Structural Design Engineer

Roles and responsibilities

• Develop and execute structural designs for various projects, including commercial, residential, and mixed-use structures
• Perform structural analysis and calculations to ensure the integrity and safety of designs
• Utilize advanced structural analysis and design software to optimize project outcomes
• Collaborate with multidisciplinary teams to integrate structural designs with architectural and MEP systems
• Ensure compliance with local UAE building codes, international standards, and best practices
• Prepare and review technical reports, specifications, and construction documents
• Conduct site visits to assess existing structures and monitor construction progress
• Stay updated on industry trends, emerging technologies, and sustainable design practices
• Participate in project meetings and communicate effectively with clients, contractors, and team members
• Contribute to the continuous improvement of design processes and methodologies

Qualifications

• Bachelor's degree in Civil Engineering or Structural Engineering (Master's degree preferred)
• Professional Engineering (PE) license or equivalent
• Minimum of 3-7 years of experience in structural engineering, with a focus on complex projects
• Strong knowledge of structural engineering principles and practices
• Proficiency in structural analysis and design software (e.g., SAP2000, ETABS, STAAD.Pro)
• Expertise in UAE and international building codes and standards
• Advanced mathematical and problem-solving skills
• Excellent technical writing and communication abilities
• Proficiency in AutoCAD and 3D modeling software
• Experience with Building Information Modeling (BIM) software
• Knowledge of seismic design and analysis
• Familiarity with sustainable design practices and green building standards

Desired candidate profile

1. Structural Analysis and Design

• Designing Structural Components: Designing components such as beams, columns, foundations, and slabs, ensuring they meet safety, functional, and aesthetic requirements.
• Structural Calculations: Performing detailed calculations to determine load-bearing capacities, stresses, deflections, and other factors that impact the stability and safety of a structure.
• Material Selection: Choosing appropriate materials (steel, concrete, timber, etc.) based on project requirements, cost considerations, environmental factors, and safety standards.
• Analysis Software: Using advanced structural analysis software (e.g., ETABS, SAP2000, STAAD Pro, ANSYS) to model structures and perform simulations to assess their behavior under various loads (e.g., dead loads, live loads, wind loads, seismic forces).
• Structural Optimization: Ensuring that the design uses the minimum amount of material while maintaining safety and performance standards, which helps in cost savings and sustainability.

2. Coordination with Other Professionals

• Collaboration with Architects: Working with architects to ensure the structural design complements the architectural vision while being feasible from a construction and engineering perspective.
• Coordination with Civil Engineers: Collaborating with civil engineers, particularly in areas such as foundations and site grading, to ensure that structural systems integrate seamlessly with the site.
• Working with MEP Engineers: Coordinating with mechanical, electrical, and plumbing engineers to ensure that the structural design accommodates MEP systems without conflicts.
• Consulting with Contractors: Working with contractors during the construction phase to ensure that the design is being executed as intended and addressing any issues that arise during construction.

3. Ensuring Compliance and Safety

• Building Codes and Standards: Ensuring that all designs comply with relevant local, national, and international building codes and standards (e.g., Eurocodes, AISC, ACI, BS 8110, IBC).
• Regulatory Approvals: Submitting designs for approval from regulatory authorities, ensuring that they meet zoning, safety, environmental, and sustainability standards.
• Risk Assessment: Identifying potential risks related to structural integrity and implementing appropriate mitigation strategies to address concerns such as seismic activity, wind forces, or heavy loads.
• Sustainability: Integrating sustainable practices into the design, such as selecting energy-efficient materials, optimizing resource use, and reducing the overall carbon footprint of the structure.

4. Design Documentation and Reporting

• Detailed Design Drawings: Preparing detailed construction drawings that communicate the design to contractors and construction teams. These drawings include dimensions, material specifications, and assembly details.
• Technical Reports: Writing comprehensive reports outlining the design process, assumptions, calculations, and compliance with standards. These documents may be used for internal review, regulatory submission, or client presentations.
• Material Schedules: Compiling lists of materials needed for the project, including quantities, types, and specifications, to support procurement and construction planning.