610 for in-state public four-year colleges and $43,350 for private nonprofit four-year colleges, before aid and online fees.
- Career outcomes depend on role and degree level. BLS May 2024 data reports median annual wages of $111,910 for electrical engineers, $102,320 for mechanical engineers, and $166,290 for physicists, but many roles require specific engineering coursework, lab experience, or graduate study.
What is an online physics degree with engineering physics concentration?
An online physics degree with an engineering physics concentration is a physics-centered program that adds applied engineering coursework, design thinking, computational modeling, electronics, materials, mechanics, or systems analysis. It is usually designed for students who want the mathematical depth of physics but also want to work on practical technologies such as sensors, energy systems, aerospace components, semiconductors, optics, robotics, or scientific instruments.
The key distinction is that engineering physics sits between a traditional physics degree and a discipline-specific engineering degree. A physics major often emphasizes theory, experimentation, and research preparation. A mechanical, electrical, or civil engineering degree usually follows a more standardized professional engineering curriculum. Engineering physics blends both, but the exact balance varies by school.
This table summarizes how the degree compares with nearby options so you can decide whether the concentration is actually aligned with your target career.
| Program type | Best fit | Typical strengths | Potential limitation |
| Online physics degree with engineering physics concentration | Students who want applied physics, modeling, lab analysis, and technical problem-solving | Strong quantitative foundation, flexible career paths, preparation for research or graduate study | May not satisfy every engineering licensure or employer requirement |
| Online engineering degree | Students targeting a specific engineering role such as mechanical, electrical, or industrial engineering | More direct alignment with engineering job titles and ABET-accredited pathways | May offer less theoretical physics depth |
| Online general physics degree | Students preparing for teaching, research, data analysis, or graduate physics study | Broad physics theory, mathematics, and scientific reasoning | May include fewer design, systems, or engineering application courses |
| Engineering technology degree | Students who prefer applied implementation, testing, and operations | Hands-on technical training and industry equipment exposure | May be less theoretical and may not substitute for engineering preparation |
If your long-term goal is engineering design licensure, compare the curriculum with a standard engineering program before enrolling. If your goal is research, instrumentation, technical analysis, or graduate study, an engineering physics concentration can be a strong interdisciplinary route.
Are online physics degrees with engineering physics concentrations accredited?
Yes, online physics degrees with engineering physics concentrations can be accredited, but you need to check two different layers: institutional accreditation and programmatic accreditation. Institutional accreditation applies to the college or university as a whole and is essential for federal financial aid, credit transfer, and general academic credibility. Programmatic accreditation, such as ABET accreditation, applies to specific engineering or engineering physics programs.
For this topic, the wording matters. A school may offer an institutionally accredited online physics degree with an engineering physics concentration, but that does not automatically mean the engineering physics concentration itself is ABET-accredited. ABET accreditation is especially important if you want to pursue Professional Engineer licensure or compete for roles where employers specifically ask for an ABET-accredited engineering degree.
Use the following checklist before you apply because accreditation claims can be easy to misunderstand on program pages.
- Confirm the institution is accredited by an agency recognized by the U.S. Department of Education or the Council for Higher Education Accreditation.
- Check whether the exact program name, degree level, campus location, and delivery format appear in ABET's accredited program database if ABET matters for your goal.
- Ask whether online students receive the same transcript wording as campus students, especially if the concentration name is important for employment or graduate school.
- Verify whether required labs, design projects, or residencies are available to fully online students.
- Ask admissions or the department chair whether the curriculum has supported graduates entering engineering, physics, graduate research, teaching, or technical roles.
Do not assume that "engineering physics" and "engineering" are interchangeable for licensing, graduate admissions, or hiring. The safest approach is to match the accreditation status to the specific outcome you want.
What jobs can you get with this degree?
Graduates can pursue technical, analytical, engineering-adjacent, and research-support roles, but the best match depends on the curriculum, degree level, internship experience, lab exposure, and software skills. A bachelor's degree may qualify graduates for engineering technician, research assistant, test engineer, systems analyst, data analyst, or quality roles. Research physicist and higher-level R&D positions commonly require a master's or doctorate.
The degree is especially useful when a role requires scientific reasoning plus practical technology skills. Employers may value graduates who can translate physical principles into measurements, models, prototypes, or technical recommendations.
The table below connects common job directions with the kinds of responsibilities students should expect. Use it to compare career fit rather than to assume automatic eligibility.
| Career path | Typical responsibilities | Helpful preparation | Degree-level note |
| Test or validation engineer | Run experiments, analyze performance data, troubleshoot components, document results | Electronics, mechanics, statistics, instrumentation, programming | Bachelor's may be sufficient for entry-level roles, but employer requirements vary |
| Research assistant or lab technologist | Support experiments, maintain equipment, collect measurements, prepare technical reports | Laboratory methods, optics, materials, vacuum systems, data analysis | Bachelor's roles exist; advanced research roles often require graduate study |
| Systems or applications engineer | Connect technical requirements to product performance, simulations, or customer use cases | Modeling, communication, software tools, engineering design | Engineering degree requirements vary by industry |
| Data or computational analyst | Model physical systems, process experimental data, build simulations, interpret trends | Python, numerical methods, statistics, machine learning basics | Physics training can transfer well if paired with portfolio projects |
| Graduate student in applied physics or engineering | Conduct research in areas such as photonics, materials, energy, aerospace, or semiconductors | Research methods, advanced math, faculty references, thesis or capstone work | Graduate admission may require prerequisite engineering or physics courses |
Students who become interested in advanced computational careers can also compare physics pathways with an online data science doctorate, especially if their goals shift toward AI modeling, scientific computing, or research leadership.
How do online and campus engineering physics programs differ?
Online and campus engineering physics programs usually differ most in laboratory access, peer collaboration, scheduling, and how design projects are supervised. The academic content can be similar, but engineering physics depends heavily on experimentation and applied problem-solving, so the delivery model matters more than it might in some lecture-based majors.
Online programs can work well for self-directed students who need flexibility, already work in a technical environment, or can complete labs through kits, simulations, local partners, or short campus residencies. Campus programs may be better for students who want frequent access to research labs, machine shops, optical benches, electronics labs, or faculty-led projects.
This comparison can help you decide whether online learning is a practical fit for your situation.
| Factor | Online format | Campus format | Decision point |
| Labs | May use home kits, virtual labs, remote instruments, local labs, or short residencies | Typically offers direct access to physical labs and equipment | Ask how upper-division labs are completed before enrolling |
| Scheduling | Often more flexible for working adults and transfer students | Usually follows fixed class and lab schedules | Online may be better if you cannot relocate or attend full time |
| Research access | Possible, but may require proactive faculty outreach or visits | More natural access to faculty labs and student research groups | Campus may be stronger for PhD preparation |
| Networking | Depends on virtual cohorts, advising, projects, and employer partnerships | Often includes more informal peer and faculty interaction | Online students should look for structured mentoring |
| Career signaling | Can be strong if accredited and academically equivalent | Often familiar to traditional engineering employers | Transcript wording and accreditation are important |
Online study is not automatically easier. In a technical major, it often requires stronger time management because students must coordinate lectures, problem sets, labs, software tools, and project deadlines with less face-to-face structure.
What courses are included in engineering physics concentrations?
Engineering physics concentrations usually begin with the core physics sequence and add engineering-oriented electives. The most useful programs do not simply add a few general engineering courses; they build a coherent pathway in areas such as instrumentation, materials, optics, mechanics, electronics, energy, or computation.
Students should review course titles and prerequisites carefully because course availability can reveal whether the concentration is theoretical, applied, or research-focused. Common course areas include the following.
- Foundational physics: classical mechanics, electricity and magnetism, thermodynamics, waves, optics, quantum mechanics, and modern physics.
- Mathematics and computation: calculus, differential equations, linear algebra, numerical methods, statistics, Python, MATLAB, or scientific computing.
- Engineering applications: circuits, mechanics of materials, fluid mechanics, control systems, materials science, electronics, or engineering design.
- Laboratory and measurement: advanced lab, instrumentation, data acquisition, uncertainty analysis, sensors, and experimental design.
- Capstone or research: design project, independent research, applied physics project, senior thesis, or industry-sponsored problem.
AI and automation are changing what students should prioritize. Employers increasingly expect technical graduates to work with simulation tools, data pipelines, automated measurement systems, and AI-assisted analysis. That does not replace physics knowledge; it raises the value of graduates who can judge whether a model's output makes physical sense.
If you are deciding between applied physics and software-heavy pathways, an accelerated computer science degree may be worth comparing if your strongest interest is software development rather than physical systems.
What are the admission requirements for these programs?
Admission requirements vary by degree level, but engineering physics programs usually expect stronger math preparation than many general online majors. This is because students move quickly into calculus-based physics, differential equations, laboratory analysis, and engineering problem-solving.
For bachelor's programs, schools often evaluate high school coursework, transfer credits, college GPA, and readiness for calculus. For graduate programs in applied physics or engineering physics, applicants may need a physics, engineering, mathematics, or closely related bachelor's degree, along with prerequisite coursework and faculty fit.
Before applying, gather the following materials and check whether the program has bridge options if you are missing prerequisites.
- Official transcripts from high school, community college, or prior universities.
- Evidence of calculus readiness, such as prior calculus, placement results, or approved transfer credit.
- Prior physics coursework, preferably calculus-based physics for upper-division entry.
- Programming or computational experience, especially for programs with modeling or simulation courses.
- Statement of purpose or career goals for selective programs, particularly at the graduate level.
- Letters of recommendation when required for research-focused or graduate admissions.
Transfer students should ask for a preliminary degree audit before committing. A program may accept many general education credits but reject technical credits if prior physics or engineering courses were algebra-based, outdated, or missing lab components.
How long does the degree take and what does it cost?
A bachelor's degree usually takes about four years of full-time study, while transfer students with an associate degree may finish faster if their math, physics, and general education credits apply cleanly. Part-time online students often take longer because physics sequences and engineering prerequisites must be completed in order.
Cost depends on tuition, fees, residency status, transfer credits, lab requirements, software, textbooks, travel for residencies, and the number of credits you still need. College Board's 2024 data shows average published tuition and fees of $11,610 for in-state public four-year institutions and $43,350 for private nonprofit four-year institutions. Those sticker prices are not the same as net cost, but they show why aid, transfer credit, and residency rules matter.
The following table highlights the main cost drivers. Use it when comparing programs so you do not focus only on per-credit tuition.
| Cost factor | Why it matters | What to ask |
| Per-credit tuition | Online programs may charge different rates for in-state, out-of-state, or distance learners | Is the online tuition rate fixed regardless of residency? |
| Transfer credits | Accepted credits can shorten the degree and reduce total cost | How many technical credits will apply to the major, not just electives? |
| Lab fees and equipment | Physics labs may require kits, components, software, or campus visits | Are lab costs included in tuition or billed separately? |
| Residency or travel | Some online programs require short in-person sessions | How often must online students travel, and for how long? |
| Course sequencing | Missing a prerequisite can delay graduation and add terms | Are required upper-division courses offered every term or only once per year? |
Students considering broader engineering alternatives may also compare costs with the cheapest online master's mechanical engineering options, especially if they already hold a bachelor's degree and want a more direct engineering credential.
Do engineering physics graduates need licensure or certification?
Engineering physics graduates do not automatically need licensure for every technical role. Many jobs in research support, data analysis, testing, instrumentation, manufacturing, software, semiconductors, aerospace support, and laboratory operations do not require a Professional Engineer license. However, licensure becomes more important if you want to offer engineering services to the public, sign off on regulated engineering work, or pursue certain government or infrastructure-related roles.
The Professional Engineer pathway is state-regulated, and requirements vary. In general, candidates often need an approved engineering education background, Fundamentals of Engineering exam, qualifying work experience, and Principles and Practice of Engineering exam. ABET accreditation can make this pathway more straightforward, but state boards decide what qualifies.
Certifications can help when they align with a specific skill area, but they are not substitutes for an accredited degree when a job or license requires one. Examples that may be useful depending on your direction include software, quality, systems engineering, safety, nondestructive testing, project management, or vendor-specific technical certifications.
Before relying on this degree for licensure, contact the relevant state engineering board and ask whether the exact program meets educational requirements. This step is especially important for online students because program name, accreditation, and state rules can affect eligibility.
What salary can engineering physics graduates expect?
Salary potential depends on the job title, industry, degree level, location, security clearance, programming ability, and whether the role is classified as physics, engineering, data, manufacturing, or research. The degree can lead to well-paid technical work, but salary outcomes should be evaluated by target occupation rather than by major name alone.
BLS May 2024 wage data provides useful benchmarks: the median annual wage was $166,290 for physicists, $111,910 for electrical engineers, and $102,320 for mechanical engineers. These figures do not mean an entry-level graduate will earn those amounts, but they show that the adjacent labor markets value advanced quantitative and technical skills.
This table gives a practical salary-context view by pathway. It is not a promise of earnings; it is a way to connect degree planning to occupational categories.
| Pathway | Relevant BLS salary benchmark | What affects earnings | Planning advice |
| Physics research and applied physics | Physicists: $166,290 median annual wage in May 2024 | Graduate degree, research field, federal labs, industry R&D, publications | Plan for graduate school if you want independent research roles |
| Electrical or electronics-oriented roles | Electrical engineers: $111,910 median annual wage in May 2024 | ABET expectations, circuits, embedded systems, controls, industry experience | Prioritize electronics labs, design projects, and internships |
| Mechanical or materials-oriented roles | Mechanical engineers: $102,320 median annual wage in May 2024 | CAD, mechanics, materials, testing, manufacturing, product design | Check whether the curriculum includes enough engineering design coursework |
| Computational and data roles | Salary benchmarks vary by occupation | Programming, statistics, machine learning, domain expertise, portfolio projects | Build projects that show you can model physical systems and analyze data |
If your main goal is software, AI, or analytics rather than applied physics, compare this path with an online computer science degree. Computer science may offer a more direct route to software engineering roles, while engineering physics is stronger for students who want to connect computation to physical systems.
How do you choose a reputable online physics program?
Choosing a reputable online physics program requires more than checking whether the school is well known. You need to confirm that the curriculum, accreditation, labs, advising, and career support match the outcome you want. This is especially important for engineering physics because the concentration title can mean different things at different institutions.
Use this step-by-step process to compare programs before you apply or pay an enrollment deposit.
- Start with your target role, then work backward to the degree, accreditation, lab experience, and technical skills that role commonly requires.
- Verify institutional accreditation and, if needed, ABET accreditation for the exact program name and delivery format.
- Review upper-division course offerings to make sure the concentration includes applied engineering content, not just general electives.
- Ask how online labs are delivered and whether students use home kits, simulations, remote instruments, local facilities, or campus residencies.
- Request a transfer evaluation in writing if you have prior credits, especially for calculus, physics, chemistry, programming, or engineering courses.
- Compare total cost, not just tuition, including fees, equipment, software, textbooks, and travel.
- Ask about career outcomes, internship support, undergraduate research, faculty mentoring, and graduate school placement.
Common red flags include unclear accreditation language, missing upper-division lab information, no named faculty for the concentration, limited technical electives, vague career claims, and pressure to enroll before receiving a transfer review. A better program will be transparent about what online students can and cannot complete remotely.
The best choice is the program that fits your goal with the least hidden risk. For future engineers, that may mean prioritizing ABET alignment. For future researchers, it may mean faculty research access. For working adults, it may mean flexible scheduling, transfer-friendly policies, and strong advising.
Other Things You Should Know About Physics
Some programs may be fully online, but many require in-person labs, local lab arrangements, or short campus residencies. Always ask how upper-division laboratory and capstone requirements are completed.
No. Engineering physics combines physics and applied engineering topics, but it may not replace a discipline-specific engineering degree for every employer, graduate program, or licensure pathway.
It can be, especially for applied physics, materials science, optics, aerospace, energy, electrical engineering, or computational research. Strong grades, research experience, advanced math, and faculty recommendations are important.
Students who want the fastest route to a licensed engineering role, dislike advanced math, or need extensive hands-on lab access without travel should compare traditional engineering, engineering technology, or campus-based programs first.
References
- Applied physics vs Engineering physics https://talk.collegeconfidential.com/t/applied-physics-vs-engineering-physics/3665220
- Admission Requirements | Undergraduate Admissions + Programs https://www.ualberta.ca/en/admissions/how-to-apply/admission-requirements/index.html
- Pre Header Utility Links https://www.nspe.org/about/about-professional-engineering/how-get-licensed
- How long does it take to get a bachelor's degree? | edX https://www.edx.org/resources/how-long-does-it-take-to-get-a-bachelors-degree
- How Long Does it Take to Get a Bachelor’s Degree? https://www.pointloma.edu/resources/accelerated-undergraduate/how-long-does-it-take-get-bachelors-degree
- Physics and Engineering: How are They Related? | Elmhurst University Blog https://www.elmhurst.edu/blog/physics-engineering/
- Online Physics Course: 6 Helpful Considerations - Prereqcourses https://www.prereqcourses.com/online-physics-course/
- Admissions Criteria https://ed.wum.edu.pl/pl/admissions-criteria
- 2025 Best Online Degrees in Physics https://www.onlineu.com/degrees/physics
