Job brief
We are seeking a detail-oriented Structural Engineer to join our multidisciplinary design team and lead the structural development of our upcoming commercial and infrastructure projects. You will act as the technical authority on structural integrity, collaborating with project managers, clients, and local regulatory bodies to deliver safe and efficient designs. This is an impactful role where your work directly influences the safety and functionality of large-scale physical assets. If you are passionate about applying engineering theory to real-world construction challenges, we invite you to help us build the future.
Key highlights
- Design complex structural framing systems for commercial buildings using steel, reinforced concrete, and timber materials.
- Perform rigorous finite element analysis using software like ANSYS or SAP2000 to ensure safety under extreme loading conditions.
- Produce comprehensive engineering calculations, design reports, and BIM-ready technical drawings that meet local and international building codes.
- Manage the submission and approval process for structural permits by coordinating with municipal building departments and regulatory authorities.
What is a Structural Engineer?
A Structural Engineer is a specialized civil engineering professional responsible for designing, analyzing, and ensuring the structural integrity of buildings, bridges, and industrial facilities. By applying advanced physics and material science principles, a Structural Engineer determines how structures withstand environmental loads, gravity, and seismic forces. Their expertise is essential for verifying safety compliance with building codes and ensuring the long-term resilience of the modern built environment.
What does a Structural Engineer do?
A Structural Engineer performs complex calculations and modeling to simulate how a structure will react to stress using software like ETABS, RISA-3D, or Revit. They produce detailed technical drawings, calculate load-bearing requirements for steel and concrete elements, and coordinate directly with architects and general contractors to resolve field constructability issues. During construction, they conduct site inspections to ensure work adheres to the project specifications and regulatory standards like IBC or ACI 318.
Key responsibilities
- Design complex structural framing systems for commercial buildings using steel, reinforced concrete, and timber materials.
- Perform rigorous finite element analysis using software like ANSYS or SAP2000 to ensure safety under extreme loading conditions.
- Produce comprehensive engineering calculations, design reports, and BIM-ready technical drawings that meet local and international building codes.
- Evaluate existing structures for seismic retrofitting or expansion needs by conducting on-site condition assessments and load capacity testing.
- Collaborate with architects and MEP engineers to resolve spatial conflicts and ensure structural elements integrate with building systems.
- Manage the submission and approval process for structural permits by coordinating with municipal building departments and regulatory authorities.
- Review construction submittals, shop drawings, and requests for information (RFIs) to maintain design intent throughout the build phase.
- Lead structural site inspections to confirm that construction practices align with structural specifications and safety engineering protocols.
Requirements and skills
- Bachelor’s degree in Civil or Structural Engineering required; a Master’s degree with a focus on structures is highly preferred.
- Active Professional Engineer (PE) license or Engineer-in-Training (EIT) certification with a clear path to licensure.
- Demonstrated mastery of structural analysis and CAD software including AutoCAD, Revit, SAP2000, or ETABS.
- In-depth knowledge of building codes and standards such as IBC, ASCE 7, ACI 318, and AISC steel construction manuals.
- Ability to communicate complex technical design constraints clearly to non-engineering stakeholders, contractors, and project owners.
- Experience conducting field observations and managing structural risk assessments on active construction project sites.
- Strong background in material science, particularly regarding the performance characteristics of high-strength steel and prestressed concrete.
- Proven capability to manage multiple project timelines and prioritize design deliverables in a fast-paced consulting environment.
FAQs
What does a Structural Engineer do on a daily basis?
On a daily basis, a Structural Engineer focuses on technical design and documentation. This involves running load-bearing simulations in software like ETABS, drafting structural plans in AutoCAD, and reviewing architectural layouts to ensure structural feasibility. They also spend time coordinating with contractors to solve on-site construction problems and ensuring that all work complies with strict building safety regulations.
What qualifications are needed to become a Structural Engineer?
To become a professional in this field, you typically need a Bachelor of Science in Civil or Structural Engineering. Most employers require an EIT (Engineer-in-Training) certification at minimum, with a preference for those holding a Professional Engineer (PE) license. Proficiency in specialized software such as Revit, SAP2000, and RISA-3D is essential for both entry-level and senior roles.
Who does a Structural Engineer work with during a project?
A Structural Engineer serves as a key partner in the construction lifecycle, working closely with architects, project managers, and MEP (Mechanical, Electrical, and Plumbing) engineers. They frequently engage with external stakeholders, including city building inspectors, planning departments, steel fabricators, and on-site general contractors to ensure the structural vision is executed accurately.
Why is the role of a Structural Engineer important for a building project?
The role of a Structural Engineer is critical because they provide the technical foundation that ensures a building is safe, stable, and capable of enduring environmental forces like wind, earthquakes, and gravity. Without their analysis, a structure cannot be guaranteed to withstand daily usage or emergencies. Their work mitigates legal risk, ensures public safety, and optimizes material usage to maintain project budgets.