This is our introduction class for the finite element analysis (FEA) with Autodesk Nastran Power Track. In this session we will introduce the Autodesk Nastran Power Track speakers and all the classes included in this power track. This class will cover the basics of FEA and explore examples (including linear stress, modal-to-heat transfer, and dynamic simulations) in order to gain additional insight and improve product design for automotive, oil and gas, and industrial machinery industries.

This class will cover the basics of finite element analysis (FEA) and explore examples (including linear stress, modal-to-heat transfer, and dynamic simulations) in order to gain additional insight and improve product design for automotive, oil and gas, and industrial machinery industries.

The class will show a design process where we use a building model in Revit software for structural analysis. We will optimize the design process using Dynamo programming. We will then use Dynamo to correct the analytical model in Revit and apply loads to the structure. After we've exported the analytical model to a finite element method (FEM) program and analyzed it, we will use Dynamo to write calculation results back to the Revit elements where they can be illustrated.

Post processing results from finite element analysis (FEA) solutions is essential to understanding whether your design passes or fails based on your engineering criteria. There are many options available for checking the design integrity, such as different types of stress plots. There are also several contour options such as nodal, elemental, max, and average. During this course we'll explain the importance of all these options and what to look out for to make sure the results are accurate.

This class covers the use of several software products, including Revit® Structure and Robot™ Structural Analysis Professional, for applications in the offshore energy and marine industry rather than the traditional building industry. These structures are often steel dominated and usually require advanced finite element method (FEM) analysis. We show examples from relevant projects and explain the workflow between the different software products used in the projects. We also show how the Robot API (application programing interface) can be useful for improved workflow between various analysis and modeling tools for complete detail engineering. You should be familiar with Robot, or another similar FEM analysis tool, and be open to API programming.

In this class, Autodesk Simulation experts will examine the commonly understood, and often published, methods for modeling welds in finite element analysis (FEA).  The true nature of welds, their physics, material characteristics, and failure modes will be reviewed in the context of what you can and can’t expect from simulation. Best practices for static weld sizing using FEA, primarily Nastran In-CAD, and Inventor will be revealed.  Evaluating welds for fatigue will also be reviewed to ensure participants are using state of the art simulation for all their welding applications.

In this class we will discuss the new capability to map fiber orientations and material properties from Simulation Moldflow software to structural finite element analysis (FEA). We will also cover how to use Simulation Composite Analysis software to simulate nonlinear material behavior of the fiber-filled material.

This is an introductory class into the advanced topic of finite element analysis (FEA). This class will be application-oriented rather than theory oriented, and it is intended for those of us who can gain design value from some basic FEA techniques without having to have a PhD in mathematics. The goal is to bring the accessibility of advanced Digital Prototyping tools to the casual user. Each year the "expert systems" software development brings practical accessibility to more and more users. You should jump in here and start learning these tools—now is the time. You can leave your calculator at home.

This class will walk though techniques for preparing geometry for simulation. We'll cover hints that will help you to identify potentially problematic areas, and then we'll show you how to quickly repair models, remove unneeded detail, and optimize the geometry in a way that will help you to create a high-quality finite element analysis (FEA) or computational fluid dynamics (CFD) mesh.

This class will walk though techniques for preparing geometry for simulation using SimStudio Tools. We'll cover hints that will help you to identify potentially problematic areas, and then we'll show you how to quickly repair models, remove unneeded detail, and optimize the geometry in a way that will help you to create a high-quality finite element analysis (FEA) or Computational Fluid Dynamics (CFD) mesh.

A look into Finite Element Analysis mechanical simulation inside Autodesk Inventor with Autodesk Nastran In-CAD. The presentation will explain the concepts of FEA simulation to validate product design and predict product behavior within the design application empowering designers to explore options as early as possible and reduce iteration costs. This enables designers to improve performance, reduce the chance of failure and reduce cost all without leaving their design environment.

Learn about the Inventor Professional software features for advanced mechanical engineering design, finite element analysis, motion simulation, data management, routed system and mold design, and enhanced CAD productivity.

See a practical example demonstrating how our customer Vimek AB integrates the built-in simulation and calculations tools in Autodesk® Product Design Suite as a natural part of their mechanical design process, starting with the conceptual phase. This class gives you easy-to-use-and-adopt examples covering free body diagramming, early conceptual dynamic simulations that will give you the most important sizing factors of the final design even before you have created a single new 3D solid! The class also covers how you use the reaction forces from the motion to perform finite element analysis (FEA) calculations and optimizations.

This lab will focus on getting started with Autodesk Nastran In-CAD software inside of Inventor 2016 software. Participants should have an understanding of finite element analysis (FEA) and the preferred participants are currently using FEA in their jobs. We will explore the Ribbon, Browser, and different analysis types. We will have a few workflows for basic users that are looking to crest the initial hurdle when learning new software, as well as a few examples for the more advanced users who are familiar with FEA software.

This class will work through the process of using Simulation CFD software and Simulation Mechanical software to generate engineering data throughout the product development process in order to optimize the design. You will discover that you don't need to be an analyst or expert in finite element analysis (FEA) or computational fluid dynamics (CFD) to use the Simulation software as many engineers still believe today. We will walk through the entire process of setting up and running simulations that examine how the effects of wind may directly affect mechanical properties, performance, and product design.

When performing finite element analysis, the quality of your mesh dictates the accuracy of your results. With the advances in automatic meshing technology, this quality is often overlooked. This class will focus on key topics such as selecting the correct mesh size, using mesh refinement, and interrogating the element quality to make sure you can be confident in your results.

The recently acquired Autodesk Nastran general-purpose finite element analysis (FEA) solver has gained a lot of popularity, and at the center of this is the newly developed topology optimization technology now being used in Autodesk Nastran stand-alone, Fusion 360 software, and Inventor Simulation software. This class will introduce the basics of topology optimization in Autodesk Nastran and demonstrate some of the advanced features that empower designers to create better designs and modify existing ones, making them lighter and more efficient. This session features Nastran and SimStudio.

Deriving from 2D reinforcement drawings in the past, 3D reinforcement modeling is becoming common practice, and automatically generated reinforcement from calculations is becoming reality. The next challenges are optimization of reinforcement layout and dealing with complex-shaped geometry. This all starts with an integrated workflow, where information is preserved and exchanged along all disciplines—from modeling (Revit software), calculation, and documentation (SOFiSTiK software), to file-to-factory data exchange and on-site verification (BIM 360 Field software). We will use cases from practice to demonstrate this. Learn how to generate complex geometry and rebar parametrically using the Dynamo extension for Revit software. Dynamo software’s parametric infrastructure in conjunction with the advanced 3D finite element method (FEM) analysis of TNO DIANA makes possible evaluation and optimization of structural performance. Hence, the realistic simulation of the structural behavior of complex-shaped structures in reinforced concrete is within reach. This session features Revit, BIM 360 Field, and Dynamo Studio. AIA Approved

Learn how to use direct modeling in Fusion 360 software to heal imported geometry using the "wound and heal" method. See how easy it is to defeature models for 3D printing or finite element analysis. Need to make a change that would bring a history modeler to its knees? See how easy it can be done with direct modeling methods. Finally, see how to design models using direct editing methodologies.

Are you an industrial designer (or a CAD user in general)? Are you not doing much with the simulation tools? Come and learn why and how you should be exploiting finite element analysis (FEA) and simulation in Fusion 360 software. Engineers are designers’ teammates, not opponents. Design and validation tools will help you collaborate with engineers more effectively. Those tools will also help you to carry a design to production with fewer changes. You’ll go to engineering with a sound concept, rather than something that needs a lot of help. We will talk about static stress, shape optimization, and maybe even a little generative design.