2026 Online Electrical Engineering Degrees With Power Electronics Coursework

An online electrical engineering degree with power electronics coursework is a bachelor's or master's program that teaches core electrical engineering while adding focused study in the conversion, control, and delivery of electric power. Power electronics sits at the intersection of circuits, semiconductor devices, control systems, electromagnetics, thermal design, embedded systems, and power systems.

In practical terms, this field is about designing systems that move energy efficiently. Examples include electric vehicle inverters, renewable energy converters, battery chargers, motor drives, data center power supplies, aerospace power systems, and grid-connected storage equipment.

The "online" format usually means lectures, assignments, simulations, exams, and some advising happen remotely, while labs may be completed through mailed kits, remote-access lab benches, simulation platforms, short campus residencies, or local proctored lab arrangements.

Students should distinguish between a full electrical engineering degree and a narrower certificate or non-degree specialization. A degree usually provides broader eligibility for engineering roles because it covers mathematics, physics, circuits, electronics, signals, controls, and design. A certificate may be useful for upskilling, but it is not a substitute for an engineering degree when employers require one.

This path is strongest for students who want to work on hardware-centered energy systems rather than purely software-based technology roles. It may not be the best fit for someone who dislikes advanced math, circuit analysis, or lab troubleshooting. Readers comparing broader online electrical engineering career outcomes should look closely at whether each program's electives actually include power electronics, not just general power systems.

Online and on-campus electrical engineering programs can lead to similar academic outcomes when they are rigorous, accredited, and supported by credible lab experiences. The biggest differences are not usually the lecture content; they are access to equipment, scheduling flexibility, peer interaction, and how design projects are supervised.

Online engineering is no longer unusual. The National Center for Education Statistics reported in 2024 that distance education remained a major part of U.S. higher education participation after the pandemic shift. For prospective engineering students, this means online delivery is more accepted than it once was, but it also makes program quality harder to judge because formats vary widely.

The comparison below shows the main trade-offs students should weigh before choosing a delivery format.

The right choice depends on your constraints. Choose online if you need geographic flexibility, plan to keep working, and can handle self-directed problem solving. Choose on-campus if you want daily lab access, undergraduate research, or a more immersive engineering environment. Hybrid programs can be a strong middle ground when they combine online theory with concentrated in-person lab sessions.

For U.S. electrical engineering bachelor's degrees, the most important program-level accreditation is ABET Engineering Accreditation Commission accreditation. ABET does not accredit a program simply because it is online or on campus; it evaluates whether the program meets engineering education standards, including student outcomes, curriculum quality, faculty qualifications, facilities, continuous improvement, and institutional support.

Institutional accreditation is also important. The college or university should be accredited by a recognized institutional accreditor, because that affects federal financial aid eligibility, transfer credit review, and graduate admissions. Program-level ABET accreditation is a separate layer that is especially relevant for engineering practice.

When evaluating accreditation, students should verify these items directly rather than relying only on marketing language:

1. Confirm the university's institutional accreditation through recognized U.S. accreditation sources.
2. Search ABET's public program database for the exact degree name, campus or delivery location, and accreditation status.
3. Check whether the online version is covered under the same accredited program or listed separately.
4. Ask whether the program meets the educational requirements for Fundamentals of Engineering exam eligibility in your state.
5. Confirm whether transfer students can complete enough upper-division engineering credits at the institution to graduate from the accredited program.

ABET is especially important for students who may later pursue Professional Engineer licensure. Power electronics roles in product design, EV systems, manufacturing, and consumer electronics may not always require PE licensure, but utility, infrastructure, public-sector, and consulting roles may value or require it. State licensing boards set their own rules, so students should check their state before enrolling.

Be cautious if a school says it is "aligned with ABET" or "designed around ABET standards" but cannot show current ABET accreditation for the specific electrical engineering program you would enter.

A power electronics-focused electrical engineering program should combine foundational engineering courses with specialized electives and design projects. The strongest programs do not treat power electronics as a single isolated course; they connect devices, controls, thermal behavior, magnetics, machines, and grid applications.

The table below summarizes common courses and why they matter for students aiming at power electronics careers.

Lab quality is one of the most important differences among online programs. Simulation is useful, but students should not rely on simulation alone if they want hardware-heavy roles. A serious program should expose students to measurement, safety procedures, component tolerances, debugging, and design failure analysis.

Before enrolling, ask how the program handles the following hands-on requirements:

• Whether students use industry tools such as SPICE-based circuit simulation, MATLAB/Simulink, PCB design software, or embedded development environments.
• Whether lab kits include meters, microcontrollers, low-voltage converters, sensors, and safe test equipment.
• Whether remote labs allow students to control real instruments and collect live data rather than only watching demonstrations.
• Whether any required campus visits are scheduled far enough in advance for working students.
• Whether the capstone can be completed remotely and whether power electronics projects are regularly available.

Current industry trends make lab relevance even more important. Employers increasingly need engineers who understand high-efficiency power conversion, silicon carbide and gallium nitride devices, battery systems, electrified transportation, and grid integration. Students should look for coursework that reflects those applications rather than only legacy power topics.

Admission requirements depend on degree level. Bachelor's programs usually evaluate high school preparation, transfer credits, math placement, and prior science coursework. Master's programs usually require a bachelor's degree in electrical engineering or a closely related engineering field, though some schools admit students with deficiencies if they complete bridge courses.

Because electrical engineering is math-intensive, prerequisites matter more than the online format. Students who are weak in calculus, physics, or programming may still succeed, but they should build a realistic plan before taking upper-division engineering courses.

Typical requirements include the following:

• For freshman admission: high school diploma or equivalent, strong math preparation, laboratory science, and college readiness documentation.
• For transfer admission: completed calculus, calculus-based physics, introductory programming, chemistry or engineering science, and lower-division circuits when available.
• For bachelor's completion programs: an associate degree or substantial transfer credit in pre-engineering or engineering technology may be expected.
• For master's admission: an accredited engineering or related STEM bachelor's degree, transcripts, statement of purpose, resume, and sometimes recommendations.
• For international or multilingual applicants: English proficiency documentation may be required by the university.

Applicants should be especially careful with engineering technology credits. Electrical engineering technology and electrical engineering are related, but they are not always interchangeable. Some ABET-accredited engineering programs accept only limited technical transfer credit, which can lengthen the time to graduation.

A practical preparation sequence can help applicants avoid costly delays:

1. Complete or refresh algebra, trigonometry, and precalculus before enrolling in calculus.
2. Take calculus-based physics rather than algebra-based physics if your target program requires it.
3. Learn one programming language commonly used in engineering analysis, such as Python, C, or MATLAB.
4. Request an official transfer credit evaluation before committing to a program.
5. Ask whether prerequisite courses can be completed at a community college and transferred in.

The most common mistake is assuming that online admission means easier admission or lighter academic standards. Reputable online engineering programs usually expect the same technical readiness as campus programs because graduates must meet the same engineering outcomes.

Program length depends on whether you are entering as a first-time student, transfer student, bachelor's completion student, or graduate student. A full bachelor's degree commonly requires about 120 to 130 credits, while master's programs often require 30 or more graduate credits. The timeline can change significantly based on transfer credit, math placement, course sequencing, and whether labs are offered every term.

The table below helps compare common online electrical engineering pathways and the type of student each pathway usually serves.

Online programs are commonly structured around asynchronous modules, live recitations, recorded lectures, proctored exams, virtual office hours, and project milestones. Engineering courses may be sequential, so failing or delaying one prerequisite can postpone multiple later courses. That is why students should ask for a term-by-term degree plan, not just a list of required credits. 

Students comparing online STEM degrees should also consider how hands-on requirements differ by major. For example, the lab and fieldwork expectations in an online animal science bachelor degree are very different from electrical engineering labs, where measurement equipment, circuits, and safety protocols are central to the learning experience.

Working students should be cautious about accelerated schedules. Taking two engineering courses with labs while working full time can be manageable for some students, but it is often more demanding than taking general education courses online. A slower schedule may produce better learning and fewer repeated courses. 

The cost of an online electrical engineering degree depends on tuition, residency status, transfer credits, lab fees, technology fees, books, software, exam proctoring, travel for residencies, and the number of semesters required. Published tuition alone can be misleading because engineering programs often have additional course or lab expenses.

College Board's 2024 Trends in College Pricing data provides a useful benchmark for annual tuition and fees at four-year institutions. These figures are not specific to electrical engineering, but they help students judge whether a quoted online tuition rate is above or below common U.S. price levels.

• Public four-year in-state tuition and fees: $11,610
• Public four-year out-of-state tuition and fees: $30,780
• Private nonprofit four-year tuition and fees: $43,350

Use those numbers as a starting point, not a final cost estimate. A lower annual tuition rate may still become expensive if few credits transfer, required courses are not offered regularly, or lab residencies require travel. Conversely, a higher per-credit rate may be reasonable if the program accepts substantial transfer credit and shortens your time to graduation.

Financial aid options may include federal grants, federal loans, state aid, employer tuition assistance, military education benefits, scholarships, payment plans, and graduate assistantships for some master's students. Federal Student Aid loan terms change by academic year, so students should review current interest rates before borrowing.

To estimate your real cost, follow this sequence:

1. Request a degree audit showing exactly how many credits you still need.
2. Multiply required credits by tuition and mandatory fees, then add lab, software, and proctoring costs.
3. Add travel costs if the program requires campus visits or weekend labs.
4. Subtract confirmed grants, scholarships, employer aid, and accepted transfer credits.
5. Compare the remaining cost against likely career paths, not against a single advertised salary figure.

It can also help to compare engineering costs with other online technical degrees. For example, reviewing computer science degree cost data can clarify whether you are paying a premium for engineering labs, ABET accreditation, and hardware-focused training.

The biggest cost mistake is choosing the cheapest advertised tuition without checking accreditation, transfer policy, course availability, and lab quality. For a technical field like power electronics, a program that saves money upfront but lacks credible engineering labs may weaken the value of the degree.

A power electronics-focused electrical engineering degree can prepare students for roles in energy conversion, electrified transportation, industrial automation, aerospace, consumer electronics, data centers, renewable energy, defense, and utilities. The degree is most valuable when paired with projects that show practical design, simulation, testing, and debugging skills.

The table below summarizes common career paths and what students should build into their academic experience if they want to compete for those roles.

Entry-level students should expect to start with testing, validation, applications, systems support, or junior design responsibilities before leading complex hardware projects. Advanced roles often require deeper expertise in high-voltage safety, electromagnetic interference, reliability, thermal design, embedded firmware, and regulatory standards.

Students who want to strengthen employability should use the degree to produce evidence of ability. A portfolio can include converter simulations, PCB layouts, lab reports, capstone documentation, firmware snippets, test results, and design trade-off explanations. Employers hiring engineers often care about how candidates think through constraints, not just whether they completed a course.

Artificial intelligence and automation are changing the workflow, but they are not eliminating the need for engineers who understand hardware. AI-assisted design tools can speed up modeling, documentation, and code generation, while engineers still need to validate behavior, manage safety risks, interpret test data, and make design decisions under real-world constraints.

Power electronics roles are usually classified within broader electrical and electronics engineering labor market categories, so salary data is best interpreted as a benchmark rather than a precise prediction.

According to the U.S. Bureau of Labor Statistics, the median annual wage for electrical and electronics engineers was $118,780 in May 2024. This figure is useful because it reflects the broader occupation, but individual pay can vary widely by industry, location, clearance requirements, graduate education, and experience.

BLS also projects employment for electrical and electronics engineers to grow 9% from 2023 to 2033. For students, the key takeaway is not that every power electronics graduate will see the same outcome; it is that the broader engineering category is expected to grow faster than the average for all occupations during that projection period.

The table below explains how different factors can influence salary potential and job access without implying guaranteed outcomes.

Power electronics demand is being shaped by electrification, renewable energy integration, battery storage, industrial automation, data center power needs, and high-efficiency semiconductor devices. Students who build a mix of hardware, controls, embedded systems, and communication skills are generally better positioned than students who take only a narrow set of theory courses.

The best online power electronics program is not always the cheapest, fastest, or highest ranked. It is the program that matches your career goal, meets engineering quality standards, fits your schedule, and gives you enough hands-on experience to be credible in the job market.

Use a structured evaluation process before applying. This sequence can help you compare programs more accurately:

1. Define your target outcome, such as EV systems, renewable energy, power supplies, controls, utilities, or graduate study.
2. Verify institutional accreditation and, for bachelor's programs, ABET accreditation for the exact electrical engineering degree.
3. Review the curriculum for at least one dedicated power electronics course plus related electives in controls, machines, devices, embedded systems, and power systems.
4. Ask for a written explanation of how labs are completed online, including equipment, software, safety, and any travel requirements.
5. Request a transfer credit evaluation and term-by-term graduation plan before committing.
6. Compare total cost, not just tuition, including fees, residency travel, software, hardware kits, and repeated-course risk.
7. Review faculty backgrounds, capstone examples, employer relationships, internship support, and graduate outcomes.
8. Speak with admissions, an academic advisor, and ideally a current student or alumnus before enrolling.

Students comparing online technical programs outside engineering can use affordability research as a benchmark, but they should account for lab intensity and accreditation differences. For instance, looking at the cheapest data science degree list may be helpful for cost comparison, but electrical engineering programs often involve different equipment, sequencing, and accreditation requirements.

The table below highlights common red flags and better alternatives to look for during program research.

A reputable program should be transparent when the answer is inconvenient. If a school cannot clearly explain accreditation, lab access, transfer credits, or course availability, that uncertainty becomes your risk. The smarter move is to slow down, ask for documentation, and compare at least three programs before making a financial commitment.

• Electrical Engineering Job Market: 2026 Outlook & Pay https://pathwise.io/electrical-engineering-job-market/
• What can you do with an electrical engineering degree? - People of Pacific https://www.pacific.edu/blog/2025/01/24/what-can-you-do-with-an-electrical-engineering-degree/
• Blog - What is the Difference Between Electrical and Power Electronics? https://www.redlinegroup.com/insight-details/what-is-the-difference-between-electrical-and-power-electronics
• 2025 Most Affordable Bachelor's in Engineering Online https://www.onlineu.com/most-affordable-colleges/engineering-degrees
• Criteria for Accrediting Engineering Programs, 2025 - 2026 - ABET https://www.abet.org/accreditation/accreditation-criteria/criteria-for-accrediting-engineering-programs-2025-2026/