FE Civil Exam Topics: All 14 Subject Areas Explained

The NCEES FE Civil exam is a computer-based test containing 110 questions that must be completed within 5 hours and 20 minutes of exam time, inside an approximately 6-hour total appointment. The exam covers 14 distinct subject areas, each carrying a specific percentage weight that determines how many questions you will see from that topic.

Understanding exactly what each topic covers, how heavily it is weighted, and how difficult it tends to be is essential for building an effective study plan. In this complete guide, we break down every single subject area so you know precisely what to expect on exam day.

The seven heaviest areas are listed first. NCEES publishes one range per group, so every area inside a group shares the same bar.

• Higher weight — 7–11% of the exam
• Lower weight — 4–6% of the exam

View the data as a table

FE Civil knowledge areas by exam weight and approximate question count (110 questions total).

Knowledge area	Weight	Approx. questions
Mathematics and Statistics	7–11%	8–12
Statics	7–11%	8–12
Mechanics of Materials	7–11%	8–12
Water Resources and Environmental Engineering	7–11%	8–12
Structural Engineering	7–11%	8–12
Geotechnical Engineering	7–11%	8–12
Transportation Engineering	7–11%	8–12
Ethics and Professional Practice	4–6%	4–7
Engineering Economics	4–6%	4–7
Dynamics	4–6%	4–7
Materials	4–6%	4–7
Fluid Mechanics	4–6%	4–7
Surveying	4–6%	4–7
Construction Engineering	4–6%	4–7

1. Mathematics and Statistics (7-11%)

Mathematics and Statistics forms the backbone of the entire FE Civil exam. This topic tests your ability to work with the mathematical tools that underpin every other engineering subject on the test. Expect approximately 8 to 12 questions from this area.

What to Expect in 1. Mathematics and Statistics

Questions in this section focus on applied math rather than pure theory. You will need to solve problems quickly using the FE Reference Handbook, so familiarity with where formulas are located is critical.

1. Mathematics and Statistics: Key Concepts

• Analytic geometry and trigonometry: Coordinate systems, conic sections, and trigonometric identities
• Calculus: Derivatives, integrals, partial derivatives, and multivariable calculus
• Differential equations: First-order and second-order ordinary differential equations
• Linear algebra: Matrix operations, determinants, eigenvalues, and systems of equations
• Numerical methods: Newton's method, numerical integration, and error approximation
• Probability and statistics: Distributions, expected values, hypothesis testing, and regression analysis

1. Mathematics and Statistics Difficulty: Moderate

Most candidates have strong math backgrounds, but the time pressure makes this section challenging. The key is speed and knowing exactly where to find formulas in the handbook.

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

Ethics and Professional Practice is one of the lower-weighted sections, contributing approximately 4 to 7 questions. However, these are often considered among the easiest points on the exam because they rely on reasoning rather than calculations.

What to Expect in 2. Ethics and Professional Practice

Questions present scenarios involving professional conduct, and you must identify the most ethical course of action. There are no complex formulas here, just sound professional judgment.

2. Ethics and Professional Practice: Key Concepts

• NCEES Model Rules of Professional Conduct: The primary reference for ethical behavior
• Public safety and welfare: The engineer's paramount obligation to protect the public
• Conflicts of interest: Recognizing and managing professional conflicts
• Licensure requirements: Understanding when a PE license is required
• Professional competence: Practicing only within areas of competence
• Sustainability and environmental responsibility: Ethical obligations to the environment

2. Ethics and Professional Practice Difficulty: Easy

This is one of the most straightforward sections. If you read through the NCEES Model Rules and use common sense, you can pick up nearly all these points with minimal study time.

3. Engineering Economics (4-6%)

Engineering Economics tests your ability to evaluate the financial viability of engineering projects. With a weight of 4-6%, expect approximately 4 to 7 questions focused on time value of money and economic decision-making.

What to Expect in 3. Engineering Economics

Most problems involve using interest factor tables (provided in the handbook) to convert between present worth, future worth, and annual worth. The math is straightforward once you understand which factor to apply.

3. Engineering Economics: Key Concepts

• Time value of money: Present worth, future worth, and annual worth calculations
• Interest rate factors: P/F, F/P, P/A, A/P, F/A, A/F, and gradient factors
• Benefit-cost analysis: Comparing alternatives using B/C ratios
• Rate of return analysis: Internal rate of return (IRR) and incremental analysis
• Depreciation methods: Straight-line, declining balance, and MACRS
• Inflation and breakeven analysis: Adjusting for inflation and finding breakeven points

3. Engineering Economics Difficulty: Easy to Moderate

Engineering Economics is highly formulaic. Once you memorize the process for selecting the correct interest factor, problems become repetitive and predictable. This is a high-value section for efficient studying.

4. Statics (7-11%)

Statics is one of the most heavily weighted topics on the FE Civil exam, contributing approximately 8 to 12 questions. It is also foundational for Mechanics of Materials and Structural Engineering, making it doubly important.

What to Expect in 4. Statics

Questions test your ability to analyze forces acting on bodies in equilibrium. You will solve for reaction forces, internal forces, moments, and centroids. Free body diagrams are your best friend in this section.

4. Statics: Key Concepts

• Resultants of force systems: Vector addition, components, and moment of a force
• Equilibrium of rigid bodies: 2D and 3D equilibrium equations
• Trusses: Method of joints and method of sections
• Frames and machines: Analysis of multi-force members
• Centroids and moments of inertia: Composite shapes and parallel axis theorem
• Friction: Static and kinetic friction problems, wedges, and belt friction

4. Statics Difficulty: Moderate

Statics is conceptually straightforward but requires careful setup. Most errors come from incorrect free body diagrams or sign conventions. Practice drawing FBDs until it becomes second nature.

5. Dynamics (4-6%)

Dynamics builds on Statics by introducing motion into the picture. With a 4-6% weight, expect approximately 4 to 7 questions covering kinematics and kinetics of particles and rigid bodies.

What to Expect in 5. Dynamics

Problems typically involve calculating velocity, acceleration, forces on moving objects, work-energy relationships, and impulse-momentum. The FE Reference Handbook contains all necessary formulas.

5. Dynamics: Key Concepts

• Kinematics: Rectilinear and curvilinear motion, relative motion
• Newton's second law: Force, mass, and acceleration relationships for particles
• Work and energy: Work-energy theorem, potential and kinetic energy, conservation of energy
• Impulse and momentum: Linear impulse-momentum, conservation of momentum, impact
• Rigid body kinematics: Rotation, translation, and general plane motion
• Vibrations: Free and forced vibration of single-degree-of-freedom systems

5. Dynamics Difficulty: Moderate to Difficult

Dynamics is considered one of the more challenging sections because it requires visualizing motion and selecting the correct approach (energy vs. momentum vs. Newton's law). Focus on understanding when to use each method.

6. Mechanics of Materials (7-11%)

Mechanics of Materials is a high-weight topic (7-11%) that builds directly on Statics. Expect approximately 8 to 12 questions covering stress, strain, and deformation in structural members.

What to Expect in 6. Mechanics of Materials

This section tests your ability to calculate stresses and deformations in beams, columns, shafts, and pressure vessels. Shear and moment diagrams are essential skills for this topic.

6. Mechanics of Materials: Key Concepts

• Stress and strain: Normal stress, shear stress, axial deformation, Hooke's law
• Shear and moment diagrams: Drawing and interpreting V and M diagrams for beams
• Beam stresses: Flexural stress, shear stress in beams, and combined loading
• Torsion: Shear stress and angle of twist in circular shafts
• Column buckling: Euler's formula for critical buckling load
• Mohr's circle: Principal stresses, maximum shear stress, and stress transformation
• Thermal deformation: Thermal expansion and thermally induced stresses

6. Mechanics of Materials Difficulty: Moderate to Difficult

Many candidates find this section challenging because it combines Statics concepts with material behavior. Mastering shear and moment diagrams is non-negotiable for success here.

7. Materials (4-6%)

The Materials section covers the properties and behavior of engineering materials used in civil construction. With a 4-6% weight, expect approximately 4 to 7 questions.

What to Expect in 7. Materials

Questions focus on understanding material properties, testing methods, and how different materials behave under various conditions. This section is more conceptual than computational.

7. Materials: Key Concepts

• Material properties: Stress-strain relationships, elastic modulus, yield strength, ultimate strength
• Concrete: Mix design, curing, compressive strength, and water-cement ratio
• Steel: Grades, properties, ductility, and fatigue
• Wood: Grain direction, moisture content, and allowable stresses
• Aggregates and asphalt: Gradation, specific gravity, and mix properties
• Material testing: Tension tests, compression tests, hardness tests, and non-destructive testing

7. Materials Difficulty: Easy to Moderate

This is a concept-heavy section with fewer calculations. Understanding material behavior and memorizing key property values will help you answer most questions correctly.

8. Fluid Mechanics (4-6%)

Fluid Mechanics covers the behavior of fluids at rest and in motion. Weighted at 4-6%, this section contributes approximately 4 to 7 questions and serves as a foundation for Water Resources.

What to Expect in 8. Fluid Mechanics

Expect a mix of conceptual and calculation-based questions. Problems typically involve pressure calculations, flow rate analysis, and energy equations for fluid systems.

8. Fluid Mechanics: Key Concepts

• Fluid properties: Density, viscosity, specific gravity, surface tension
• Hydrostatics: Pressure distribution, forces on submerged surfaces, buoyancy
• Bernoulli's equation: Energy conservation along a streamline
• Continuity equation: Conservation of mass for flow systems
• Pipe flow: Darcy-Weisbach equation, Moody diagram, Reynolds number, friction losses
• Open channel flow: Manning's equation, hydraulic radius, Froude number
• Momentum equation: Forces on pipe bends and nozzles

8. Fluid Mechanics Difficulty: Moderate

Fluid Mechanics requires understanding when to apply Bernoulli's equation versus the energy equation and how to use the Moody diagram. Practice pipe flow problems extensively.

9. Surveying (4-6%)

Surveying covers the measurement and mapping of land and structures. With a 4-6% weight, expect approximately 4 to 7 questions that test your knowledge of measurement techniques and error analysis.

What to Expect in 9. Surveying

Questions range from basic distance and angle measurements to traverse calculations and curve geometry. The formulas are provided in the handbook, but you need to know which ones to use.

9. Surveying: Key Concepts

• Distance and angle measurement: Taping corrections, EDM, and angular measurement
• Leveling: Differential leveling, elevation calculations, and closure error
• Traverse computations: Latitudes, departures, closure, and area calculations
• Horizontal curves: Radius, degree of curve, tangent length, length of curve, and external distance
• Vertical curves: Crest and sag curves, PVC, PVI, PVT, high/low point calculations
• Area and volume computations: Coordinate method, trapezoidal rule, and earthwork volumes

9. Surveying Difficulty: Easy to Moderate

Surveying is highly formulaic. If you can identify the correct formula from the handbook and plug in values, you can score well. Focus on horizontal and vertical curve problems, as they appear frequently.

10. Water Resources and Environmental Engineering (7-11%)

Water Resources and Environmental Engineering is a high-weight section (7-11%) that builds on Fluid Mechanics. Expect approximately 8 to 12 questions covering hydrology, water treatment, and environmental systems.

What to Expect in 10. Water Resources and Environmental Engineering

This section combines hydraulic engineering with environmental considerations. Problems involve rainfall-runoff analysis, water and wastewater treatment processes, and hydraulic design.

10. Water Resources and Environmental Engineering: Key Concepts

• Hydrology: Rainfall intensity, rational method, unit hydrographs, and SCS curve number method
• Hydraulic design: Storm sewer design, culvert sizing, and detention ponds
• Open channel hydraulics: Manning's equation, critical flow, and hydraulic jump
• Groundwater: Darcy's law, well hydraulics, and aquifer properties
• Water treatment: Coagulation, sedimentation, filtration, and disinfection
• Wastewater treatment: BOD, activated sludge, and trickling filters
• Environmental regulations: Clean Water Act basics and permitting requirements

10. Water Resources and Environmental Engineering Difficulty: Moderate to Difficult

This section covers a broad range of sub-topics, making it one of the more content-heavy areas. The rational method and Manning's equation are among the most frequently tested formulas.

11. Structural Engineering (7-11%)

Structural Engineering is one of the most important and heavily weighted sections (7-11%), with approximately 8 to 12 questions. It directly builds on Statics and Mechanics of Materials.

What to Expect in 11. Structural Engineering

Questions test your ability to analyze and design structural members and systems. You will encounter problems involving beam analysis, load calculations, and basic design concepts for steel and concrete.

11. Structural Engineering: Key Concepts

• Structural analysis: Determinate beams, trusses, and frames; influence lines
• Load calculations: Dead loads, live loads, and load combinations (ASCE 7)
• Reinforced concrete design: Flexural design, shear design, and development length
• Steel design: Tension members, compression members, and beam design
• Deflection analysis: Beam deflection formulas and serviceability limits
• Indeterminate structures: Basic concepts of indeterminate analysis

11. Structural Engineering Difficulty: Difficult

Structural Engineering is widely regarded as one of the hardest sections on the FE Civil exam. The combination of analysis and design concepts requires a solid understanding of multiple prerequisite topics.

12. Geotechnical Engineering (7-11%)

Geotechnical Engineering covers soil mechanics and foundation design. Weighted at 7-11%, this section contributes approximately 8 to 12 questions and is a core civil engineering discipline.

What to Expect in 12. Geotechnical Engineering

Problems involve soil classification, effective stress calculations, consolidation settlement, and bearing capacity. Understanding phase relationships is critical for success in this section.

12. Geotechnical Engineering: Key Concepts

• Soil properties and classification: Atterberg limits, USCS, grain size distribution
• Phase relationships: Void ratio, porosity, water content, degree of saturation, unit weight
• Effective stress: Total stress, pore water pressure, and effective stress calculations
• Permeability and seepage: Darcy's law, flow nets, and hydraulic conductivity
• Consolidation: Settlement calculations, time rate of consolidation, and compression index
• Shear strength: Mohr-Coulomb failure criterion, drained and undrained conditions
• Bearing capacity: Terzaghi's equation and factor of safety
• Lateral earth pressure: Rankine and Coulomb theories, retaining wall design

12. Geotechnical Engineering Difficulty: Moderate to Difficult

Geotechnical Engineering has many formulas and concepts that are unique to this discipline. Phase relationships appear in nearly every problem, so master them early.

13. Transportation Engineering (7-11%)

Transportation Engineering is another high-weight section (7-11%) with approximately 8 to 12 questions covering roadway design, traffic engineering, and transportation planning.

What to Expect in 13. Transportation Engineering

Questions test your knowledge of highway design, traffic flow theory, intersection analysis, and pavement design. Many problems are formula-based and can be solved directly from the handbook.

13. Transportation Engineering: Key Concepts

• Geometric design: Horizontal and vertical alignment, sight distance, and superelevation
• Traffic engineering: Speed, density, flow relationships, and level of service
• Intersection design: Signal timing, capacity analysis, and gap acceptance
• Pavement design: Flexible and rigid pavement design methods
• Traffic safety: Crash analysis, safety countermeasures, and accident rates
• Transportation planning: Trip generation, trip distribution, and mode split

13. Transportation Engineering Difficulty: Moderate

Transportation Engineering is accessible for most candidates because the formulas are clearly laid out in the handbook. Focus on sight distance calculations and traffic flow relationships, as they are commonly tested.

14. Construction Engineering (4-6%)

Construction Engineering rounds out the exam with a 4-6% weight, contributing approximately 4 to 7 questions on project management, scheduling, cost estimation, and construction methods.

What to Expect in 14. Construction Engineering

This section tests practical knowledge of how civil engineering projects are planned, scheduled, and executed. Expect questions on critical path method, earthwork, and construction safety.

14. Construction Engineering: Key Concepts

• Project scheduling: CPM (Critical Path Method), PERT, and Gantt charts
• Cost estimation: Quantity takeoffs, unit costs, and bid analysis
• Earthwork and grading: Cut and fill calculations, mass diagrams, and equipment selection
• Construction safety: OSHA regulations, trenching requirements, and fall protection
• Temporary structures: Formwork, shoring, and scaffolding basics
• Quality control: Testing methods, acceptance criteria, and specifications
• Project delivery methods: Design-bid-build, design-build, and construction management

14. Construction Engineering Difficulty: Easy to Moderate

Construction Engineering is one of the more practical sections and tends to be less mathematically intensive. Understanding the critical path method is essential, as CPM problems appear on nearly every exam.

Recommended Study Order

Not all 14 topics should be studied with the same intensity or in random order. A strategic approach can help you maximize your score with the time you have available. Here is our recommended study sequence:

1. Mathematics and Statistics: Start here because math skills are used in virtually every other section. Solidify your foundation first.
2. Statics: Build your equilibrium and free body diagram skills, which are prerequisites for Mechanics of Materials and Structural Engineering.
3. Mechanics of Materials: Study this immediately after Statics while the concepts are fresh. Stress, strain, and beam analysis flow naturally from equilibrium.
4. Structural Engineering: Complete the structural trio by tackling design concepts that build on Statics and Mechanics of Materials.
5. Fluid Mechanics: Learn the fundamentals of fluid behavior before moving to Water Resources, which applies these concepts to civil systems.
6. Water Resources and Environmental Engineering: Apply Fluid Mechanics to hydrology, hydraulics, and water treatment.
7. Geotechnical Engineering: This topic is relatively self-contained. Focus on phase relationships and effective stress.
8. Transportation Engineering: Another self-contained topic. The formulas are straightforward once you understand the concepts.
9. Engineering Economics: Highly formulaic and easy to pick up quickly. A great confidence booster mid-study.
10. Dynamics: Study after Statics, as it extends equilibrium concepts to moving bodies.
11. Materials: Concept-heavy and easier to study. Can be reviewed alongside Mechanics of Materials.
12. Surveying: Formula-driven and self-contained. Focus on horizontal and vertical curves.
13. Construction Engineering: Practical knowledge that can be learned relatively quickly. Focus on CPM scheduling.
14. Ethics and Professional Practice: Save this for last. Read through the NCEES Model Rules once or twice and use common sense on exam day.

Study Strategy at a Glance

Use these four pillars to build an effective, well-rounded study plan that addresses both content mastery and exam-taking skills:

Conclusion

The FE Civil exam covers a wide range of engineering disciplines, but understanding the structure and weight of each topic transforms what seems like an overwhelming amount of material into a manageable study plan. The 14 subject areas each play a specific role, and knowing what to expect from each one gives you a significant strategic advantage.

Remember: you do not need to master every single concept to pass. The FE exam is about demonstrating competency across the breadth of civil engineering fundamentals. Focus on the high-weight topics first, become fluent with the FE Reference Handbook, practice under timed conditions, and approach the exam with confidence.

Your path to becoming an Engineer Intern starts with understanding exactly what is on the test. Now that you know all 14 topics inside and out, it is time to start practicing.