How to Pass the FE Electrical and Computer Exam: Complete Study Guide

The FE Electrical and Computer exam is unique among the FE discipline exams because it covers two distinct engineering fields in one test. Whether you're coming from an electrical engineering or computer engineering background, you'll need to be prepared for questions spanning circuits, electronics, power systems, digital logic, computer architecture, and more.

Having helped numerous electrical and computer engineers prepare for this exam, I can tell you that success comes down to systematic preparation and lots of practice. This guide will show you exactly how to approach your preparation.

Exam Format and Structure

The FE Electrical and Computer exam is a computer-based test administered at Pearson VUE testing centers. Here's what you need to know:

• Total questions: 110 multiple-choice questions
• Time limit: 6 hours
• Format: Two equal sessions of 55 questions each, with an optional 25-minute break between
• Reference material: NCEES FE Reference Handbook (provided on-screen, searchable)
• Calculator: NCEES on-screen calculator only (no personal calculators)

You'll have an average of 3.3 minutes per question. Some problems are quick, others require complex calculations or multiple steps. Learning to manage your time effectively is crucial.

The exam is offered year-round at testing centers, and you can schedule your exam date after receiving NCEES approval.

Content Area Breakdown

The exam covers 9 major content areas with the following approximate distribution:

1. Mathematics (7-11%)

Fundamental math skills needed throughout the exam:

• Complex numbers and algebra
• Calculus (differentiation and integration)
• Differential equations (first and second order)
• Linear algebra (matrices and determinants)
• Vector analysis
• Discrete mathematics

2. Probability and Statistics (5-8%)

Statistical methods and probability theory:

• Probability distributions (uniform, normal, binomial, Poisson)
• Expected value and variance
• Confidence intervals
• Hypothesis testing
• Linear regression

3. Ethics and Professional Practice (4-6%)

Professional responsibilities and engineering practice:

• NSPE Code of Ethics
• Licensure and professional development
• Contracts and liability
• Sustainability and public welfare

4. Engineering Economics (4-6%)

Economic analysis for engineering decisions:

• Time value of money
• Present worth, future worth, annual worth
• Rate of return
• Depreciation and taxes
• Benefit-cost ratios

5. Properties of Electrical Materials (4-6%)

Material properties relevant to electrical engineering:

• Chemical and physical properties
• Electrical properties (conductivity, resistivity, permittivity, permeability)
• Magnetic properties
• Semiconductor properties

6. Engineering Sciences (10-15%)

Foundational sciences including mechanics and materials:

• Statics and dynamics
• Mechanics of materials
• Fluid mechanics and thermodynamics
• Heat transfer
• Chemistry (for computer engineers especially)

This section can be challenging if you didn't take traditional mechanical engineering courses. Review the basics thoroughly.

7. Circuit Analysis (DC and AC) (9-12%)

One of the core sections for this exam:

• Ohm's law and Kirchhoff's laws
• Node and mesh analysis
• Thevenin and Norton equivalents
• Superposition
• AC circuit analysis (phasors, impedance)
• Power in AC circuits (real, reactive, apparent, power factor)
• Three-phase circuits
• Resonance

8. Linear Systems, Signal Processing, and Communications (7-10%)

Signals and systems fundamentals:

• Convolution and correlation
• Fourier series and transforms
• Laplace transforms
• Transfer functions
• Frequency response and Bode plots
• Filters (low-pass, high-pass, band-pass)
• Sampling and aliasing
• Modulation and demodulation

9. Electronics (10-15%)

Solid-state devices and analog circuits:

• Diode circuits and applications
• BJT and FET characteristics
• Amplifier configurations and biasing
• Op-amp circuits
• Differential amplifiers
• Oscillators
• Power electronics basics

10. Power (9-12%)

Electric power generation, transmission, and distribution:

• Single-phase and three-phase circuits
• Power transformers
• Transmission lines
• Motors and generators
• Power system analysis
• Per-unit systems
• Symmetrical components

11. Electromagnetics (5-8%)

Field theory and electromagnetic waves:

• Electrostatics (Coulomb's law, Gauss's law)
• Magnetostatics (Ampere's law, Biot-Savart)
• Maxwell's equations
• Electromagnetic waves
• Transmission lines
• Antennas (basic concepts)

12. Control Systems (8-11%)

Feedback control and system stability:

• Block diagrams and signal flow graphs
• System response (transient and steady-state)
• Stability analysis (Routh-Hurwitz, root locus, Bode)
• Compensator design
• PID controllers
• State-space representation

13. Communications (4-6%)

Communication systems and information theory:

• Amplitude and frequency modulation
• Digital modulation (ASK, FSK, PSK)
• Multiplexing (TDM, FDM)
• Information theory basics
• Error detection and correction

14. Computer Networks (3-5%)

Network fundamentals and protocols:

• OSI and TCP/IP models
• Routing and switching
• Network protocols
• Network security basics

15. Digital Systems (9-12%)

Digital logic and computer architecture:

• Number systems and codes
• Boolean algebra and logic minimization
• Combinational logic (adders, multiplexers, decoders)
• Sequential logic (flip-flops, counters, registers)
• Finite state machines
• Memory systems

16. Computer Systems (5-8%)

Computer architecture and programming:

• Microprocessor architecture
• Assembly language basics
• Memory hierarchy
• I/O systems
• Operating systems concepts
• Algorithms and data structures

17. Software Development (3-5%)

Programming fundamentals:

• Data types and structures
• Control structures
• Functions and procedures
• Object-oriented concepts
• Software testing and debugging

Developing Your Study Strategy

The breadth of this exam means you need a structured, disciplined approach. Most successful candidates spend 10-12 weeks in focused preparation, though your timeline may vary.

Week 1: Assessment and Planning

Take a diagnostic practice exam to identify your strengths and weaknesses. Be strategic: if you're an EE major, you probably need more time on digital systems and computer architecture. If you're a CpE major, you might need to focus on power systems and electromagnetics.

Review the NCEES exam specifications to understand exactly what topics are covered and their relative weights.

Weeks 2-8: Content Review and Practice

Work through each content area systematically. Prioritize based on:

1. Exam weight (focus on 9-15% topics)
2. Your personal weak areas
3. Topics that build on each other (e.g., circuit analysis is foundational for electronics and power)

Don't just read passively. Work practice problems constantly. This is how you actually learn to solve problems under pressure.

I recommend mixing topics rather than spending weeks on one subject. For example:

• Monday: Circuits and electronics
• Tuesday: Power systems
• Wednesday: Digital systems and computer architecture
• Thursday: Controls and signals
• Friday: Electromagnetics and communications
• Weekend: Mixed practice and review

Weeks 9-11: Practice Exams and Targeted Review

Take at least 2-3 full-length practice exams under realistic conditions:

• Full 6 hours, timed
• Only the NCEES Reference Handbook
• Minimal distractions

After each practice exam, thoroughly review your mistakes. Don't just check the answer. Understand why you missed it and how to solve it correctly.

Target your remaining weak areas with focused practice. Resources like Stamp Prep provide extensive problem banks organized by topic, which makes targeted practice efficient.

Week 12: Final Review

The week before your exam:

• Light review of weak areas only
• Practice navigating the NCEES Handbook quickly
• Get good sleep
• Take care of yourself physically and mentally

Don't try to learn new material the week before the exam. Focus on confidence and readiness.

Essential Study Resources

NCEES FE Reference Handbook

This is the only reference you'll have during the exam, so it needs to be second nature. Download it free from the NCEES website and use it for every single practice problem.

Learn where things are located:

• Circuit analysis formulas in the Electrical section
• Laplace transforms in the Mathematics section
• Logic gate symbols in the Computer section

Create bookmarks or a personal index for frequently-used sections.

NCEES Practice Exam

The official NCEES practice exam is invaluable. It's the most accurate representation of the actual exam's difficulty and style. Take it under timed conditions 2-3 weeks before your exam date.

Review Manuals

A good FE Electrical and Computer review manual provides condensed content review plus practice problems. These are efficient for reviewing topics you haven't seen since sophomore year.

Textbooks

Your undergraduate textbooks are still valuable:

• Nilsson & Riedel for circuits
• Sedra & Smith for electronics
• Hayt & Buck for electromagnetics
• Glover, Sarma & Overbye for power systems
• Oppenheim & Willsky for signals and systems
• Ogata or Dorf & Bishop for control systems
• Mano for digital logic
• Patterson & Hennessy for computer architecture

You don't need to re-read them cover to cover, but they're excellent references when you need deeper understanding.

Online Problem Banks

The more problems you work, the better prepared you'll be. Supplement your review manual with additional practice questions to build problem-solving speed and confidence.

Topic-Specific Study Tips

Circuit Analysis

This is foundational for much of the exam. Make sure you're rock-solid on:

• Node-voltage and mesh-current methods
• Thevenin/Norton transformations
• Phasor analysis for AC circuits
• Three-phase power calculations

These concepts appear not just in the circuits section, but also in power, electronics, and other areas.

Digital Systems

If you're an EE major who didn't take many digital courses, this can be challenging. Focus on:

• Boolean algebra simplification (use K-maps)
• Designing combinational circuits
• Flip-flop behavior and timing
• State machine design

Practice these until they're automatic.

Power Systems

Power problems can be time-consuming. Key topics:

• Three-phase calculations (balanced systems)
• Transformer equivalent circuits
• Per-unit calculations
• Basic motor and generator operation

Know how to quickly convert between line and phase quantities in three-phase systems.

Control Systems

Controls can feel abstract. Focus on:

• Block diagram reduction
• Transfer function derivation
• Stability criteria (Routh array)
• Basic Bode plot sketching

The math is all in the handbook, but you need to know which formulas to use when.

Computer Systems

For EE majors, this might be unfamiliar territory:

• Understand basic computer architecture (CPU, memory, I/O)
• Know common data structures (arrays, lists, trees, hash tables)
• Understand basic algorithms and complexity

You don't need to be a programming expert, but you need fundamental computer science knowledge.

Test-Taking Strategies

Time Management

With 3.3 minutes average per question, you need to work efficiently. If a problem is taking more than 5-6 minutes, flag it and move on. Answer all the questions you're confident about first, then return to the difficult ones.

Use the Reference Handbook Effectively

You're not expected to have formulas memorized. The handbook has everything. But you need to know where to find things quickly. Time spent searching during practice is time saved on exam day.

Check Your Work

If you finish with time remaining, check your work. But don't second-guess yourself excessively. Research shows your first instinct is usually correct unless you find a clear error.

Verify Units

Many wrong answer choices are designed to catch unit errors. Always verify your answer has the correct units and reasonable magnitude.

Read Questions Carefully

Pay attention to what the question asks. Maximum value or value at a specific point? Voltage or current? Peak or RMS? These details matter.

Common Pitfalls to Avoid

Focusing only on your comfort zone: If you're an EE major, don't skip all the computer topics. If you're a CpE major, don't ignore power and electromagnetics.

Not practicing with the calculator: The NCEES on-screen calculator is basic. Practice with it so you're not fumbling on exam day.

Passive reading instead of active problem-solving: You learn by doing, not by reading.

Neglecting the reference handbook during practice: Use it from day one so you know it inside and out.

Cramming the night before: Your brain needs rest. Get good sleep before the exam.

The Week Before Your Exam

Taper your study intensity. Do light review only. Make sure you know:

• Your test center location
• What to bring (government-issued photo ID)
• The check-in process

Don't try to learn new material this week. Focus on confidence building and physical/mental readiness.

Exam Day

Arrive 30 minutes early for check-in and security screening. Bring your government-issued ID and confirmation email. They'll provide a locker for your belongings and give you scratch paper.

The exam has two sessions with an optional break. Take the break. Use the restroom, have a snack, clear your head. Don't try to go six hours straight.

Stay calm. Trust your preparation. If you hit a hard problem, flag it and move on. Don't let one question derail your entire exam.

After the Exam

Results typically arrive within 7-10 days via email. You'll receive a pass/fail notification.

If you pass, congratulations! You're an Engineer in Training (EIT), an important step toward your PE license.

If you don't pass, use the diagnostic feedback to identify weak areas and prepare for a retake. Many successful engineers needed more than one attempt.

Final Thoughts

The FE Electrical and Computer exam is broad and challenging, but absolutely passable with proper preparation. The key is systematic review, lots of practice problems, and familiarity with the reference handbook.

Start early, stay consistent, and focus on understanding rather than memorization. The exam tests whether you have the foundational knowledge expected of an entry-level electrical or computer engineer. If you've completed an ABET-accredited degree, you have the capability to pass.

Use quality study resources, practice under realistic conditions, and show up on exam day ready to demonstrate what you know. You've got this. Good luck!