Essential Skills for Structural Engineers: A Complete Guide

After reviewing thousands of structural engineering resumes, one pattern stands out immediately: candidates who list "structural analysis" as a skill without specifying which codes they design to — ASCE 7, ACI 318, AISC 360 — get passed over for those who demonstrate code-specific fluency and pair it with software proficiency that goes beyond just "AutoCAD."

Key Takeaways

• Hard skills win interviews, but code fluency wins jobs. Employers want to see specific building codes, load path analysis experience, and advanced FEA software — not generic "engineering" skills [13].
• The PE license is non-negotiable for career advancement. Structural engineers who earn their SE license in states that require it earn significantly more and qualify for senior roles faster [1].
• Soft skills separate project engineers from project leaders. Cross-disciplinary coordination with architects, MEP engineers, and contractors is where structural engineers either accelerate or stall their careers.
• BIM integration and sustainability design are the fastest-growing skill demands, and candidates who can demonstrate proficiency in both command premium salaries [5][6].
• Median pay sits at $99,590 annually, with top earners reaching $160,990 — and the gap between those tiers often comes down to specialization and licensure [1].

What Hard Skills Do Structural Engineers Need?

Structural engineering is one of the most technically demanding disciplines in civil engineering. Hiring managers scan for specific, demonstrable competencies — not vague descriptors. Here are the hard skills that matter most, ranked by proficiency expectations.

1. Structural Analysis & Design (Expert)

This is the core of the profession. You should demonstrate expertise in analyzing load paths, designing members for gravity and lateral loads, and producing calculation packages. On your resume, specify the structure types you've designed: steel moment frames, concrete shear walls, wood diaphragms, or post-tensioned slabs [7].

2. Building Code Proficiency (Expert)

Employers expect fluency in IBC, ASCE 7 (Minimum Design Loads), ACI 318 (Concrete), AISC 360 (Steel), and NDS (Wood). List the specific code editions you've worked with. A resume that says "designed per ASCE 7-22 seismic provisions for SDC D" tells a hiring manager far more than "familiar with building codes" [7].

3. Finite Element Analysis Software (Advanced)

Proficiency in programs like SAP2000, ETABS, RISA-3D, RAM Structural System, or STAAD.Pro is expected for mid-career and senior roles. Specify which software you use and for what purpose — "Performed dynamic analysis of a 20-story steel structure using ETABS" demonstrates real capability [5][6].

4. AutoCAD & Revit Structure / BIM (Advanced)

BIM has transformed structural engineering workflows. Revit Structure proficiency is increasingly required, not optional. Demonstrate your ability to create 3D structural models, coordinate with architectural and MEP models, and produce construction documents directly from BIM environments [5][6].

5. Foundation Design (Advanced)

Spread footings, mat foundations, drilled shafts, driven piles — specify your experience. Include soil-structure interaction analysis if applicable. Hiring managers at geotechnical and structural firms value candidates who can interpret geotechnical reports and translate them into foundation designs [7].

6. Steel Connection Design (Intermediate to Advanced)

Connection design is where many junior engineers struggle. Proficiency in moment connections, braced frame gusset plates, and base plate design — along with tools like SidePlate or Idea StatiCa — sets you apart. Mention AISC Design Guide references when relevant.

7. Seismic & Wind Engineering (Intermediate to Advanced)

For roles in high-seismic or hurricane-prone regions, this becomes an expert-level requirement. Demonstrate experience with seismic detailing, performance-based design, or wind tunnel study coordination [7].

8. Construction Administration (Intermediate)

Reviewing shop drawings, responding to RFIs, conducting site observations, and writing field reports are skills that distinguish engineers who've seen their designs built. Quantify this: "Provided CA for $45M hospital project over 18-month construction phase."

9. Technical Report Writing (Intermediate)

Structural assessment reports, feasibility studies, and peer review documentation require clear, precise technical writing. This skill is especially critical for forensic structural engineering roles [4].

10. Programming & Automation (Basic to Intermediate)

Python, MATLAB, or VBA scripting for automating repetitive calculations is an emerging differentiator. Engineers who can write scripts to automate spreadsheet-based design checks or post-process FEA results save firms significant hours [5][6].

11. Drafting & Detailing Standards (Intermediate)

Understanding reinforcing steel detailing (per CRSI standards), steel fabrication drawings, and construction document conventions ensures your designs are buildable.

What Soft Skills Matter for Structural Engineers?

Generic "teamwork" and "communication" won't cut it on a structural engineering resume. The soft skills that matter are specific to how structural engineers actually work.

Cross-Disciplinary Coordination

Structural engineers sit at the intersection of architecture, MEP, and construction. You'll negotiate floor-to-floor heights with architects who want thinner slabs, coordinate penetration locations with mechanical engineers, and resolve conflicts in BIM coordination meetings. This isn't generic teamwork — it's technical diplomacy [7].

Client-Facing Technical Communication

Explaining why a building owner needs to spend an additional $200,000 on a deeper foundation system requires translating complex engineering concepts into business language. Engineers who can present structural options with cost-benefit clarity earn client trust and repeat work.

Mentoring Junior Engineers

Senior structural engineers are expected to review calculations, guide design approaches, and develop junior staff. Firms explicitly look for this in candidates targeting Associate or Principal roles. Frame it concretely: "Mentored team of 3 EITs through PE exam preparation and project delivery."

Risk Assessment & Professional Judgment

Not every decision can be solved by running another analysis. Structural engineers routinely make judgment calls about load assumptions, existing condition assessments, and construction feasibility. Demonstrating sound engineering judgment — especially in forensic or renovation work — signals maturity [4].

Project Scope & Schedule Management

Mid-career structural engineers manage their own project budgets, track hours against fee proposals, and coordinate deliverable schedules with project managers. This is project management with an engineering lens, not generic PM skills.

Attention to Constructability

Designing a structure that works on paper but can't be built efficiently is a common pitfall. Engineers who consider construction sequencing, material availability, and contractor capabilities during the design phase save projects time and money.

Regulatory Navigation

Navigating plan review comments from building departments, coordinating with special inspectors, and understanding jurisdictional code amendments requires patience and procedural knowledge that goes beyond technical skill [7].

Resilience Under Deadline Pressure

Structural deliverables often sit on the critical path. When a project timeline compresses, structural engineers face intense pressure to deliver accurate work fast. The ability to maintain quality under deadline pressure — without cutting corners on life-safety calculations — is a skill that firms deeply value.

What Certifications Should Structural Engineers Pursue?

Licensure and certifications directly impact earning potential and career trajectory in structural engineering. Here are the credentials that matter most.

Professional Engineer (PE) License

• Issuer: State licensing boards (administered through NCEES)
• Prerequisites: Bachelor's degree from an ABET-accredited program, passing the FE exam, 4 years of progressive engineering experience, passing the PE Civil: Structural exam
• Renewal: Varies by state; most require continuing education (typically 15-30 PDHs per renewal cycle)
• Career Impact: The PE license is the single most important credential for structural engineers. It's required to seal drawings, and most firms require it for promotion beyond mid-level roles. Engineers with a PE consistently earn more than those without [2][8].

Structural Engineer (SE) License

• Issuer: State licensing boards (currently required or recognized in approximately 20 states, including California, Illinois, Washington, and Hawaii)
• Prerequisites: PE license, additional experience (varies by state), passing the 16-hour NCEES SE exam (Vertical and Lateral components)
• Renewal: State-dependent; continuing education required
• Career Impact: The SE license is the gold standard for structural engineers. In states that require it, you cannot design certain structure types (hospitals, schools, essential facilities) without it. It signals advanced competency and opens doors to the most complex, high-value projects [2][12].

Fundamentals of Engineering (FE) Exam

• Issuer: NCEES (National Council of Examiners for Engineering and Surveying)
• Prerequisites: Typically taken during or shortly after completing a bachelor's degree
• Renewal: None (one-time credential)
• Career Impact: The FE is the first step on the licensure path. Passing it early — ideally before or immediately after graduation — demonstrates initiative and keeps you on track for PE eligibility [2][8].

LEED Accredited Professional (LEED AP)

• Issuer: U.S. Green Building Council (USGBC) through GBCI (Green Business Certification Inc.)
• Prerequisites: Documented experience on a LEED-registered project (for LEED AP BD+C)
• Renewal: 30 continuing education hours every 2 years
• Career Impact: As sustainable design becomes standard practice, structural engineers who understand LEED credit implications — material reuse, recycled content in steel and concrete, embodied carbon — bring added value to project teams [5][6].

How Can Structural Engineers Develop New Skills?

Professional Associations

The Structural Engineering Institute (SEI) of ASCE offers technical committees, conferences (Structures Congress), and publications that keep you current. The American Institute of Steel Construction (AISC) provides free webinars, design guides, and the Steel Solutions Center. The American Concrete Institute (ACI) offers certification programs and technical resources for concrete design [2].

Formal Training & Continuing Education

Programs like the ASCE Continuing Education catalog offer courses in seismic design, bridge engineering, and progressive collapse analysis. For SE exam preparation, providers like PPI (formerly Professional Publications Inc.) and SE University offer structured study programs.

Online Platforms

LinkedIn Learning and Coursera offer courses in BIM, Revit Structure, and Python for engineers. For FEA-specific training, CSI (Computers and Structures Inc.) provides tutorials for SAP2000 and ETABS directly through their knowledge base.

On-the-Job Strategies

Volunteer for project types outside your comfort zone. If you've only designed wood-frame residential, ask to assist on a steel commercial project. Seek out construction administration assignments — watching your designs get built teaches lessons no software can replicate. Request to participate in peer reviews of senior engineers' work to accelerate your technical judgment development [7].

What Is the Skills Gap for Structural Engineers?

Emerging Skills in High Demand

Embodied carbon analysis is rapidly becoming a client requirement. Structural engineers who can evaluate and reduce the carbon footprint of structural systems — choosing lower-carbon concrete mixes, optimizing steel tonnage, or specifying mass timber — are increasingly sought after [5][6].

Parametric and computational design using tools like Grasshopper (for Rhino) or Dynamo (for Revit) allows engineers to optimize structural forms and automate repetitive modeling tasks. This skill set is still rare among structural engineers, making it a significant differentiator.

Resilience engineering — designing structures to withstand climate-related hazards beyond minimum code requirements — is gaining traction as extreme weather events intensify and clients demand longer building lifespans [2].

Skills Becoming Less Central

Manual drafting has been fully replaced by CAD and BIM. Hand calculations, while still valuable for verification, are no longer sufficient as a primary design method. Familiarity with legacy software (MicroStation for structural work, older DOS-based analysis tools) carries diminishing value.

How the Role Is Evolving

The BLS projects 5.0% growth for civil engineers (including structural) from 2024 to 2034, with approximately 23,600 annual openings driven by infrastructure investment and replacement needs [2][9]. Structural engineers who combine traditional design expertise with digital fluency — BIM coordination, computational design, and data-driven decision making — will capture the strongest opportunities in this growing field.

Key Takeaways

Structural engineering remains a high-demand, well-compensated profession with a median salary of $99,590 and top earners exceeding $160,990 [1]. Your skills strategy should prioritize three things: licensure (PE and SE), software depth (not just listing tools, but demonstrating what you've designed with them), and emerging competencies like embodied carbon analysis and computational design.

Build your resume around specific codes, specific software, and specific project outcomes. Quantify everything — spans, stories, square footage, construction value. Generic skill lists get generic results.

If you're ready to translate your structural engineering expertise into a resume that reflects your actual capabilities, Resume Geni's AI-powered resume builder can help you organize your technical skills, certifications, and project experience into a format that passes both ATS screening and the critical eye of a hiring manager who knows exactly what to look for.

Frequently Asked Questions

What is the most important skill for a structural engineer?

Building code proficiency — specifically the ability to apply ASCE 7, ACI 318, AISC 360, and IBC provisions to real design scenarios — is the foundational skill every employer expects. Without it, software proficiency and analysis capabilities have no practical application [7].

How much do structural engineers earn?

The median annual wage for structural engineers is $99,590, with the 75th percentile reaching $128,290 and top earners (90th percentile) making $160,990. Entry-level positions start around $65,920 at the 10th percentile [1].

Is a PE license required for structural engineers?

While not legally required to work as an engineer-in-training under a licensed PE's supervision, the PE license is effectively required for career advancement. Most firms mandate it for promotion to project engineer or senior engineer roles, and it's legally required to seal engineering drawings [2][8].

What software should structural engineers learn first?

Start with Revit Structure for BIM-based documentation and one primary analysis platform — ETABS for building structures or RISA-3D for general structural analysis. Add SAP2000 for more complex dynamic and nonlinear analysis as you advance [5][6].

How long does it take to become a licensed structural engineer?

The typical path takes 8-10 years after starting college: 4 years for a bachelor's degree, passing the FE exam, 4 years of qualifying experience, passing the PE exam, and then (in states that require it) additional experience before sitting for the 16-hour SE exam [2][8].

What is the job outlook for structural engineers?

The BLS projects 5.0% employment growth from 2024 to 2034, with approximately 23,600 annual job openings. Infrastructure investment, aging building stock requiring assessment and retrofit, and natural disaster resilience needs all drive demand [2][9].

Do structural engineers need to know programming?

Programming isn't required, but it's becoming a meaningful differentiator. Python scripting for automating calculations, Dynamo for parametric Revit modeling, and MATLAB for research-oriented analysis give structural engineers a competitive edge — particularly at firms investing in computational design [5][6].