EE vs Computer Engineering (Major Selection)

Electrical engineering focuses on circuits, electronics, signals, power, and other physical systems. Computer engineering focuses on digital hardware, computer architecture, embedded systems, and how hardware works with software. The majors overlap, and neither is universally better or easier. Compare the courses, projects, accreditation, transfer rules, and total cost at each school before choosing.

A major can sound like a career promise. In practice, the course list and the projects you complete often tell you more than the name does. The key question is not simply whether you like computers. It is whether you want to work mainly with electronic systems, digital hardware, software that controls devices, or some combination.

I help students start with that distinction, then check whether a school’s actual degree plan supports their goals. That second step matters: EE and computer engineering (CE) programs vary by university, and a course that transfers to a college may not count toward the engineering major.

EE and computer engineering: what each major emphasizes

Electrical engineering studies the design and use of electrical and electronic systems, from circuits to power networks. Computer engineering applies engineering methods to computer hardware and systems that connect hardware with software. Both majors use math, physics, programming, labs, and design, but their upper-level focus can differ.

What does an electrical engineering major study?

An EE program often centers on electrical systems and how they behave. Students may study circuits, electronics, signals, electromagnetics, communications, power, or control systems. The exact mix depends on the school and the electives a student selects.

Consider EE if you are drawn to questions such as how a sensor measures something, how a signal travels, or how an electrical system is controlled. Some EEs work with computers or embedded devices, too; the major does not rule out those fields.

What does a computer engineering major study?

A CE program often centers on digital systems and the links between hardware and software. Courses may cover digital logic, computer architecture, embedded systems, programming, and operating systems. Some programs include substantial EE coursework, while others lean more toward computing.

Consider CE if you are curious about how a processor works, how software interacts with a device, or how to build a system that combines both. Course names alone do not show the full balance, so read the required course list and look at student projects.

These are common patterns, not fixed rules. A school’s degree plan may place a topic in either major or offer it as an elective.

Curriculum, prerequisites, accreditation, and degree requirements

A curriculum is the set of required courses and electives for a degree. Compare actual degree maps, not just program descriptions: two majors with similar names can require different courses, labs, and credit totals. Also check prerequisites, since a delay in one required course can affect when you take later courses.

Which courses and prerequisites should you expect?

Both majors commonly require calculus, calculus-based physics, and programming. EE programs often add a sequence in circuits and electronics, then build toward areas such as signals or electromagnetics. CE programs commonly add digital logic and computer architecture, with courses in embedded systems or software.

Use each university’s published plan to check the exact requirements. Find out which math and science courses are needed for admission to the major, not only admission to the college. There is no single GPA or test-score cutoff for all EE or CE programs. Some schools also publish separate capacity rules or GPA guidance for math and science courses.

Before applying or changing majors, ask an adviser:

• Which courses must I complete before entering upper-division engineering?
• Are there minimum grades in math, physics, or programming?
• How often are required courses offered?
• Can I switch between EE and CE, and which credits would count?

How do ABET accreditation and degree requirements fit in?

ABET accreditation is a program-level review of whether an engineering program meets set standards. For an engineering degree, check whether the specific program and campus appear in ABET’s directory under the Engineering Accreditation Commission (EAC). A university’s general accreditation is separate and does not replace engineering program accreditation.

ABET’s EAC criteria include at least 30 semester credit hours in college-level math and basic sciences, at least 45 semester credit hours in engineering topics, and a culminating engineering design experience. Check the current criteria and the school’s published curriculum; the criteria do not make two programs identical.

Accreditation can matter for some employers, graduate paths, or professional licensing steps. Requirements depend on the role and state. If you may pursue professional engineering licensure, review the rules where you expect to work and ask an adviser how your degree fits. Do not assume accreditation alone guarantees a job or license.

Academic success, projects, labs, and student experience

Engineering study involves more than lectures. Labs, team projects, and design work help students apply math and theory to real systems. The amount and type of hands-on work vary by program, so inspect course descriptions, lab requirements, and examples of senior projects before deciding.

Which major fits your interests and learning style?

Think about the work you would willingly spend time learning, not only the job title you hope to earn. A student who enjoys analyzing circuits may prefer an EE course path. Someone who likes programming a device and understanding its processor may lean toward CE. Both paths require persistence with math, debugging, and technical problem-solving.

These scenarios are illustrative, not reports of specific students:

• A student interested in power and energy systems may find more relevant required courses in an EE plan. They should still check whether the school offers power electives, labs, or project options.
• A student who wants to build a small device that senses and processes data may find CE’s digital logic and embedded systems courses useful. An EE program with relevant electives could also fit.
• A student who likes both electronics and coding should compare course requirements and design projects in both majors. The best match may depend on which skills they want to study in greater depth.

I suggest reviewing a sample project from each department and asking who can join the team, what skills are taught, and whether the work is part of a course or an optional club. A project title is not enough to judge the experience.

How can you prepare and avoid transfer delays?

Build a strong base in the math, physics, and programming courses available to you. You do not need to arrive knowing advanced engineering topics, but steady practice in these foundations will help. At college, meet with an engineering adviser before changing majors or selecting a course that may affect a prerequisite chain.

Transfer credit deserves special care. A course may transfer as general credit without satisfying a required engineering course. Ask for a written, course-by-course evaluation before committing to a transfer. Check whether labs transfer too, and whether accepted courses meet prerequisites for later classes.

Compare each degree map’s total credits and course sequence. Then use the school’s net price calculator and check financial-aid renewal terms. Sticker price alone does not show your likely cost, and a delayed sequence can add time and expense.

Career pathways, internships, and employment outcomes

A major can prepare you for several kinds of technical work, but it does not guarantee a particular job or salary. Career options depend on courses, projects, internships, location, and employer needs. Compare the skills in job postings with the skills taught in each program, and review current employment data for the roles you are considering.

What careers can EE and CE graduates pursue?

EE graduates may pursue work involving electronics, power systems, communications, control systems, or signal processing. CE graduates may pursue work involving computer hardware, embedded systems, digital design, or hardware-software integration. These are examples, not exclusive lists: graduates from either major may enter overlapping roles.

The U.S. Bureau of Labor Statistics (BLS) groups jobs by occupation, not by college major. Its occupational profiles can help you review duties, education expectations, and employment projections for a role. They cannot tell you that one degree will produce a certain outcome for an individual graduate.

Internships and project work can help you test a field and show applied skills. Look for opportunities that match your intended direction, such as a hardware lab, electronics project, power-related role, or embedded systems team. Ask each department how students find internships and whether courses include industry or design work.

How should you compare job and pay information?

Use BLS data to examine specific occupations rather than treating “EE jobs” and “CE jobs” as single categories. Check the date, location, and occupation definition. Pay and demand can vary by role and region, while job postings may ask for skills that cross major boundaries.

Review several current postings for roles that interest you. Note recurring tools, programming languages, and technical skills, then compare those with each degree plan. This can reveal whether a program offers the needed electives or whether you may need projects, internships, or further study.

How to choose between EE and computer engineering

A useful choice combines academic fit with practical checks. Start with your preferred technical work, then verify that a specific program offers the courses and experiences to support it. Finally, compare admission rules, accreditation, transfer credit, degree timing, and net cost before you enroll.

Use this short process:

1. Name the work that interests you. Is it electrical systems and electronics, digital hardware and computing, or a mix?
2. Compare required courses. Mark the courses you look forward to and the ones you would rather avoid. Check upper-level electives, not just the first-year plan.
3. Check program details. Confirm EAC accreditation for the exact program and campus, plus admission and capacity rules.
4. Map time and cost. Review prerequisites, course availability, total credits, transfer decisions, net price, and aid renewal terms.
5. Talk with people in the program. Ask advisers and current students about labs, projects, internship access, and how often required courses run.

If you are undecided, do not treat that as a failure to choose. Compare first-year requirements and talk with an adviser about which courses keep both paths open. Be aware that switching later can add time if the majors have different prerequisite sequences. Get a course-by-course plan before making the change.

Frequently asked questions

These answers address common concerns about choosing an undergraduate EE or computer engineering program. Use them as a starting point, then confirm details with the university, the relevant department, and current professional or licensing guidance where needed.

Is electrical engineering harder than computer engineering?
Neither major is universally harder. Difficulty depends on your strengths, interests, preparation, and the courses at your school. Compare actual requirements and talk with students in both programs.

Is computer engineering part of electrical engineering?
At some universities, computer engineering is housed in an electrical engineering department. At others, it is a separate program. The department structure does not tell you the exact curriculum, so check the degree plan.

Can an EE major work in computer engineering?
Yes, some EE graduates work in areas that overlap with computer engineering, especially when their courses, projects, and experience build relevant skills. Employers set role-specific requirements.

Can a computer engineering major work in electrical engineering?
Some CE graduates enter roles involving electronics or related systems, depending on their coursework and experience. Check the required skills for the jobs you want.

Which major has more programming?
It varies by school. CE often includes more required programming and computer systems courses, but EE programs may also require programming and offer software-related electives. Compare course lists.

Do both majors require calculus and physics?
Many U.S. engineering programs require calculus and calculus-based physics. Exact courses and prerequisites vary, so verify the requirements at each institution.

Should I choose based on salary?
Use current BLS data and job postings to compare specific occupations, not degree labels alone. Salary also depends on role, location, experience, and other factors.

Will changing from EE to CE delay graduation?
It may, especially if required courses have different prerequisites or are offered only once a year. Ask an adviser to map your completed credits against the new degree plan before switching.

Does ABET accreditation matter?
It can matter for some employers, graduate pathways, and professional licensing routes. Check the specific program and campus in ABET’s directory, then confirm requirements for your intended career.

(This article was written by one of our staff writers, Michael Harrington. Visit our Meet the Team page.)