Design and Structural Analysis of a Pre-Engineered Building (PEB) for an Industrial Warehouse

Demonstrate the ability to apply structural engineering principles and PEB design methodologies in creating efficient, cost-effective, and safe pre-engineered building solutions.

Develop proficiency in using industry-standard CAD and structural design software to model steel frameworks, optimize component sizing, and generate fabrication drawings.

Analyze load calculations including dead loads, live loads, wind loads, and seismic forces according to relevant codes and standards to ensure structural integrity.

Enhance skills in coordinating design elements such as column spacing, roof slope, bracing systems, and connections to meet client functionality and local building regulations.

Foster problem-solving and decision-making abilities by evaluating design alternatives, addressing constructability challenges, and proposing modifications to improve performance and reduce costs.

Cultivate professional communication skills through preparation of detailed design reports, technical documentation, and client presentations reflecting real-world stakeholder engagement.

Understand project planning and coordination aspects including material selection, vendor communication, and integration with architectural and MEP requirements to simulate comprehensive project delivery.

Review project requirements and site conditions for an industrial warehouse to determine design parameters and constraints.

Perform load calculations and structural analysis using relevant Indian/International codes (e.g., IS 800, AISC, ASCE 7) to identify forces acting on the PEB structure.

Utilize CAD and structural analysis software (such as AutoCAD, Tekla Structures, STAAD.Pro) to create a detailed 3D model including frame layouts, purlins, girts, and bracing systems.

Specify materials and cross-sectional profiles for members and connections optimizing for strength, weight, and cost considerations.

Produce detailed fabrication and erection drawings consistent with industry standards, ensuring constructability and ease of assembly.

Prepare a comprehensive design report summarizing assumptions, calculations, software outputs, and justifications for design choices.

Simulate interaction with clients through a presentation explaining design decisions, highlighting safety and economic factors, and responding to potential feedback or change requests.

Identify potential risks or design challenges (e.g., foundation interactions, thermal expansion) and propose mitigation strategies.

Provide recommendations for improving design efficiency or adapting the structure to alternative use cases, reflecting adaptability in professional practice.