2026 Online Electrical Engineering Degrees With Embedded Systems Focus

An online electrical engineering degree with an embedded systems focus is a program that teaches core electrical engineering while adding coursework in microcontrollers, digital systems, computer architecture, firmware, sensors, and real-time control. "Embedded systems" means computing systems built into larger devices, such as electric vehicles, drones, medical monitors, smart appliances, industrial robots, and aerospace navigation equipment.

This path fits students who want to design the electronics and low-level software that make physical products work. It is usually a stronger fit than a general computer science degree for students who enjoy circuits, signals, electronics labs, and the interaction between code and hardware. It may be a poor fit for students who want mostly web development, business analytics, or nontechnical IT administration.

The degree type matters because employers and licensing boards may evaluate programs differently. The table below summarizes the most common online options and when each one makes sense.

If you are comparing engineering against adjacent fields, focus on the work you want to do every week. For example, students more interested in climate, ecosystems, or environmental regulation may find it useful to compare this path with what can you do with an environmental science degree before committing to a hardware-intensive engineering curriculum.

Accreditation should be the first filter, not an afterthought. In the U.S., the school should hold institutional accreditation from a recognized accreditor, and online bachelor's programs in electrical engineering should ideally hold ABET Engineering Accreditation Commission accreditation if the student wants the widest recognition for engineering roles and potential licensure.

Some universities offer fully online or mostly online electrical engineering pathways, while others offer online master's programs but not online ABET-accredited bachelor's programs. The examples below are not a ranking; they are starting points for verifying program format, accreditation status, residency rules, lab requirements, and embedded systems electives directly with each school.

Before applying, use a short verification process so you do not confuse a school's general reputation with the status of the exact online program. This is especially important for transfer students because accreditation, prerequisites, and residency policies can affect both graduation time and career eligibility.

1. Look up the exact degree title in the ABET accredited program search if you are considering an engineering bachelor's degree.
2. Confirm whether online students complete labs at home, through simulation, during short campus visits, or at approved local sites.
3. Ask whether embedded systems electives are offered online often enough to graduate on your planned schedule.
4. Request a transfer credit evaluation before enrolling if you have prior calculus, physics, programming, or circuit coursework.
5. Check whether the program's catalog language supports PE licensure preparation if licensure may matter in your state or industry.

A common mistake is choosing a broad "engineering" or "technology" program because it sounds similar to electrical engineering. Those programs can be valuable, but they may not lead to the same roles, licensure pathways, or graduate engineering options as an ABET-accredited electrical engineering bachelor's degree.

Online and campus electrical engineering programs can cover the same academic content, but the learning experience is different. The best choice depends on your schedule, need for physical labs, access to faculty, learning style, and whether you can relocate or attend campus sessions.

The comparison below highlights the practical trade-offs that matter most for embedded systems students, who often need both software practice and hardware lab experience.

Online learning is not automatically easier. Electrical engineering is math-heavy, cumulative, and lab-oriented, so students need disciplined study blocks and reliable access to equipment or software. Before enrolling, ask how exams are proctored, how quickly instructors respond, whether lab kits are included in tuition, and whether group projects require synchronous meetings.

Students who want interdisciplinary work should also think about application domain. For example, embedded systems now appear in precision agriculture, livestock monitoring, and environmental sensors; if the biological or agricultural side is more appealing than circuit design, an online bachelors in animal science may be a better comparison point than another engineering program.

An embedded systems curriculum builds from electrical engineering fundamentals into processor-based design. Students typically learn how circuits behave, how signals are measured, how software controls hardware, and how embedded devices communicate with other systems.

The exact course list varies by school, but the table below shows the subjects most relevant to embedded systems and why they matter for career preparation.

To get the most career value from the curriculum, students should plan projects rather than simply complete assignments. A strong embedded systems portfolio might include sensor data acquisition, motor control, wireless communication, PCB design, real-time scheduling, or a low-power device prototype.

Students often underestimate the importance of C and C++ because newer languages get more attention. For embedded systems, low-level programming remains important because devices often have memory, timing, energy, and safety constraints that make efficiency more than a preference.

Admission requirements depend on degree level and whether the program is designed for first-year students, transfer students, or working engineers. Online bachelor's programs in electrical engineering often expect strong preparation in mathematics and science because calculus, physics, and circuits form the base of the major.

The table below summarizes typical requirements so applicants can identify gaps before they spend money on applications.

Applicants who are not yet calculus-ready should not treat that as a dead end. A community college or lower-cost online pathway can be a practical way to complete prerequisites before transferring, as long as the target engineering school confirms that the credits will apply.

The most useful questions to ask admissions advisors are specific and documented. They help you avoid enrolling in a program that accepts you but does not actually match your embedded systems goal.

• Will the degree transcript say electrical engineering, computer engineering, engineering technology, or another title?
• Is the exact program ABET-accredited if it is a bachelor's engineering degree?
• Which embedded systems, microcontroller, real-time systems, or computer engineering electives are available online?
• How are labs completed, and what equipment or software must students buy?
• How many of my previous credits apply directly to degree requirements rather than only to electives?

An online electrical engineering bachelor's degree commonly takes about four years for a first-time full-time student, but many online learners finish on a different timeline because they transfer credits, work full time, or need prerequisite math courses. Transfer-heavy degree-completion students may finish faster, while part-time students may need five or more years.

Timeline depends less on the word "online" and more on course sequencing. Electrical engineering courses build on prerequisites, so missing calculus, physics, circuits, or programming can delay upper-division courses even when seats are available.

To shorten the path without weakening preparation, students should prioritize prerequisite planning. The smartest acceleration strategy is usually not taking too many engineering classes at once; it is avoiding avoidable delays in calculus, physics, circuits, and required labs.

1. Request a degree plan that shows every remaining course by term.
2. Identify courses offered only once per year and plan around them first.
3. Complete calculus and physics as early as possible because they unlock later engineering courses.
4. Ask whether summer terms include required engineering courses or only general education courses.
5. Keep a realistic weekly study budget because overloaded schedules often lead to repeats that cost more time.

A common red flag is a program that advertises a very fast finish but does not explain prerequisites, lab completion, or course rotation. In engineering, speed only helps if the program still builds the technical depth needed for internships, projects, and entry-level engineering work. 

Costs vary widely because online engineering students may pay tuition, technology fees, lab kit costs, proctoring fees, software or hardware expenses, and sometimes travel for labs or exams. College Board's 2024 pricing data reported average published tuition and fees of $11,610 for in-state public four-year institutions and $43,350 for private nonprofit four-year institutions for 2024-25, which shows why residency status and institution type can change the total price substantially.

When comparing online engineering degree cost, do not stop at tuition per credit. Engineering programs can look affordable until other fees, such as the following, are included:

• Tuition per credit or per term
• Mandatory online learning, technology, engineering, and student service fees
• Lab kits, meters, microcontroller boards, components, and shipping
• Software, computer hardware, cloud tools, or simulation platform costs
• Travel costs for required campus labs, orientations, exams, or presentations
• Books, exam proctoring, graduation fees, and transcript fees
• Opportunity cost if reducing work hours is necessary

The table below shows how to interpret cost differences. It is designed to help you compare value, not just identify the lowest sticker price.

To reduce costs, start with accredited public options, maximize transferable prerequisites, apply for employer tuition assistance if available, and avoid repeating math or physics by taking placement seriously. The cheapest program is not always the best value if it lacks the embedded systems electives, accreditation, or lab structure needed for your goals.

An embedded systems-focused electrical engineering degree can lead to roles that sit between hardware engineering, software engineering, and product development. Employers may appear in defense, aerospace, automotive, consumer electronics, semiconductor, energy, robotics, medical device, telecommunications, and industrial automation markets.

The table below connects common roles with the work they usually involve. Job titles vary by employer, so read job descriptions carefully instead of relying only on title matches.

AI and automation are changing embedded systems work, but they are not removing the need for engineers who understand physical systems. AI-assisted coding can speed up boilerplate firmware, test scripts, and documentation, while employers still need people who can reason about timing, safety, electromagnetic interference, hardware constraints, and real-world failures.

Students who discover they prefer organizing digital resources, information access, databases, and user services over building hardware may want to compare this path with a library degree, especially if their interest is more information systems than engineering design.

Embedded systems salaries are difficult to isolate in federal datasets because the work overlaps with several occupational categories. The most useful approach is to compare roles adjacent to embedded systems and then adjust expectations based on location, industry, degree level, security clearance, internship experience, and portfolio strength.

The table below uses U.S. occupational categories that commonly overlap with embedded systems work. These figures should be treated as labor-market context, not a promise of individual earnings.

Salary outcomes tend to improve when a candidate can show evidence of both engineering fundamentals and working systems. For embedded systems, that evidence may include a GitHub repository, PCB design files, oscilloscope screenshots, test reports, capstone documentation, or a short video showing a device functioning under realistic conditions.

One mistake is assuming that an online degree by itself determines salary. Employers usually evaluate the whole candidate: degree credibility, accreditation, internships, projects, programming ability, lab competence, communication skills, and whether the applicant can debug ambiguous hardware-software problems.

Certifications and licenses are not all equally important in embedded systems. A Professional Engineer license can matter in regulated engineering contexts, public infrastructure, consulting, power systems, and certain safety-critical roles, but many embedded systems engineers in consumer electronics, defense contracting, robotics, and software-heavy roles are not required to hold a PE license.

The table below explains which credentials are worth understanding before you choose a program or career path.

For most students, the best credential strategy is sequential: choose an accredited degree first, build embedded systems projects, add internships or co-ops, then pursue certifications that match the specific industry. A certification in a tool you do not use is usually less valuable than a documented project that proves you can design, test, and explain a working system.

If PE licensure might matter, contact your state engineering board before enrolling. Do not rely only on admissions language, because licensure rules can vary by state, degree type, work experience, and exam history.

• Online Electrical Engineering Degrees https://www.affordablecollegesonline.org/degrees/engineering-programs/electrical-engineering/
• Best Online Electrical Engineering Degrees 2025 https://www.onlineu.com/degrees/electrical-engineering
• Embedded Systems:From Product Designto PCB Layout https://www.altium.com/education/embedded-systems-program
• Embedded Systems Essentials with Arm Professional Certificate - Design Course https://www.arm.com/resources/education/online-courses/efficient-embedded-systems
• How to Become an Embedded Systems Engineer? - Maven Silicon https://www.maven-silicon.com/blog/how-to-become-an-embedded-systems-engineer/