Рет қаралды 4,062
See how to extend your linear models to account for contact, nonlinear materials, and large deformations with Simcenter Nastran Multistep Nonlinear solutions.
View the recording and slides, plus other tips, tricks, and free resources: www.ata-e.com/...
Simcenter Nastran Multistep Nonlinear Solutions 401 and 402 allow you to leverage implicit nonlinear methods to analyze models that include contact; material nonlinearities such as plasticity, hyperelasticity, and creep; and geometric nonlinearities such as large deformations and strain with subcase chaining. These solutions were introduced to replace the legacy SOL 601 Advanced Nonlinear solver and have seen a number of exciting enhancements in recent releases. SOL 401 is implemented in the standard Simcenter Nastran architecture, whereas SOL 402 integrates capabilities from the highly regarded LMS Samtech Samcef solver into Simcenter Nastran. Both solutions feature robust algorithms and are easy to adopt due to their similarity to linear Simcenter Nastran solutions and support from common pre/postprocessors like Femap and Simcenter 3D.
This webinar will describe the basics of nonlinear analysis and demonstrate how to set up a basic plasticity analysis in SOL 401.
Topics:
- Overview of nonlinear structural analysis basic concepts
- Overview of Simcenter Nastran nonlinear analysis capabilities
- Demonstration of setting up and running a basic plasticity analysis on a model that showed yielding during linear static analysis
- Q&A
ABOUT THE SPEAKER
Miles Hatem
Senior Project Engineer, ATA Engineering, Inc.
Mr. Hatem is an expert Simcenter 3D and Nastran user and the author and instructor for Siemens’ official course on Simcenter 3D Multistep Nonlinear Analysis. As an ATA project engineer, he uses Nastran on a daily basis to deliver analysis-driven solutions to customers’ most challenging engineering problems. He specializes in linear and nonlinear structural analysis as well as structural dynamics analysis. Before joining ATA, Mr. Hatem received his BS and MS from Purdue University, where he studied structural analysis of aeronautical and aerospace systems.