Computer Engineering vs. CS Degrees (Curriculum Guide)

Computer engineering (CE) focuses more on how computers are built and connect to devices; computer science (CS) focuses more on software, algorithms, and computing systems. Both include programming and can lead to overlapping careers. Compare required courses, accreditation, costs, and transfer rules at each college before choosing: degree names alone do not show what you will study.

Choosing between CE and CS can feel like choosing between two versions of the same major. The overlap is real, but required courses and lab work can differ. My practical recommendation is to compare course lists, not just labels, then match them to the work you want to try.

A useful way to start is to ask whether you are more curious about what happens inside a device, what software makes it do, or both. You do not need to be certain yet. But knowing which courses you want to take can help you avoid a costly change of direction.

Admissions, Accreditation & Program Overview

This section explains how to check whether a program fits your academic preparation, transfer plans, and goals. Admissions rules and degree requirements vary by college, so use each school’s current catalog and published policies rather than relying on a general GPA, test score, or course list.

Admissions preparation and program checks

Admissions preparation means building the math, science, and programming foundation that will help you start college-level work. These courses are useful targets, not universal entry rules. Each college sets its own prerequisites, application standards, and capacity limits for CE and CS programs.

Before applying, review the required high school courses and any separate admission process for the major. There is no national GPA or test-score cutoff for either field. Some colleges admit students to the university first and then require them to apply to a major; others set different rules for first-year and transfer applicants.

For preparation, prioritize algebra through calculus, physics, and introductory programming when available. CE students may benefit especially from calculus-based physics because many programs include circuits, electronics, and engineering science. CS students also need strong math skills, including discrete mathematics, which studies countable structures and logical relationships.

Check these details on each college’s official site:

• Required high school or college courses, application deadlines, and test policies
• Whether the major has capacity limits or a separate application
• First-year and transfer admission rules
• Course prerequisites and the order in which required courses must be taken

Accreditation and degree planning

Accreditation is an external review of an institution or program against set standards. Institutional accreditation covers the college as a whole; programmatic accreditation reviews a specific field of study. Accreditation can matter for transfer, licensure in some fields, or employer requirements, but its value depends on your plans.

Confirm institutional accreditation using the U.S. Department of Education’s database of recognized accreditors. CHEA also offers an accreditation directory. For program review, look for ABET accreditation by the Engineering Accreditation Commission (EAC) for computer engineering, or by the Computing Accreditation Commission (CAC) for computer science, where offered. ABET accredits specific programs, not an entire college.

Many U.S. bachelor’s degrees require about 120 semester credits, though engineering programs may require more. For programs accredited under the relevant ABET engineering criteria, the curriculum includes at least 30 semester credit hours in college-level math and basic science and 45 in engineering topics, plus a major design experience and broad education. Do not apply those figures to every CE program or to CS programs.

Ask each college for a degree map showing required courses by term. Compare total credits, lab requirements, electives, and expected time to completion. If you are transferring, get a written review of how your credits apply to the major before enrolling.

Computer Engineering vs. Computer Science: Curriculum & Degree Requirements

A curriculum is the set of courses and learning requirements needed for a degree. CE and CS share some foundations, but they differ in how much attention they give to hardware, software, engineering design, and theory. Course titles vary, so compare required course descriptions and program maps.

What computer engineering students study

Computer engineering combines computing with electrical and electronics engineering. Its courses often explore how hardware works and how software interacts with it. The exact balance varies by school, but labs and design tasks are common parts of many engineering programs.

Typical CE requirements may include:

• Programming and data structures
• Calculus, physics, and engineering mathematics
• Digital logic, circuits, and electronics
• Computer architecture, which explains how processors and memory work
• Embedded systems, where software runs on dedicated devices
• Engineering design and lab work

These courses can prepare students to work with devices, computer components, or systems that join hardware and software. A CE program may include substantial physics and lab time, so check its course sequence if you prefer a more software-focused degree.

What computer science students study

Computer science studies the methods used to create and understand software and computing systems. Students typically learn to write programs, reason about algorithms, and work with data and operating systems. Some programs also offer advanced study in areas such as artificial intelligence, security, graphics, or networks.

Common requirements may include:

• Programming, data structures, and software engineering
• Discrete mathematics and algorithms
• Operating systems and computer systems
• Databases and theory of computation
• Electives in areas such as AI, cybersecurity, or networks

CS is not only about coding. Algorithms and theory ask why a method works and how efficiently it solves a problem. The amount of hardware-focused study varies, so check whether a CS program requires computer architecture, systems courses, or lab work.

Side-by-side course comparison

This table shows common patterns, not rules for every college. Use it to identify questions for an adviser, then verify details in the catalog. A course with the same title can differ in depth, prerequisites, and lab hours across institutions.

The main decision rule is practical: lean toward CE if you want to study hardware, embedded systems, or device-level design. Lean toward CS if you are more interested in software, algorithms, or broad computing applications. Either degree can support overlapping roles when your courses and experience fit the work.

Academic Success, Projects & Student Experience

Academic success depends on more than choosing the right label. Course sequencing, access to labs, support in math, and opportunities to build projects all shape the experience. Compare these features at each college, especially if you are changing majors or bringing credits from another institution.

Course plans and transfer-credit risks

A prerequisite is a course you must complete before taking a later class. CE and CS often have courses that build in sequence, so a transfer credit may count toward general education but not replace a required major course. That can affect both time to graduation and total cost.

Before transferring or changing majors:

• Request a written evaluation of each completed course.
• Ask whether it satisfies a major requirement, a prerequisite, or only an elective.
• Compare the remaining course sequence with your expected graduation date.
• Check whether required courses are offered every term or only once a year.
• Recalculate total cost based on credits that apply to the degree.

Accepted credit count alone can be misleading. A course may transfer without meeting a specific requirement. For technical classes, ask whether the college has a formal course equivalency and whether a lab must be completed there.

Projects, labs, and a realistic course-plan example

A project is a way to apply course ideas to a working problem. For CE, that might mean combining a small device with code; for CS, it might mean building software or testing an algorithm. These examples describe possible student work, not guaranteed assignments at any particular college.

Consider a student deciding between two programs. One curriculum requires circuits, electronics, and embedded systems; the other requires algorithms, databases, and software engineering. If the student wants to build a sensor device and program its behavior, the first plan may fit better. If the student wants to design an app or work on data tools, the second may be a closer match.

Another student may want both. They should compare the programs’ electives, computer systems courses, labs, and project options. A CS program with strong systems and hardware electives may fit some goals; a CE program with substantial software coursework may fit others. Ask faculty or advisers which courses students can actually take and whether seats are limited.

For either major, look for access to research, internships, co-ops, student project teams, and a capstone. A capstone is a final project that applies skills from the degree. These opportunities help you test your interests and show what you can do.

Career Pathways, Employment Outcomes & Graduate Study

Career pathways are possible directions after a degree, not guaranteed results. CE and CS graduates can enter related areas, but employers may look for specific skills, projects, and experience. Compare actual courses and student outcomes rather than assuming a degree title alone determines job options.

Matching coursework to career interests

CE coursework can support interests in embedded systems, computer hardware, electronics, and hardware-software integration. CS coursework can support interests in software development, algorithms, databases, security, and other computing areas. These are broad examples; job duties and qualifications differ across employers.

The degree is one part of preparation. A student interested in embedded work could build relevant experience through CE courses, projects, or internships. A student pursuing software roles could do the same through CS coursework and a portfolio of completed projects. Some roles accept applicants from either major, while others may seek focused technical preparation.

If you are comparing career outcomes, ask colleges how they collect and report placement data. Check who is included, when the survey was done, and whether outcomes distinguish CE from CS. Avoid relying on unverified placement claims or a single salary figure as a promise of what you will earn.

For graduate study, inspect the prerequisites for the programs that interest you. A CS graduate program may expect particular math or computing courses; an engineering program may require engineering foundations. Requirements differ, so check several current program pages before choosing undergraduate electives.

A practical selection checklist

Use this sequence to make a decision based on fit and cost, not a degree label alone:

1. List the work that sounds engaging: hardware, embedded devices, software, data, or a mix.
2. Compare required courses and electives at each college, including labs and prerequisites.
3. Verify institutional accreditation and any relevant ABET program accreditation.
4. Check net price, aid renewal rules, transfer-credit decisions, and time to degree.
5. Ask about internships, co-ops, project teams, research, and capstone options.
6. Discuss your course sequence with an adviser before changing majors or accepting transfer credit.

The best choice is the program whose required work matches your interests and whose cost and course plan are manageable. If you are undecided, compare first-year courses and confirm how easily students can move between the majors at that college.

Frequently Asked Questions

These short answers cover common questions about CE and CS degrees. Program details vary, so use them as a starting point and confirm requirements with the specific college, department, or graduate program you are considering.

Is computer engineering harder than computer science?
Neither is universally harder. CE often includes more physics, circuits, and lab work; CS often includes more software, algorithms, and theory. Your strengths and the program’s course design matter.

Do CE and CS students take the same classes?
They often share programming, data structures, discrete math, and computer systems. CE usually adds more hardware and engineering courses, while CS often adds more software, algorithms, and theory.

Which degree is better for software jobs?
Either can fit software roles. Compare programming, algorithms, software engineering, and project opportunities in each curriculum, then build relevant experience.

Which degree is better for hardware jobs?
CE is often the more direct route to hardware and embedded-system coursework. Check each program’s required circuits, electronics, architecture, and lab courses.

Does every CE program need ABET accreditation?
No single rule applies to every student or goal. Check whether ABET accreditation matters for your intended career or further study, and verify the specific program’s status.

Is a CS degree ABET-accredited?
Some CS programs have ABET accreditation through the Computing Accreditation Commission. Accreditation is program-specific, so confirm a particular program in ABET’s directory.

Can I switch from CS to CE, or CE to CS?
Often it is possible, but added prerequisites may delay graduation. Ask an adviser to map the remaining courses and estimate the cost and time before switching.

Do I need calculus and physics before college?
They are useful preparation, especially for CE, but they are not universal admission requirements. Check each college’s published prerequisites and placement rules.

How many credits does a bachelor’s degree require?
Many U.S. bachelor’s programs require about 120 semester credits, while engineering programs may require more. Confirm the program catalog and your transfer-credit evaluation.

Can either degree lead to graduate school?
Yes, depending on the graduate program’s prerequisites. Review the entry requirements for specific programs and plan undergraduate electives accordingly.

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