PE Structural Engineering (NCEES) - SE Exam Practice Test

The PE Civil exam with a Structural Depth component is an 8-hour exam that leads to a general Professional Engineer (P.E.) license, suitable for a broad range of civil/structural work. The 16-hour SE exam is a more advanced, specialized certification for engineers focusing exclusively on the structural design of buildings. Many states require the SE license for the design of certain risk categories of structures (e.g., essential facilities, large occupancy buildings), particularly in seismic and high-wind zones. The SE exam tests a significantly higher level of analytical and design detail.

The SE exam is divided into two vertical components, each taken on a separate day: Vertical Forces (Gravity/Lateral) and Lateral Forces (Wind/Earthquake). Each component is 8 hours long and consists of two sessions: a 4-hour, 40-question multiple-choice session in the morning, and a 4-hour, 4-6 essay-style design/analysis problem session in the afternoon. The essay portion requires demonstrating detailed design calculations, code references, and written justifications. Examinees must bring and use an approved set of codes and references.

Prerequisites vary by state licensing board. Typically, candidates must first hold a valid Engineer-in-Training (EIT) or Fundamentals of Engineering (FE) certification and have accrued a minimum number of years of progressive structural engineering experience (often 4+ years) under the supervision of a licensed P.E. or S.E. Most boards require an ABET-accredited bachelor's or master's degree in engineering. It is critical to verify specific requirements with the licensing board in the jurisdiction where you seek licensure.

The exam is code-centric. The primary required references include the International Building Code (IBC), ASCE/SEI 7 (Minimum Design Loads), ACI 318 (Concrete), AISC Steel Construction Manual (and possibly Seismic Provisions), NDS for Wood Construction, and TMS 402/602 (Masonry). The specific edition allowed is listed in the NCEES exam specifications. Proficiency in navigating and applying these codes efficiently is as important as understanding the underlying engineering principles.

Successful preparation involves practicing full, open-ended design problems under timed conditions. Focus on presenting solutions in a clear, step-by-step, and well-organized manner. Explicitly cite code sections, show all governing equations and calculations, state assumptions, and provide concise written explanations for your design decisions. Your solution must be legible and comprehensible to the grader, demonstrating both technical correctness and responsible engineering judgment. Practicing with NCEES sample questions and solutions is invaluable.