This project focuses on performing detailed piping stress analysis using CAESAR II for an industrial process plant. It covers complete modeling of piping systems from geometry definition to load case generation and code compliance verification. Static load cases such as sustained, thermal expansion, and pressure are analyzed to ensure stresses remain within allowable limits as per ASME B31 codes. Pipe supports, restraints, and boundary conditions are optimized to control displacement and equipment loads. The project reflects real-world piping design and stress evaluation practices followed in oil & gas and process industries.

This project focuses on analyzing high-temperature steam piping systems using CAESAR II under dynamic loading conditions. It manages the full workflow from 3D pipe modeling to evaluation of seismic, wind, and vibration effects. Dynamic analysis methods such as modal and response spectrum analysis are applied to assess system behavior during transient events. Support configuration and load combinations are reviewed to maintain structural integrity and code compliance. The project represents real-world power plant piping stress scenarios encountered in thermal and combined cycle plants.

This project focuses on evaluating piping loads acting on pumps, compressors, and pressure vessel nozzles using CAESAR II. It involves modeling connected piping systems, applying operational and occasional load cases, and verifying allowable nozzle loads as per industry standards. Pipe support layouts are modified to reduce excessive forces and moments transferred to equipment. Stress results and displacement checks are documented through professional analysis reports. The project reflects real-world equipment protection and piping reliability practices used in engineering consultancy and EPC organizations.