FE Electrical Exam Study Guide 2026: Structure, Areas & Plan

The FE Electrical and Computer exam is the first step toward your PE license — 110 questions across 17 knowledge areas. Here's the structure, the highest-yield areas, and a study plan built around the FE Reference Handbook.

The FE Electrical and Computer exam is the first of two exams standing between you and a Professional Engineer (PE) license. Most people take it near graduation from an ABET-accredited program, while the coursework is still fresh — and that timing is deliberate. The FE tests breadth across the entire electrical and computer engineering curriculum, so the closer you sit it to your last semester, the less you have to relearn.

This guide covers how the exam is built, the 17 knowledge areas and how many questions each carries, where to concentrate your hours, and how to study from the one reference you'll actually have on exam day.

Why the FE is your first PE step

Licensure is a two-exam path:

  1. Pass the FE (Fundamentals of Engineering) → you become an EI (Engineer Intern) or EIT (Engineer in Training).
  2. Accumulate roughly 4 years of qualifying experience under a licensed PE.
  3. Pass the PE exam in your discipline → you're a licensed Professional Engineer.

The FE is computer-based and comes in 7 discipline versions — you pick one. If your degree and career point toward electrical, electronics, power, or computer engineering, the Electrical and Computer version is the one to sit. There's no formal prerequisite to register, though it's built for someone at or near the end of an ABET-accredited engineering degree. In FY2024-25, about 57,900 people took the FE across all disciplines.

Exam structure

  • 110 questions total
  • 6-hour appointment — roughly 5 hours 20 minutes of testing, plus a tutorial and a 25-minute scheduled break
  • Multiple choice plus alternative item types (not every question is a simple A/B/C/D pick — expect fill-in-the-blank, point-and-click, drag-and-drop, and multiple-correct formats)
  • Offered year-round at Pearson VUE test centers
  • Cost: $225
  • Pass/fail result only — there's no score report with a percentage

One thing to be clear about: the FE uses a scaled cut score set by NCEES, and there is no published passing percentage. You will not walk out knowing you got "72%." You get pass or fail. So don't chase a magic number — chase competence across every knowledge area, because you can't predict which ones the cut score leans on.

The 17 knowledge areas

The Electrical and Computer FE spreads its 110 questions across 17 areas. NCEES publishes a range for each area rather than a fixed count, so the exact mix shifts between forms. Here's the full blueprint:

Knowledge area Questions
Mathematics 11–17
Circuit Analysis (DC and AC Steady State) 11–17
Power Systems 8–12
Digital Systems 8–12
Electronics 7–11
Control Systems 6–9
Engineering Economics 5–8
Linear Systems 5–8
Signal Processing 5–8
Communications 5–8
Computer Systems 5–8
Probability and Statistics 4–6
Ethics and Professional Practice 4–6
Properties of Electrical Materials 4–6
Electromagnetics 4–6
Computer Networks 4–6
Software Engineering 4–6

Add up the low ends and you're already near 100 questions — meaning every area is on the table on every form. You can't skip a topic and count on it not showing up.

Where the points are

Some areas carry roughly double the weight of others. If you're triaging study time, concentrate first on the highest-yield areas:

  • Mathematics (11–17) — the single biggest bucket, and it underpins nearly everything else. Calculus, differential equations, linear algebra, complex numbers.
  • Circuit Analysis, DC and AC Steady State (11–17) — tied for the top. This is the heart of electrical engineering and the questions are heavily formula-driven.
  • Power Systems (8–12) — three-phase power, power factor, transformers, per-unit.
  • Digital Systems (8–12) — Boolean algebra, logic gates, number systems, state machines.
  • Electronics (7–11) — diodes, transistors, op-amps, biasing.
  • Control Systems (6–9) — transfer functions, stability, Bode plots.

Nail Mathematics and Circuit Analysis and you've put yourself in reach of a quarter to a third of the whole exam. They also feed the other areas — the math you use in Circuit Analysis is the same math you'll need in Signal Processing, Control Systems, and Electromagnetics.

Study from the FE Reference Handbook — it's the only reference you get

This is the most important tactical fact about the FE. During the exam, the NCEES FE Reference Handbook is provided on-screen, and it is the only reference you're allowed. No textbooks, no notes, no formula sheet of your own. Every equation you're expected to use is in that Handbook.

That changes how you study:

  • Download the Handbook early (it's free from NCEES) and make it your primary study document, not your textbook.
  • Learn where things live. You won't memorize every formula — you'll navigate to it. Practice finding impedance formulas, the Laplace transform table, and the three-phase power relations by section until it's fast.
  • Practice with it open, exactly the way you'll test. If you only ever solve problems from memory, you'll lose time on exam day hunting for equations you should be able to locate in seconds.

The Handbook is an advantage, not a crutch — but only if you've rehearsed with it.

Formulas and memory anchors

You won't need to memorize these cold — they're all in the Handbook — but you do need to recognize when to reach for each one and how to apply it fast:

  • Ohm's law: V = IR, combined with KCL (currents into a node sum to zero) and KVL (voltages around a loop sum to zero). This is the backbone of Circuit Analysis.
  • Impedances: Z_R = R, Z_L = jωL, Z_C = 1/(jωC). In AC steady state you work in the phasor/complex domain — resistors stay real, inductors and capacitors become imaginary.
  • Complex power: S = VI* = P + jQ, where power factor = cos θ. For balanced three-phase, P = √3 · V_L · I_L · cos θ.
  • Thévenin/Norton equivalents: collapse any linear network to a single source and impedance — a huge time-saver on multi-element circuits.
  • Nyquist sampling: f_s ≥ 2·f_max — sample at least twice the highest frequency, or you get aliasing. Core to Signal Processing.
  • Euler's formula: e^(jθ) = cos θ + j·sin θ — the bridge between phasors, complex exponentials, and the time domain.

A useful mental model: AC steady-state analysis is just DC circuit analysis done with complex numbers. Every DC technique (nodal, mesh, Thévenin) carries over once you swap resistances for impedances.

A study plan that fits the blueprint

Weight your calendar to the blueprint. A common shape is 6–8 weeks of focused prep for someone coming straight out of an ABET program; stretch it if you've been out of school for a while.

Weeks 1–2: Math + Circuit Analysis (the foundation)

Start with the two biggest, most foundational areas. Rebuild your calculus, differential equations, complex numbers, and linear algebra, then move straight into DC circuits (Ohm's law, KCL/KVL, Thévenin/Norton) and AC steady-state phasor analysis. Do problems with the Handbook open from day one.

Weeks 3–4: The high-yield core

Power Systems, Digital Systems, Electronics, and Control Systems. These are the next four largest buckets and they build directly on your Weeks 1–2 math. Three-phase power and power-factor correction; logic and state machines; transistor and op-amp circuits; transfer functions and stability.

Weeks 5–6: The mid-weight areas

Linear Systems, Signal Processing, Communications, Computer Systems, Computer Networks, Electromagnetics, Software Engineering, Properties of Electrical Materials. Individually smaller, but collectively a big chunk of the exam. Don't let any of them go to zero.

Final week: Economics, ethics, probability + full-length practice

Engineering Economics, Ethics and Professional Practice, and Probability and Statistics are quick to learn and reliably scorable — save them for last so they're fresh. Then take timed, full-length practice under real conditions: 110 questions, Handbook open, one 25-minute break, and the same calculator you'll bring.

Bring an approved calculator

NCEES only allows specific models — bring one you already know:

  • Casio: fx-115 and fx-991 series
  • Hewlett Packard: HP 33s and HP 35s
  • Texas Instruments: TI-30X and TI-36X series

Buy it early and use it through your entire prep so its menus are second nature on exam day.

Quick FAQ

Is there a passing percentage for the FE Electrical exam?

No. NCEES uses a scaled cut score, and no passing percentage is published. Your result is pass/fail only — there's no score breakdown.

How much does the FE cost in 2026?

$225, paid to NCEES when you register through Pearson VUE.

Do I need work experience or a specific degree to take the FE?

There's no formal prerequisite, but the exam is designed for candidates near graduation from an ABET-accredited engineering program. Experience comes after — you need roughly 4 years of it between passing the FE (becoming an EI/EIT) and sitting the PE.

How long is the exam?

A 6-hour appointment: about 5 hours 20 minutes of testing, plus a tutorial and a 25-minute scheduled break, for 110 questions.

Can I bring my own formula sheet?

No. The FE Reference Handbook is the only reference, and it's provided on-screen. Study from it so you know it cold.

How hard is it, really?

The challenge is breadth, not depth — 17 areas is a lot of ground. We break down exactly why in how hard the FE Electrical exam is.


Practice the way it's tested. Run free questions on the FE Electrical and Computer exam — no card, no email-trap, mapped to the real knowledge areas.