Structural Engineer Job Description: Responsibilities, Qualifications & Career Guide

After reviewing hundreds of structural engineering resumes, one pattern stands out immediately: the candidates who land interviews aren't just listing software proficiencies — they're quantifying the scale, complexity, and code jurisdictions of the structures they've designed, because hiring managers want to know if you've engineered a two-story retail building or a 40-story seismic-zone high-rise [13].

Key Takeaways

• Structural engineers design and analyze load-bearing systems for buildings, bridges, and infrastructure, ensuring safety, stability, and compliance with building codes [3].
• A bachelor's degree in civil or structural engineering is the baseline, but a Professional Engineer (PE) license — and increasingly a Structural Engineer (SE) license — separates competitive candidates from the rest [2].
• Median annual pay sits at $99,590, with top earners reaching $160,990 at the 90th percentile [1].
• The field is projected to grow 5.0% from 2024 to 2034, adding roughly 18,500 new positions with approximately 23,600 annual openings due to retirements and turnover [2].
• BIM proficiency, seismic design expertise, and sustainability knowledge are rapidly becoming non-negotiable skills in job postings [5][6].

What Are the Typical Responsibilities of a Structural Engineer?

Structural engineers carry the literal weight of the built environment on their calculations. Their responsibilities span the full lifecycle of a project, from feasibility studies through construction administration. Here's what the role actually involves based on real job posting patterns and task data [7][5][6]:

1. Structural Analysis and Design Perform detailed analysis of structural systems — frames, trusses, foundations, shear walls, and lateral force-resisting systems — using both hand calculations and finite element analysis (FEA) software. You're determining how gravity loads, wind loads, seismic forces, and thermal effects interact with a proposed structure [7].

2. Producing Construction Documents Develop detailed structural drawings, specifications, and calculation packages that contractors can build from. This means coordinating with drafters and BIM modelers to produce plans that are clear, code-compliant, and constructible [5].

3. Building Code Compliance Interpret and apply IBC (International Building Code), ASCE 7 (Minimum Design Loads), ACI 318 (concrete), AISC 360 (steel), and NDS (wood) standards to every project. Jurisdictional amendments add another layer of complexity — what flies in Phoenix may not pass review in San Francisco [7].

4. Material Selection and Specification Evaluate and specify structural materials — reinforced concrete, structural steel, timber, masonry, cold-formed steel, and increasingly mass timber — based on performance requirements, cost, availability, and project constraints [3].

5. Site Inspections and Construction Observation Visit job sites to verify that construction matches design intent. This includes reviewing rebar placement before concrete pours, inspecting steel connections, and documenting field conditions that may require design modifications [5][6].

6. Coordination with Multidisciplinary Teams Collaborate daily with architects, MEP engineers, geotechnical consultants, and general contractors. Structural decisions affect every other discipline — a beam depth change ripples through ductwork routing, ceiling heights, and architectural finishes [7].

7. Foundation Design Design shallow and deep foundation systems (spread footings, mat foundations, driven piles, drilled shafts) based on geotechnical reports and structural loading requirements [3].

8. Peer Review and Quality Control Review calculations and drawings produced by junior engineers and drafters. Many firms require independent peer reviews on projects above a certain size or risk category [6].

9. Responding to RFIs and Submittals During construction, answer contractor Requests for Information (RFIs) and review shop drawings and material submittals to confirm they meet design specifications [5].

10. Retrofit and Rehabilitation Design Assess existing structures for capacity, deterioration, or code deficiencies and design strengthening or repair solutions. This is especially prevalent in seismic zones and for adaptive reuse projects [6].

11. Report Writing and Client Communication Prepare feasibility studies, structural assessment reports, and condition surveys. Communicate complex engineering concepts to non-technical stakeholders, including building owners, developers, and municipal reviewers [7].

12. Mentoring Junior Staff Senior structural engineers typically oversee the technical development of EITs (Engineers in Training), reviewing their work and guiding them toward PE licensure [6].

What Qualifications Do Employers Require for Structural Engineers?

Required Qualifications

Education: A bachelor's degree in civil engineering, structural engineering, or a closely related field is the standard minimum [2]. Most accredited programs include coursework in structural analysis, steel design, concrete design, and mechanics of materials.

Licensure: The Professional Engineer (PE) license is the single most important credential for career advancement. Nearly every mid-level and senior structural engineering posting lists it as required or strongly preferred [2][12]. You'll need to pass the Fundamentals of Engineering (FE) exam, accumulate four years of progressive experience under a licensed PE, and then pass the PE Civil: Structural exam.

Technical Skills: Proficiency in structural analysis software is expected. The most commonly requested tools in job postings include ETABS, SAP2000, RISA-3D, RAM Structural System, STAAD.Pro, and Revit Structure for BIM coordination [5][6]. Hand calculation proficiency remains essential — software validates, but engineers must understand the underlying mechanics.

Code Knowledge: Working fluency in IBC, ASCE 7, ACI 318, AISC 360 (including the Seismic Provisions), and the NDS is standard [7].

Preferred Qualifications

Advanced Licensure: In states like California, Illinois, and Washington, the Structural Engineer (SE) license is required to design certain building types (hospitals, schools, essential facilities). Even where not legally required, the SE license signals advanced competence and commands higher compensation [12].

Master's Degree: A master's in structural engineering is increasingly preferred for positions involving complex or high-rise design. Specialized coursework in earthquake engineering, wind engineering, or advanced finite element methods gives candidates a tangible edge [2][6].

Experience Tiers: Entry-level positions typically require 0-2 years. Mid-level roles ask for 4-7 years with PE licensure. Senior and principal positions expect 10+ years with project management experience and business development capability [5][6].

Specialty Certifications: LEED accreditation is a plus for firms focused on sustainable design. Certifications in post-tensioning (PTI), bridge inspection (NBIS), or blast-resistant design open niche career paths [12].

What Does a Day in the Life of a Structural Engineer Look Like?

A typical day blends desk-based analysis with collaboration and occasional fieldwork. Here's a realistic snapshot:

Morning (8:00 AM – 12:00 PM): You arrive at the office and check email for overnight RFIs from a contractor pouring foundations on a mixed-use project. One RFI asks about a rebar substitution — you pull up the calculation package, verify the development length requirements per ACI 318, and issue a response approving the substitution with conditions. By 9:30, you're deep in an ETABS model for a 12-story residential tower, running lateral analysis iterations to optimize the shear wall layout. A quick Teams call with the architect at 10:15 resolves a conflict between your transfer beam and their lobby ceiling height — you agree to investigate a post-tensioned option that reduces depth by four inches.

Midday (12:00 PM – 1:00 PM): Lunch, though you might spend part of it reviewing a junior engineer's gravity framing calculations for a warehouse project. You mark up a few items — they undersized a header over a 24-foot opening and missed a load combination.

Afternoon (1:00 PM – 5:00 PM): At 1:30, you join a project kickoff meeting with the owner, architect, MEP engineer, and geotechnical consultant for a new hospital addition. You discuss soil conditions (the geotech report shows expansive clay), seismic design category, and preliminary framing options. After the meeting, you spend two hours producing structural calculations for a steel moment frame connection, referencing AISC 360 and the Seismic Provisions. At 4:00, you review shop drawings from a steel fabricator, checking bolt patterns, weld sizes, and member sizes against your design.

Occasional Field Days: Once or twice a week — more during active construction — you visit a job site. You might observe a concrete pour, inspect anchor bolt placement, or assess an existing structure for a renovation project. You document everything with photos and field notes that become part of the project record [5][6].

The rhythm shifts depending on project phase. Schematic design weeks are heavy on modeling and coordination. Construction administration phases mean more RFIs, submittals, and site visits [7].

What Is the Work Environment for Structural Engineers?

Most structural engineers split their time between an office and job sites. The office environment is standard — desk, dual monitors, engineering software — but the field component distinguishes this role from purely desk-bound engineering disciplines [2].

Office vs. Field: Expect roughly 70-80% office time and 20-30% field time, though this varies by firm type. Design-heavy consulting firms skew toward office work, while firms specializing in forensic engineering or construction engineering may have engineers on-site multiple days per week [5][6].

Remote Work: Hybrid arrangements have become more common since 2020, particularly for analysis and design tasks. However, site visits, plan review meetings with building departments, and construction observation cannot be done remotely. Fully remote structural engineering positions remain rare [6].

Travel: Travel requirements depend on the firm's project geography. Regional firms may keep travel under 10%. National firms or those with specialty practices (bridge engineering, industrial facilities) may require 25-40% travel [5].

Schedule: Standard 40-hour weeks are typical, but deadline-driven crunches happen — especially before permit submissions or during active construction phases. Overtime is common but generally not extreme compared to some other engineering disciplines.

Team Structure: You'll typically work within a structural department led by a principal or associate, alongside project managers, mid-level engineers, EITs, and BIM technicians. Cross-discipline interaction with architects and other engineering consultants is constant [6].

How Is the Structural Engineer Role Evolving?

The structural engineering profession is undergoing significant shifts driven by technology, sustainability mandates, and material innovation.

BIM and Digital Twins: Building Information Modeling has moved from "nice to have" to baseline expectation. Firms increasingly use digital twin technology to monitor structural performance in real time after construction, creating ongoing roles in asset management [5][6].

Mass Timber and Advanced Materials: Cross-laminated timber (CLT), fiber-reinforced polymers (FRP), and ultra-high-performance concrete (UHPC) are expanding the structural engineer's material palette. Familiarity with these materials — and the evolving code provisions that govern them — is becoming a differentiator in hiring [6].

Sustainability and Embodied Carbon: Clients and regulatory bodies are pushing structural engineers to minimize embodied carbon in their designs. This means optimizing material quantities, specifying low-carbon concrete mixes, and performing whole-life carbon assessments — skills that barely existed in job postings five years ago [5].

Computational Design and Automation: Parametric design tools (Grasshopper, Dynamo) and scripting languages (Python) allow engineers to automate repetitive tasks and explore thousands of design alternatives rapidly. Firms that adopt these tools gain a competitive edge, and they're hiring engineers who can use them [6].

Resilience Engineering: Climate change is increasing the severity of wind events, flooding, and wildfires. Structural engineers are being asked to design beyond minimum code requirements, incorporating resilience-based design frameworks that account for future hazard scenarios [2].

The BLS projects 5.0% growth for civil engineers (including structural) from 2024 to 2034, with approximately 23,600 annual openings [2]. Demand is particularly strong in infrastructure rehabilitation, healthcare facility construction, and data center development [9].

Key Takeaways

Structural engineering remains one of the most technically demanding and rewarding specializations within civil engineering. The role requires a strong foundation in mechanics and materials, fluency in building codes, proficiency with analysis software, and the judgment to make safe, efficient design decisions under real-world constraints. A PE license is effectively mandatory for career progression, and an SE license opens doors to the most complex and high-stakes projects [1][2].

With a median salary of $99,590 and top earners exceeding $160,990, the compensation reflects the responsibility [1]. The field's 5.0% projected growth ensures steady demand, particularly for engineers who combine traditional structural competence with emerging skills in BIM, sustainability, and computational design [2].

If you're building or updating your resume for a structural engineering role, focus on quantifiable project experience — structure types, spans, heights, material systems, and code jurisdictions tell hiring managers exactly what you can handle. Resume Geni's tools can help you structure that experience into a resume that gets past both ATS filters and the discerning eyes of a hiring principal.

Frequently Asked Questions

What does a Structural Engineer do?

A structural engineer designs and analyzes the load-bearing components of buildings, bridges, and other structures. This includes selecting materials, sizing members, designing connections and foundations, ensuring code compliance, and overseeing construction to verify design intent is met [3][7].

How much do Structural Engineers earn?

The median annual wage for structural engineers is $99,590. Salaries range from $65,920 at the 10th percentile to $160,990 at the 90th percentile, depending on experience, licensure, location, and specialization [1].

What degree do you need to become a Structural Engineer?

A bachelor's degree in civil engineering or structural engineering from an ABET-accredited program is the standard entry requirement. A master's degree in structural engineering is increasingly preferred for advanced design roles [2].

Is a PE license required for Structural Engineers?

While not always legally required for entry-level positions, a PE license is effectively essential for career advancement. It allows you to sign and seal engineering documents and is listed as required or preferred in the vast majority of mid-level and senior job postings [2][12].

What is the difference between a PE and an SE license?

The PE (Professional Engineer) license is a general engineering license. The SE (Structural Engineer) license is an additional, more specialized credential required in some states for designing certain structure types, such as hospitals and schools. The SE exam is widely considered more rigorous and focuses on advanced structural topics including seismic design [12].

What software do Structural Engineers use?

Commonly used tools include ETABS, SAP2000, RISA-3D, RAM Structural System, and STAAD.Pro for analysis and design. Revit Structure is standard for BIM coordination. AutoCAD remains relevant for drafting, and tools like Grasshopper and Python are gaining traction for computational design [5][6].

What is the job outlook for Structural Engineers?

The BLS projects 5.0% employment growth from 2024 to 2034 for civil engineers (which includes structural engineers), with approximately 23,600 annual openings driven by new positions, retirements, and occupational transfers [2].