This project focuses on developing a complete 3D piping model for an oil and gas processing unit using SmartPlant 3D (SP3D). It covers equipment placement, nozzle alignment, pipe routing, and specification-driven component selection. Clash detection is performed to resolve inter-discipline conflicts, and piping supports are integrated with structural elements. Isometric drawings, material take-off (MTO), and BOM reports are generated to meet fabrication and construction requirements. The project reflects real-world EPC workflows followed in large-scale oil and gas plant design projects.

This project involves creating a detailed SP3D model for a thermal power plant piping and structural layout. It manages piping routing across multiple levels, coordination with steel structures, and implementation of pipe supports and hangers. Engineering specifications are applied to ensure compliance with design standards, while interference checks ensure constructability. Final deliverables include isometric drawings, support details, and material reports. The project represents industry-standard practices used in power generation and utility engineering projects.

This project focuses on modeling a chemical plant process unit using SP3D, integrating equipment, piping networks, and structural components into a single coordinated 3D environment. Process-based piping design rules are applied to ensure correct flow direction, connectivity, and component placement. Advanced reporting tools are used to extract MTO and fabrication data, while clash analysis ensures design accuracy. The project simulates real industrial chemical plant design workflows followed by global engineering and EPC organizations.