Is an EE Degree Worth It in 2026?

You are probably running the same mental calculation that every prospective EE student runs. Computer science pays about the same, the coursework is apparently less painful, and software engineering jobs seem to be everywhere. Why would anyone choose the harder path?

That calculation is reasonable, and if your primary goal is a high-paying tech career with the least resistance, computer science is the more efficient route. But it is also incomplete, because it treats the degree purely as a salary delivery mechanism and ignores the fact that EE and CS lead to fundamentally different careers. The EE graduates who are happiest are not the ones who chose it for the money. They are the ones who chose it because they genuinely want to understand how physical electronic systems work.

The Real ROI of an Electrical Engineering Degree

Electrical engineering has one of the strongest financial returns of any undergraduate degree. The numbers are not ambiguous.

Entry-level electrical engineers typically earn between $75,000 and $85,000 in their first year. Mid-career salaries (10 to 15 years experience) range from $100,000 to $140,000. Senior engineers and engineering managers regularly exceed $150,000, and semiconductor engineers in high-cost markets can reach $180,000 to $220,000 with stock compensation¹.

The average total cost of a four-year degree at a public university (in-state) is approximately $104,000 including room and board. At that price point, an EE graduate earning $80,000 in year one has a payback period of roughly three to four years when compared to the median earnings of someone with only a high school diploma ($38,792). At a private university costing $200,000+, the math still works but takes longer².

Compare this to other common majors. Business administration graduates start at $55,000 to $65,000. Psychology graduates start at $40,000 to $50,000. Even computer science graduates, who represent the closest comparison, start slightly lower at $75,000 to $90,000 for software roles (though the ceiling in Big Tech can be higher). The EE degree's ROI is not just about peak earnings but about the reliability of the floor. Almost no one with an EE degree and a willingness to relocate struggles to find work paying above $70,000.

The CS Comparison Everyone Makes

This is the elephant in the room, so let us address it directly.

The numbers tell a clear story. CS has faster job growth, comparable or higher salaries at the top end, and a less grueling curriculum. If you treat both degrees as interchangeable paths to a tech salary, CS wins on effort-to-reward ratio.

But they are not interchangeable. EE graduates design the chips that CS graduates write code for. They build the power systems that keep data centers running. They design the antennas in your phone, the sensors in autonomous vehicles, and the control systems in manufacturing plants. None of this work can be done by a computer science graduate, regardless of how good they are at coding¹.

The students who regret choosing EE over CS are the ones who wanted to write software all along. The students who are glad they chose EE are the ones who are genuinely interested in how physical systems work and find the intersection of math, physics, and engineering satisfying in a way that pure software is not.

When an EE Degree Is Absolutely Worth It

You want to work in semiconductor design. The semiconductor industry is experiencing a historic expansion driven by the CHIPS Act, AI hardware demand, and reshoring of chip manufacturing. Intel, TSMC, Samsung, Qualcomm, AMD, and Nvidia are all building new fabrication facilities and design centers in the United States. Starting salaries for VLSI design engineers are $85,000 to $110,000, and the demand for qualified EE graduates far exceeds the supply¹.

You want to work in renewable energy and power systems. The energy transition is creating enormous demand for power engineers who can design solar farms, wind turbine electrical systems, battery storage, and grid infrastructure. The Infrastructure Investment and Jobs Act and the Inflation Reduction Act have directed hundreds of billions toward energy infrastructure, and electrical engineers are the professionals who build it.

You want to work in defense and aerospace. Lockheed Martin, Raytheon, Northrop Grumman, and Boeing collectively employ tens of thousands of electrical engineers working on radar, communications, avionics, and electronic warfare systems. These are stable, well-paying jobs with strong benefits and retirement plans.

You want job stability that does not depend on trends. Software engineering jobs are abundant right now, but the field is also experiencing significant disruption from AI coding tools and periodic layoffs at tech companies. Electrical engineering roles in power, defense, and hardware manufacturing are less susceptible to these cycles because the work is physical and cannot be easily automated or offshored.

When an EE Degree Might Not Be Worth It

You primarily want a software career. If your goal is to work at Google, Meta, or a startup writing software, an EE degree gets you there but with significantly more suffering than a CS degree. EE graduates can and do become software engineers, but the path is less efficient.

You struggle with advanced math and physics. This is not a judgment. Some people's strengths lie elsewhere, and there is no shame in that. But EE requires genuine mathematical ability, and students who cannot pass differential equations and physics II will not complete the degree. Switching majors after two years of engineering prerequisites that do not transfer to your new major is an expensive mistake.

You want to work remotely and independently. Most electrical engineering work, particularly in hardware design, test, and manufacturing, requires physical presence in a lab or facility. Some roles in power systems design and signal processing can be partially remote, but EE is not a fully remote field in the way that software engineering can be. If location independence is a priority, CS offers more flexibility.

You are not willing to relocate. EE jobs are concentrated in specific geographic areas: Silicon Valley and Austin (semiconductors), Houston and the Midwest (power and energy), and the D.C. corridor and Huntsville, Alabama (defense). If you are not willing to move to where the jobs are, your options narrow significantly.

The Hidden Financial Advantages

Internship pay is exceptional. EE internships typically pay $25 to $45 per hour, and co-op programs at companies like Texas Instruments, Intel, and Raytheon offer even more. A student who completes two summer internships earns $15,000 to $25,000 before graduation, which offsets tuition costs meaningfully.

The salary floor is high. Even EE graduates who do not land their dream job earn $65,000 to $75,000 in less competitive markets. The degree provides a baseline earning level that most humanities and social science degrees cannot match.

Employer-funded graduate education is common. Many engineering employers, particularly in defense and semiconductors, offer full tuition reimbursement for master's degrees. This means you can earn a graduate degree worth $40,000 to $80,000 without paying for it yourself, further increasing the lifetime ROI.

The PE license compounds earning power in specific subfields. In power engineering, holding a PE license adds $10,000 to $20,000 annually and is required for roles that involve signing off on engineering designs. The investment in passing the FE and PE exams pays for itself within the first year³.

Your EE Degree Action Plan: Maximizing ROI

Before college: Strengthen your math foundation. If you are not comfortable with precalculus and basic physics, take them in high school. The students who struggle most in EE are the ones who arrive at college needing remedial math courses, which pushes the entire prerequisite chain back by a year.

Freshman and sophomore years: Focus on the math and physics sequence. Pass these courses solidly, because they are the foundation for everything in upper-division EE. Join an engineering club or design team (Formula SAE, IEEE student chapter, robotics club) to stay motivated during the prerequisite grind.

Junior year: Complete your first internship or co-op. Begin choosing your specialization area (power, electronics, signals, computer engineering). Apply for summer positions at companies in your target industry.

Senior year: Complete your capstone project, take the FE exam, and secure full-time employment or graduate school admission. Students who graduate with two internships and an FE certification have the strongest employment outcomes.

FAQ

Is electrical engineering worth it compared to computer science?

For students interested in hardware, power, and physical systems, absolutely. EE starting salaries are comparable to CS ($75,000-$85,000 vs. $75,000-$95,000), and the career paths are distinct. For students who primarily want software careers, CS is more efficient. The degrees are not interchangeable substitutes, despite similar pay.

Can you make $200,000 as an electrical engineer?

Yes, in specific roles and locations. Semiconductor design engineers in Silicon Valley, senior RF engineers at defense contractors, and engineering managers can all exceed $200,000 with 10+ years of experience. This is less common than in software engineering, but it is achievable.

Is electrical engineering still in demand?

Yes, though growth is slower (2% projected 2023-2033) than software fields. The demand is concentrated in semiconductors (CHIPS Act expansion), renewable energy, and defense. The Bureau of Labor Statistics projects approximately 18,000 job openings per year through 2033, driven primarily by retirements and transfers rather than new positions¹.

Do electrical engineers need a master's degree?

Not for most positions. The majority of EE jobs require only a bachelor's degree. A master's opens doors to specialized design and R&D roles and typically adds $10,000-$20,000 to starting salary. Many employers fund the master's degree through tuition reimbursement, making it a low-risk investment.

Is it too late to switch to EE from another major?

It depends on how far along you are. Switching after freshman year is manageable. Switching after sophomore year may add one to two years because EE has a strict prerequisite sequence. The math and physics requirements are non-negotiable, and you cannot skip ahead.

What is the hardest part of an electrical engineering degree?

Most students cite the combination of electromagnetics and signal processing courses in junior year. These courses require strong mathematical foundations (vector calculus, complex analysis, differential equations) and abstract thinking about invisible phenomena. The workload during junior year is often the peak difficulty of the entire program.

More on this degree:

• Electrical Engineering Degree Guide -- Overview
• Career Paths
• Salary Data
• Requirements
• How Hard Is It?
• Internships
• Best Colleges