
Learn to model piping systems in Caesar II, apply load cases such as wind, seismic, and hydro test, check code compliance (ASME 31.3/31.1/31.4) and optimize supports and nozzle loads.
Explore how Caesar II pipe stress analysis predicts piping behavior under pressure, temperature, fluid, and support conditions, identifying sustained, expansion, and occasional stresses for safe, optimal design.
Identify stress critical lines and define stress systems from the process line list using the flexibility specification. A case study demonstrates preparing the stress critical line list with system numbers.
Identify and compile the essential inputs for piping stress analysis in rs2, including design drawings, plot plans, insulation, material specs, line data, equipment details, and governing codes.
Open Caesar II rs2, create a new file, and set metric units. Model basic pipe elements, define nodes and bends, add supports and branch connections, and select B31.3 or B31.1.
Model a pump piping system in Caesar II with scissor, configure metric units, select A106 carbon steel, and analyze nozzle loads and stresses across temperature cases.
Create Rs2 static load cases for Caesar II pipe stress analysis using the editor. Define weights, temperatures, pressures, hydro test, wind and seismic cases; evaluate sustained, expansion and occasional stresses.
Learn to perform wind and seismic analysis in Caesar II by creating horizontal load cases, defining wind profiles, and using scalar combinations to validate nozzle stresses and line stops.
Generate Caesar II piping stress analysis reports by selecting load cases, compiling code-compliance stress summaries and displacement data, and attaching markup, drawings, and datasheets for client delivery.
Learn how spring hangers enable thermal movement while sharing pipe loads, and compare variable versus constant types, variability limits, and a Caesar II case study on nozzle qualification.
Edit a Caesar II piping model by breaking the system into elements, adding T connections, expansions, and supports, then renumber nodes and attach external pump or structural files for analysis.
Pipe stress analysis is one of the most critical activities in piping engineering. Critical piping routes must be studied with proper details to ensure the piping systems perform their intended work throughout their design life without failure.
This course is perfect for any engineer interested to start a career in piping stress analysis. Even piping layout engineers can learn the basics of pipe stress analysis using these step-by-step lectures. Most of the information related to piping stress analysis is organized in this course.
This course is designed to guide you through the pipe stress analysis process - using CAESAR II software developed by Hexagon. One practical problem is taken as an example to help the users learn the complete process of caesar ii pipe stress analysis. Some of the theoretical backgrounds are also covered in the online course. The major subjects that are touched upon are:
What is Pipe Stress Analysis
Which Line Needs Pipe Stress Analysis
Preparing Critical Line List
Common Pipe Support in Caesar II
Pipe Stress Analysis Workflow
Pipe Stress Analysis Software Packages
Creating New Model
Inputs Required for Analysis
Modeling pipes, elbows, tees, reducers, flanges, valves
Adding Supports (Rests, guides, line stops)
Adding Trunnion Support
Adding Spring Hangers
Adding Wind and Seismic
Modeling Equipment Nozzles
Running Error Checker
Creating Load Cases for Stress Analysis
Reviewing Output Results
Code Compliance Check
Checking Sagging
Checking Support Forces
Checking Thermal Movements
Checking Occasional Movements
Optimizing Supports
Optimizing Pipe Routes
Checking Nozzle Loads
For further details about pipe stress analysis using Caesar ii, you can refer to the following for some very nice educational content: https://whatispiping dot com/category/piping-stress-analysis/caesar-ii/