How to Become an Electrical Engineer in 2026
Electrical engineers design and test systems that move or use electricity, from power grids and substations to chips, circuit boards, motors, and control systems. Day to day you spend most of your time in simulation and design software, in design reviews, reading specs and standards, running lab bench tests, and writing documentation. It is a desk-and-lab job with occasional site or fab visits, not a hard-hat job most of the time.
What it pays
$78,000
Entry level
$121,000
Median
$168,000
Experienced
The May 2025 BLS median for electrical engineers is about $121,000. Semiconductor and tech-hub roles in California, Texas, and Massachusetts pay well above that, while entry-level utility and government jobs sit lower, often with overtime and on-call pay during outages. Figures are national annual ballparks, not offers.
The 2026 job market
Hiring is genuinely strong in two areas at once. The power side is expanding hard because of grid buildout, renewable interconnection, and data center load. Utilities, EPC firms, and developers are competing so aggressively that some are poaching experienced engineers out of nuclear, military, and aerospace to fill roles. The chip side is hiring on the back of new domestic fabs and AI hardware, especially for analog, power electronics, and semiconductor process work. BLS projects about 7 percent growth for the field through 2034 with roughly 17,500 openings a year, which understates how tight power specifically is right now. The uncomfortable part is that AI tools are eating into the entry-level tasks that used to train juniors, including basic schematic capture, first-pass layout, and routine calculations. New grads now need to show they can do the judgment work AI cannot, and a generic "I know MATLAB" resume gets filtered out fast.
Ways in
ABET-accredited BS in Electrical Engineering
4-5 years · $40,000-$120,000 total in-state public; $180,000-$300,000 private
This is the standard route and the one that keeps every door open, including the PE license path. Hiring managers treat the ABET stamp as a filter, and a non-ABET degree can quietly block you from the FE exam in some states and from many utility and government jobs. Most students finish in 4 years, but co-op programs stretch it to 5 and are worth it for the paid experience.
ABET BSEE plus a co-op program (Northeastern, Cincinnati, Waterloo model)
5 years · Similar tuition to a 4-year BS, partly offset by 12-18 months of paid work at $20-$40 per hour
This fits students who learn better by doing and want a job locked in before graduation. Managers strongly prefer candidates who already have 6-18 months of real engineering work. A co-op resume beats a slightly higher GPA with no experience almost every time.
BS in a related field (physics, computer engineering) plus a master's in EE
5-6 years total · Add $30,000-$80,000 for the master's; many thesis-track programs waive tuition and pay a stipend
This works if you started in physics or computer engineering and want to pivot into EE, or if you want to specialize in power systems, RF, or semiconductors. A funded research MS or PhD is close to free and is the normal path into chip design and R&D roles that a BS alone will not reach.
Electrical engineering technology (BSET or associate) into a technician-to-engineer path
2-4 years · $10,000-$40,000
The honest version: an EET degree gets you technician and applied roles, not most jobs titled engineer, and in many states it does not qualify you for the PE. It is fine if you want hands-on field or test work, but do not expect it to substitute for an ABET BSEE at chip or design firms.
The roadmap
How to become an Electrical Engineer in 2026, step by step.
- 1
Get into an ABET-accredited EE program and survive the weeder sequence
Years 1-2Confirm the program is ABET-accredited before you enroll, because this is non-negotiable for the licensing path and many employers. The first two years are calculus through differential equations, physics, and Circuits I and II, which is where a lot of people wash out. Build the habit of office hours and study groups early, because Signals and Systems and Electromagnetics later are harder, not easier.
- 2
Pick a track and take the electives that match it
Sophomore to junior yearThe main branches are power systems, analog and RF, digital and embedded, semiconductors and devices, and controls. Power is the quietly excellent bet in 2026: strong demand, real job security, and the clearest use of the PE license. Take the depth electives for your track (power systems analysis and machines for power, VLSI and device physics for chips) so your transcript signals a specialty, not a survey.
- 3
Land at least one internship or co-op, ideally two
Summer after sophomore and junior yearsApply in the fall, not the spring. Big utilities, defense primes, and semiconductor companies close applications by October through December for the following summer. One relevant internship is worth more than a 0.3 GPA bump. Aim for a utility, EPC firm, or fab that maps to your track, and treat the internship as an extended interview for a return offer.
- 4
Take and pass the FE (Fundamentals of Engineering) exam before you graduate
Senior yearThe FE Electrical and Computer exam is a computer-based test through NCEES with about 6 hours of seat time, and you are eligible in your final year. Passing it makes you an Engineer in Training (EIT) and is the required first step toward the PE. Take it senior year while the coursework is fresh, because pass rates drop once you have been out of school for a while. It matters most in power and utilities and is a resume differentiator everywhere else.
- 5
Build a small portfolio of things you actually made
Junior year through graduationHave two or three concrete artifacts: a PCB you designed and got fabricated, an FPGA or microcontroller project with code on GitHub, a power system study in a tool like ETAP or PSS/E, or a documented senior design project. Managers want proof you can take a design from spec to working hardware, because AI now handles the rote steps and they are hiring for judgment. Be ready to explain your design tradeoffs in detail.
- 6
Run a focused job search targeting the two hot sectors
3-9 months before graduatingApply broadly starting in the fall of senior year, because entry pipelines at utilities, EPCs, defense firms, and semiconductor companies open early. Tailor each resume to name the specific tools and standards in the posting (SPICE, Altium, ETAP, NEC, IEEE 519) rather than a generic skills list. Use IEEE membership, career fairs, and internship contacts, because referrals still beat cold applications by a wide margin.
- 7
Accumulate qualifying experience and get your PE if your track needs it
Years 1-4 on the jobAfter the FE, most states require about 4 years of qualifying engineering experience under a licensed PE before you can sit for the PE exam. Log your experience and line up references early. The PE is close to mandatory for stamping designs in power, utilities, and consulting, and it typically comes with a real raise. In pure chip design and product companies it is often optional.
Skills that get interviews
- • Circuit design and SPICE simulation (LTspice, Cadence, Synopsys)
- • PCB design and layout (Altium Designer, KiCad, OrCAD)
- • Power systems analysis tools (ETAP, PSS/E, SKM, PSCAD)
- • MATLAB and Simulink for modeling and control
- • Embedded C and microcontroller or FPGA development (Verilog or VHDL)
- • Knowledge of the National Electrical Code (NEC) and IEEE standards (519, 1547, C57)
- • Lab bench instrumentation: oscilloscopes, spectrum analyzers, DMMs, power supplies
- • Reading and producing engineering schematics, single-line diagrams, and datasheets
- • Python for test automation and data analysis
- • Requirements, tolerance, and failure analysis (DFMEA, worst-case, signal integrity)
Licenses & certifications
- • FE (Fundamentals of Engineering) exam, leading to EIT status
- • PE (Professional Engineer) license, especially for power, utilities, and consulting
- • OSHA 10 or 30 for field and construction-adjacent roles
- • IPC certification (CID for PCB designers)
What nobody tells you
The degree is genuinely hard and the attrition is real
EE has one of the higher washout rates in engineering, mostly in the sophomore math and circuits sequence. If calculus and physics are a constant grind for you, budget serious study hours or reconsider before taking on debt for a degree you may not finish.
Power is the smart, underrated track but it can put you in specific places
Utility and EPC jobs are geographically sticky, often in less glamorous cities near generation, transmission, or industrial load. The tradeoff is excellent stability, pension-style benefits at some utilities, and a clear PE path. If you are set on a coastal tech hub, know that chip and product roles cluster in a few expensive metros where cost of living eats a chunk of the higher pay.
AI is thinning out the junior tasks that used to teach you the job
Basic schematic capture, first-pass layout, and routine calculations are increasingly automated. New grads who can only do the rote work are exposed. The engineers who stay valuable are the ones who understand physics deeply enough to catch when the tool is wrong and to own system-level tradeoffs.
The degree and the job are different skills
School teaches theory and idealized problems. The job is standards, tolerances, supply-chain parts availability, and making a real design manufacturable. Expect a 6-18 month ramp where you feel behind. Internships shrink that gap more than any class does.
FAQ
Do I need a degree to become an electrical engineer?
Yes, in practice. Nearly all electrical engineering jobs require at least a bachelor's degree, and an ABET-accredited BSEE is the standard. It is also required to sit for the FE and PE exams in most states. Self-taught or bootcamp routes do not exist for this field the way they do in software.
How long does it take to become an electrical engineer?
Plan on 4-5 years from zero: 4 years for an ABET bachelor's, or 5 with a co-op program that adds paid experience. You can start working as an engineer right after graduating. Getting a PE license takes about 4 more years of qualifying work experience on top of that.
Is electrical engineering worth it in 2026?
For most people, yes. The May 2025 BLS median is about $121,000, hiring is strong in both power and semiconductors, and job security is high. The main caveats are the difficulty of the degree and that entry-level tasks are being automated, so the value is highest for people who go deep on a specialty like power systems or analog design.
How hard is it to become an electrical engineer?
The degree is one of the tougher engineering paths, with heavy math through differential equations, physics, and abstract courses like Signals and Systems and Electromagnetics, plus a real washout rate in the first two years. Passing the FE exam and later the PE adds more work. Once you are in the field the difficulty shifts from exams to applied judgment, which most people find more manageable than school.
Majors that lead here
Electrical Engineering
Circuits, electronics, power, signals, and embedded systems — a math-heavy major with strong tech and energy industry demand.
Computer Science
The most popular STEM major — theory, algorithms, systems, AI, and the foundation of software careers.
Mechanical Engineering
The broadest engineering major — thermodynamics, fluids, mechanics, materials, and design. Strong job market across industries.
Physics
Mechanics, electromagnetism, quantum, and thermodynamics. Math-heavy degree with strong analytical foundation.
The coursework is the hard part
Every step on this roadmap runs through classes and exams. Fennie turns your actual syllabus into a Daily Plan paced to your deadlines, so the studying happens on schedule instead of the night before.
Start planning free