2026 Online Electrical Engineering Degrees That Help Build Renewable Energy Systems Skills
Co-Founder and Chief Data Scientist
Choosing an electrical engineering degree for renewable energy is really a question of fit: power systems, electronics, controls, grids, and career return. The need is timely because the U. S. Energy Information Administration reported that renewables supplied nearly one-quarter of U. S. utility-scale electricity generation in 2024, increasing demand for engineers who understand grid integration and clean-power infrastructure.
This guide is for prospective students, career changers, and working technicians comparing online programs. You will learn what to study, which credentials matter, what costs to expect, and how to choose a reputable program.
Key Things You Should Know
- For bachelor's degrees, ABET accreditation is the key quality marker; for graduate programs, confirm institutional accreditation and whether the curriculum includes power systems, power electronics, controls, or energy conversion.
- The BLS reported a May 2024 median annual wage of $109,010 for electrical and electronics engineers, but renewable energy roles vary by industry, location, experience, and whether the job is design, operations, compliance, or project engineering.
- Online electrical engineering programs work best for students who can handle advanced math, structured lab requirements, and proctored exams; they are less ideal for learners seeking a low-math sustainability credential.
What is an online electrical engineering degree focused on renewable energy systems?
An online electrical engineering degree focused on renewable energy systems is usually an electrical engineering bachelor's or master's program with coursework in power systems, electric machines, power electronics, control systems, energy conversion, smart grids, and sometimes solar, wind, battery storage, or microgrid design. In most cases, the degree title is still "electrical engineering," not "renewable energy engineering." The renewable focus comes from electives, projects, labs, certificates, faculty research areas, and capstone topics.
This distinction matters because employers hiring for renewable energy infrastructure often need traditional electrical engineering competence first. Solar farms, wind plants, battery storage systems, EV charging networks, and grid modernization projects all depend on fundamentals such as circuit analysis, electromagnetics, three-phase power, protection, inverters, sensors, communications, and reliability.
The degree may be a good fit if you want to design, test, operate, or improve electrical systems that connect renewable generation to homes, businesses, and the grid. It may not be the best fit if your main interest is climate policy, environmental advocacy, construction management, or general sustainability without advanced calculus, physics, and engineering design.
The main degree options differ in purpose and audience. The table below summarizes how they typically compare so readers can match the credential to their starting point and career goal.
| Degree type | Best fit | Renewable energy relevance | Important caution |
| Online bachelor's in electrical engineering | First-time engineering students or transfer students seeking entry-level engineering roles | Builds the core foundation for power, electronics, controls, and grid-related work | ABET accreditation is especially important if you may pursue licensure or traditional engineering roles |
| Online master's in electrical engineering | Engineers who already have a bachelor's degree and want advanced technical depth | Can focus on power systems, power electronics, renewable integration, or controls | Many graduate engineering programs are not ABET-accredited because ABET is most commonly used for undergraduate engineering programs |
| Online graduate certificate in power or energy systems | Working engineers who want targeted upskilling without a full degree | Useful for adding grid, power electronics, or energy-storage knowledge | May not substitute for an engineering degree when a role requires one |
| Electrical engineering technology degree | Students who prefer applied implementation, testing, and technical operations | Can support technician, technologist, or field roles in energy systems | It is not always treated the same as an engineering degree for licensure or design engineering jobs |
How do online electrical engineering programs compare to campus-based options for renewable energy?
Online and campus-based electrical engineering programs can lead to similar academic outcomes when the online program has strong accreditation, rigorous labs, faculty access, and the same learning objectives as the campus version. The biggest difference is not whether the content is "real engineering"; it is how labs, teamwork, advising, exams, and career networking are delivered.
Students comparing an online engineering degree should look beyond convenience. Electrical engineering is a high-structure discipline, so online learners need reliable weekly study time, access to required software, and comfort learning complex math-heavy material with less spontaneous in-person support.
The table below compares the practical trade-offs that matter most for renewable energy preparation.
| Factor | Online electrical engineering | Campus-based electrical engineering | Decision guidance |
| Labs | May use mailed lab kits, simulations, remote instruments, or short residencies | Uses physical campus labs with direct equipment access | Choose online only if the lab model is clearly explained before enrollment |
| Flexibility | Better for working adults, military students, caregivers, and students far from campus | Better for students who want a fixed schedule and in-person routine | Online flexibility helps only if the program still has predictable course availability |
| Renewable energy exposure | Depends heavily on electives, capstone options, and faculty expertise | May offer more in-person research labs, clubs, and local utility partnerships | Compare actual courses and projects, not just marketing language |
| Networking | Often relies on virtual advising, discussion boards, online career services, and employer webinars | Offers easier access to labs, student societies, career fairs, and local employers | Online students should be proactive about IEEE, internships, and professional contacts |
| Cost control | Can reduce relocation and commuting costs | May provide more access to campus facilities and assistantships | Total cost depends on tuition, fees, transfer credits, residency rules, and time to completion |
Online study is often the smarter choice for disciplined students who need geographic flexibility or who already work in energy, manufacturing, utilities, construction, or electronics. Campus study may be better for students who want heavy lab immersion, undergraduate research, in-person mentoring, or a traditional residential college experience.
Which U.S. schools offer accredited online electrical engineering degrees in renewable energy?
There are relatively few U.S. online electrical engineering degrees that are explicitly branded as renewable energy degrees. A more realistic search strategy is to look for accredited online electrical engineering programs with power, energy, power electronics, controls, or grid-related coursework. For bachelor's programs, verify ABET accreditation for the specific program and delivery format. For master's programs, verify institutional accreditation and the availability of relevant technical electives.
The schools below are examples of U.S. institutions known for online electrical engineering or closely related electrical and computer engineering options that may support renewable energy systems preparation. Program details can change, so students should confirm accreditation, course availability, lab requirements, state authorization, and whether renewable energy electives are offered in the term they plan to enroll.
| School | Online degree example | Accreditation point to verify | Renewable energy systems fit |
| Arizona State University | Online Bachelor of Science in Engineering in Electrical Engineering | Confirm ABET status for the online electrical engineering program | Useful foundation for circuits, electronics, signal processing, and power-related electives |
| University of North Dakota | Online Bachelor of Science in Electrical Engineering | Confirm ABET accreditation and any required campus visits or lab arrangements | Strong fit for students interested in power systems, energy conversion, and utility-related engineering |
| Florida International University | Online Bachelor of Science in Electrical Engineering | Confirm ABET status and online lab expectations | Can support preparation in power, electronics, communications, and controls used in renewable infrastructure |
| Mississippi State University | Online Bachelor of Science in Electrical Engineering | Confirm ABET status for the electrical engineering program | Relevant for students seeking a broad EE foundation with power and systems applications |
| North Carolina State University | Online Master of Science in Electrical Engineering | Confirm institutional accreditation and graduate course availability | Good fit for engineers seeking advanced work in power electronics, power systems, and controls |
| University of Colorado Boulder | Online Master of Science in Electrical Engineering | Confirm institutional accreditation and graduate degree requirements | Relevant for students interested in power electronics, embedded systems, and modern electrical design |
| Kansas State University | Online graduate electrical and computer engineering options | Confirm institutional accreditation and concentration availability | May support study in electric power, control, and energy-related engineering topics |
Students should be cautious with programs that use broad sustainability language but do not list specific electrical engineering courses. A renewable energy career in engineering usually requires technical depth, not just an overview of clean energy markets.
What courses and technical skills do online electrical engineering programs teach for renewables?
Online electrical engineering programs prepare students for renewable energy systems by combining engineering fundamentals with specialized energy applications. The most valuable programs help students move from theory to design decisions: how an inverter behaves, how a grid responds to variable generation, how batteries are protected, and how controls keep systems stable.
The table below connects common courses to renewable energy skills so students can see whether a program's curriculum matches their goals.
| Course area | What students learn | Renewable energy application |
| Circuit analysis | Voltage, current, impedance, transient response, and network behavior | Foundation for solar inverters, battery systems, sensors, and power electronics |
| Electromagnetics | Fields, waves, transmission, and electromagnetic compatibility | Useful for generators, motors, cables, grounding, and interference issues |
| Power systems | Generation, transmission, distribution, load flow, faults, and protection | Central to grid-connected wind, solar, storage, and microgrid projects |
| Power electronics | Converters, inverters, switching devices, rectifiers, and efficiency | Critical for solar PV, battery storage, EV charging, and variable-speed wind systems |
| Control systems | Feedback, stability, dynamic response, and controller design | Used in turbines, inverters, energy storage, grid frequency support, and microgrids |
| Signals and data systems | Measurement, filtering, communications, and sensor data interpretation | Supports grid monitoring, predictive maintenance, and renewable asset performance analysis |
| Engineering design or capstone | Team-based design, documentation, testing, and trade-off analysis | Can be used to build or simulate a renewable system, smart grid component, or power converter |
Students should also look for technical tools that appear in job postings. These tools vary by employer, but renewable energy engineers often benefit from exposure to simulation, modeling, and design platforms.
- Power system simulation tools for load flow, fault analysis, protection coordination, and grid integration studies.
- Circuit and electronics simulation tools for converter design, inverter behavior, and component testing.
- Programming in Python, MATLAB, or similar environments for modeling, data analysis, automation, and controls work.
- CAD, schematic, or electrical design software for documentation, layouts, and system design review.
- Lab and instrumentation skills, including oscilloscopes, multimeters, data acquisition, sensors, and safety procedures.
A strong renewable energy path should not skip fundamentals. Students who only take overview energy courses may understand the industry but lack the engineering depth required for design, testing, and grid-facing technical roles.
What admission requirements and prerequisites do online electrical engineering programs typically have?
Admission requirements depend on degree level. Bachelor's programs usually expect a high school diploma or equivalent, transcripts, math readiness, and sometimes prior college coursework for transfer applicants. Master's programs typically require a bachelor's degree in electrical engineering, computer engineering, or a closely related engineering or science field. Applicants without an EE background may need prerequisite courses before taking graduate power or controls classes.
Online engineering admissions can be more selective than some students expect because math sequencing matters. Missing calculus, physics, or programming prerequisites can delay progress even if the student is otherwise admitted. This is similar to how hands-on online programs in other fields, such as an animal science degree online, may include practical requirements that are not obvious from the phrase "online."
Before applying, students should confirm the requirements that most often affect acceptance and time to graduation.
- Math readiness, usually including pre-calculus for lower-division entry and calculus for advanced standing or graduate preparation.
- Physics with lab, especially calculus-based physics for bachelor's engineering students.
- Prior coursework in circuits, programming, differential equations, linear algebra, or signals for transfer and graduate applicants.
- Minimum GPA requirements, which may differ for first-year, transfer, and graduate admission.
- Official transcripts from all prior institutions, including community college and military coursework.
- English-language proficiency documentation for applicants whose prior education was not in English.
- Technology requirements, including a computer capable of running engineering software, reliable internet, webcam proctoring, and possibly lab kits.
The most common mistake is applying before mapping transfer credits. Electrical engineering has strict course sequences, so a missing prerequisite can turn an expected two-year completion plan into a longer path. Ask for a written degree plan after transcript evaluation, not just a general estimate from admissions.
How long do online electrical engineering degrees take and what do they cost?
Completion time depends on degree level, transfer credits, course load, and how often required courses are offered online. A full bachelor's degree commonly takes about four years for first-time full-time students, while transfer students may finish faster if prior math, science, and engineering credits apply. Online master's programs are often designed for working engineers and may take about two to three years part time.
Cost varies widely by public or private status, residency rules, tuition model, engineering fees, software, lab kits, and whether the student loses credits in transfer. College Board's 2024 Trends in College Pricing reported average published tuition and fees of $11,610 for in-state public four-year students and $43,350 for private nonprofit four-year students for 2024-25. Online students should use those figures as context, not as a quote for a specific program, because engineering tuition and online fees may differ.
The table below shows the main time and cost drivers to compare before enrollment.
| Program path | Typical timeline | Major cost drivers | Best fit |
| First-time bachelor's student | Often about four years full time | Tuition, engineering fees, general education credits, lab materials, software, and course sequencing | Students starting an engineering career from the beginning |
| Transfer bachelor's student | Varies based on accepted credits and prerequisites | Lost transfer credits, repeated math or science courses, upper-division tuition, and lab requirements | Community college students, military learners, and adults with prior college credit |
| Part-time bachelor's student | Often longer than four years | Per-credit tuition, limited annual course load, and potential tuition increases over time | Working adults who need schedule flexibility |
| Online master's student | Often about two to three years part time | Graduate tuition, employer reimbursement rules, software, and elective availability | Engineers seeking advancement or specialization in power, controls, or energy systems |
| Graduate certificate student | Usually shorter than a master's degree | Per-credit tuition and whether credits later apply to a degree | Engineers who need targeted renewable energy or power systems skills |
Students comparing affordability across online fields, including resources on the cheapest MLIS degree online, should remember that engineering programs may carry extra costs for labs, software, proctoring, and course materials. The lowest tuition rate is not always the lowest total cost if credits do not transfer or required courses are offered infrequently.
To reduce cost without weakening program quality, take a deliberate approach before enrolling.
- Confirm whether the program charges online students in-state, out-of-state, or special distance-learning tuition.
- Request a transfer-credit evaluation before committing to a bachelor's completion plan.
- Ask whether lab kits, software licenses, proctoring, and exam fees are included in tuition or billed separately.
- Check whether employer tuition assistance, veterans benefits, state grants, or scholarships can be used for the online format.
- Compare total estimated cost to completion, not just cost per credit.
What renewable energy careers can graduates pursue with an online electrical engineering degree?
Graduates with electrical engineering preparation can pursue renewable energy roles in utilities, solar and wind development, battery storage, EV charging, manufacturing, consulting, grid modernization, and government or defense-related energy work. The best path depends on whether you prefer design, field operations, software-heavy modeling, project delivery, testing, or compliance.
Some renewable energy careers also overlap with environmental science, geoscience, land use, and resource assessment. Students more interested in subsurface resources, site characterization, or earth systems may want to compare electrical engineering with geology degrees online before choosing a major.
The table below summarizes common career directions and what electrical engineering contributes to each one.
| Career path | Typical responsibilities | Most relevant EE skills |
| Power systems engineer | Analyze generation, transmission, distribution, load flow, faults, and grid reliability | Power systems, protection, three-phase circuits, modeling, and standards awareness |
| Renewable energy project engineer | Support design reviews, equipment selection, interconnection, documentation, and construction coordination | Electrical design, codes, project communication, power electronics, and system integration |
| Solar electrical design engineer | Design or review PV electrical systems, inverters, wiring, protection, and interconnection packages | Circuits, power electronics, grounding, NEC awareness, and design software |
| Wind energy electrical engineer | Work on turbine electrical systems, substations, controls, grid connection, or reliability | Electric machines, controls, power systems, sensors, and diagnostics |
| Battery energy storage systems engineer | Support storage sizing, controls, safety, power conversion, and grid services | Power electronics, controls, thermal and safety awareness, modeling, and data analysis |
| Microgrid engineer | Design or evaluate systems that combine generation, storage, loads, and controls | Power systems, controls, protection, communication systems, and optimization |
| Grid integration analyst | Study how variable renewable generation affects reliability, congestion, voltage, and stability | Simulation, data analysis, power flow, forecasting, and technical reporting |
Entry-level graduates may start in electrical design, field engineering, test engineering, applications engineering, or utility engineering before moving into specialized renewable roles. Internships, senior projects, cooperative education, and hands-on technician experience can be especially valuable because employers want evidence that students can apply theory to real equipment and constraints.
What are salary expectations for electrical engineers working in renewable energy fields?
Salary expectations should be grounded in the broader electrical engineering labor market rather than treated as a renewable energy guarantee. The BLS reported a May 2024 median annual wage of $109,010 for electrical and electronics engineers. That figure is a useful benchmark, but individual pay can differ substantially by region, employer, degree level, industry, licensure, overtime expectations, and the complexity of the engineering work.
The table below shows how students can interpret salary potential across renewable energy-related roles without assuming one fixed outcome.
| Role category | Salary context | What can influence pay |
| Entry-level electrical engineer | Often benchmarked against general electrical engineering pay data | Internships, ABET degree, location, technical software skills, and industry |
| Power systems or utility engineer | May align closely with traditional electrical engineering compensation | Grid experience, PE licensure path, protection knowledge, and utility or consulting experience |
| Renewable project engineer | Can vary depending on whether the role is technical design, construction support, or project coordination | Field travel, construction experience, interconnection knowledge, and employer size |
| Battery storage or power electronics engineer | May reward specialized technical depth in converters, controls, and safety-critical systems | Graduate study, modeling skills, hardware experience, and high-demand technical specialization |
| Engineering manager or senior technical lead | Typically requires experience beyond the degree | Leadership, project responsibility, licensure, client management, and complex system ownership |
Students should evaluate salary return by comparing the program's total cost, completion time, employer reputation, internship access, and technical fit with target jobs. A more expensive program may be worthwhile if it has strong accreditation and relevant labs, but cost alone does not determine return on investment.
What is the job outlook for electrical engineers in the renewable energy sector?
The job outlook for electrical engineers is supported by two forces: broad demand for electrical and electronic systems and continued investment in grid modernization, electrification, automation, and clean energy infrastructure. The BLS projects employment for electrical and electronics engineers to grow 9% from 2023 to 2033, faster than the average for all occupations. For students, this indicates a favorable general engineering market, but it should not be read as a guarantee for every renewable energy specialty or region.
Renewable energy work is also changing because modern projects are increasingly digital. Engineers may be expected to understand sensors, communications, cybersecurity basics, data analytics, AI-assisted monitoring, and automated controls in addition to traditional electrical design. This is especially true for grid-scale solar, wind farms, battery storage, EV charging networks, and microgrids that rely on continuous monitoring and control.
Students can strengthen their outlook by building a portfolio that shows applied competence, not just completed coursework. Useful evidence can include a capstone project on solar inverter design, a microgrid simulation, a battery storage model, a protection coordination study, or a data analysis project using renewable generation data.
Common red flags can weaken job prospects even when the degree title sounds relevant. Avoid programs that lack transparent accreditation information, offer few upper-division engineering labs, do not teach power or controls, cannot explain how online students complete hands-on requirements, or advertise broad clean-energy outcomes without showing technical coursework.
How can students evaluate and choose a reputable online electrical engineering program in renewables?
Choosing a reputable online electrical engineering program requires more than scanning rankings or picking the lowest tuition. The right program should match your career goal, meet accreditation expectations, provide enough technical depth, and fit your schedule without delaying graduation through missing prerequisites or limited course rotations.
Use the following steps to evaluate programs in a practical order.
- Verify accreditation first. For bachelor's programs, confirm ABET accreditation for the specific electrical engineering program; for graduate programs, confirm institutional accreditation and the technical legitimacy of the curriculum.
- Match the curriculum to your target role. Look for power systems, power electronics, controls, electric machines, energy conversion, grid integration, and design projects if you want renewable energy systems work.
- Ask how labs work online. Confirm whether labs use mailed kits, simulations, remote equipment, approved local facilities, or short campus residencies.
- Request a course rotation plan. Make sure required courses are offered often enough for your desired graduation timeline.
- Check transfer-credit rules before enrolling. Ask which credits apply to engineering requirements, not just general electives.
- Review faculty and project opportunities. Look for instructors or research areas connected to power, energy, controls, electronics, or grid modernization.
- Compare total cost to completion. Include tuition, fees, lab kits, software, proctoring, books, travel, and any repeated prerequisites.
- Ask about career support for online students. Confirm access to advising, internship support, employer events, resume help, and engineering student organizations.
It can also help to compare how different online fields disclose outcomes and requirements. For example, a program page for an engineering degree should be much more specific about math, labs, software, and accreditation than many non-engineering online programs because technical sequencing has a direct effect on graduation time and career eligibility.
Before you decide, ask admissions or the department these direct questions.
- Is the online bachelor's electrical engineering program ABET-accredited, and is the accreditation the same as the campus program?
- Which renewable energy, power systems, power electronics, controls, or grid-related courses are offered online in the next two academic years?
- How many credits from my prior transcript apply directly to the electrical engineering major?
- Are exams live-proctored, asynchronous, or scheduled at fixed times?
- What hardware, software, lab kits, or campus visits are required?
- Can online students complete renewable energy capstones, internships, research projects, or industry-sponsored design work?
- What percentage of the degree can be completed online, and are there any state authorization limits?
The strongest choice is usually the program that gives you the clearest path from current credits to engineering competence, not simply the one with the most attractive renewable energy language. If a school cannot explain accreditation, labs, transfer credits, and upper-division course availability in writing, treat that as a serious warning sign.
Other Things You Should Know About Electrical Engineering
Possibly, but requirements vary by state. An ABET-accredited bachelor's degree is commonly important for the PE licensure path, along with passing exams and gaining supervised engineering experience. Always check your state engineering board before enrolling.
Not always. Many entry-level roles require a bachelor's degree in electrical engineering or a related field. A master's can help for specialized work in power electronics, controls, grid modeling, or research-heavy roles, but experience and project evidence also matter.
Usually, yes. Electrical engineering requires advanced math, physics, circuits, labs, and design analysis. Renewable energy management programs may focus more on policy, finance, operations, or project delivery, which can be better for students who do not want a highly technical engineering path.
Useful options include power systems, energy systems, computer science, data analytics, sustainability, project management, or environmental policy. The best pairing depends on whether you want a technical design role, grid analysis role, or project-focused career.
References
- Powering Your Future: Essential Skills & Certifications for Electrical Engineers in Renewable Energy - CalTek Staffing https://caltekstaffing.com/powering-future-essential-skills-certifications-electrical-engineers-renewable-energy/
- Clean Energy Careers Guide - By Career Pathway | Clean Energy Council https://cleanenergycouncil.org.au/working-in-clean-energy/careers-guide/clean-energy-careers-by-career-pathway
- Renewable energy jobs · Electrical Engineering https://rejobs.org/en/renewable-energy-jobs/electrical-engineering
- BS Electrical and Renewable Energy Engineering https://ee.emu.edu.tr/en/programs/undergraduate-programs/bs-electrical-and-renewable-energy-engineering
- The Professions Shaping the Future of the Energy Transition https://www.energierecrute.com/en/energy-environment-news/7475-the-professions-shaping-the-future-of-the-energy-transition
- A Guide to Careers in Renewable Energy for Electrical Engineering Graduates https://www.climate17.com/blog/a-guide-to-careers-in-renewable-energy-for-electrical-engineering-graduates-fcro
- 72. The Best Online Courses for Aspiring Electrical Engineers - Doyen Engineering https://doyenengineering.ca/72-the-best-online-courses-for-aspiring-electrical-engineers-3/
- Renewable Energy Engineer: Empowering Sustainable Futures https://enable.green/esg-roles/green-energy-careers/renewable-energy-engineer-job-description/
- Electrical Engineering for Sustainable and Renewable Energy | Hochschule Coburg https://www.hs-coburg.de/en/study/bachelor-degree-programs/bachelors-degree-programs-in-engineering-and-computer-science/electrical-engineering-for-sustainable-and-renewable-energy/
