During this class, you will learn the how Autodesk Simulation Mechanical software can be used for construction industry applications. Autodesk Simulation Mechanical will be used to create a global model with fine local details, such as a bolted connection in a steel structure. We will also cover critical effects such as prestress of bolts, contact between parts, plastic deformation, and dynamic behavior that captures real behavior.

In this class we will go over how to find and fix problem CAD geometry to get a successful mesh. We will also highlight some of the advanced meshing tools within Simulation Mechanical software.

In this hands-on lab, learn how Inventor® Professional, Autodesk® Simulation CFD, and Autodesk® Simulation Mechanical design tools can empower structural engineers and architects to accurately assess designs for the infrastructure of our growing world. Autodesk design and creation suites are a smorgasbord of design tools, many with unlimited cloud computing capabilities. Creatively exploring various combinations and interoperability functions of Autodesk Simulation tools in nontraditional workflows can have a profound effect on design. This lab provides an opportunity to practice the workflow and techniques in a hands-on environment. A case study shows the techniques that are needed then justifies using simulation tools and workflows to accurately predict the thermal profile and resultant stresses through validation against measured bridge data. Attendees learn how Inventor designs can be analyzed for thermal loads using Simulation CFD and for thermal stresses using Simulation Mechanical.

In this class, we start with an overview of how simulation can be used during the complete design process. Simulation enables our customers to stand out from their competition because they can be more innovative and get to market faster while ensuring product quality. We cover several tools, including Autodesk® Force Effect™ and Dynamic Simulation in Inventor® 3D CAD software. We look at sloshing by performing a CFD analysis with Autodesk® Simulation CFD software, and we use Autodesk® Simulation Mechanical software to analyze vibrations.

In this class you will learn about the interaction between Inventor software and Simulation Flex software. We will focus on using Inventor software models via direct integration for stress analysis, code checking, and mechanical and computational fluid dynamics (CFD) simulation in the cloud. You will get in-depth overview of the Simulation software products and functionality, and you will learn the proper workflow needed to achieve optimum efficiency and integration.

Simulation tools are transforming the field of aerospace design by enabling affordable, on-demand simulation capabilities. Escape Dynamics, Inc., has been actively using mechanical and computational fluid dynamics (CFD) simulation tools in the design/optimization process of several key components of their space launch system, including antennas for wireless energy transfer, airframe and structural components of a single-state-to-orbit space plane, and a highly efficient combustion-free engine configured to use wireless microwave energy to power a space plane. In this lecture we will summarize the key benefits of using Simulation software tools in aerospace design application, and we’ll focus more narrowly on the CFD and mechanical simulations of our thermal thruster engine. We will specifically focus on comparison between simulation results and the real-world test data and share the lessons we've learned in simulating various heat-exchanger topologies, flow-through nozzles and pipes, and flow-with-heat addition.

We live in an extraordinary time when simulation and Digital Prototyping tools enable small teams of passionate people to pursue projects that only large corporations or governments could pursue a decade ago. Simulations allow tremendous savings on the physical prototyping and at the same time dramatically accelerate the product development process. Autodesk simulation products are revolutionizing innovation and are opening a complete new world of design where the only limitation is our own creativity. With the increased use of and reliance on simulation tools, it is extremely important to understand the precision of the results and have reliable information on how simulation results compare to the results of physical tests. In this class, we provide a detailed comparison of CFD software and mechanical simulations with the results obtained in our lab. Examples cover thermal expansion, wind tunnel, and heat exchange. This class also provides a tutorial on simulation tools.

Will my part fail? Will it be cooled effectively? Simulation can answer these and other critical questions early in the design process. This class will show how these simulations can be taken a step farther by examining fluid structure interaction (FSI) or, more specifically, taking advantage of the thermal results from a computational fluid dynamics (CFD) analysis to use as input into a mechanical stress and strain calculation. We will examine new workflows for running a thermal analysis in Autodesk® Simulation CFD software, processing the results, and using the thermal data within the setup of a thermal stress analysis.

In this class, you will learn about products in the Autodesk Simulation Moldflow software ecosystem that can bring fantastic and unique capabilities to Moldflow products. We will introduce you to capabilities that can help make your job easier, better, and more fun. The class will cover several products, including Autodesk® Simulation 360 cloud-based software and the Autodesk® Inventor® Fusion Technology Preview, which is a free history-free modeler that you can use to make simple changes to existing CAD geometry. We will also cover the Autodesk® Simulation® DFM add-on, which is a designer tool that helps you develop a plastic part that follows standard plastic design rules and can help you avoid time-consuming iterations between the Moldflow user and the CAD designer. You will learn about Autodesk® PLM 360 cloud-based product lifecyle management and Autodesk® Vault, Autodesk® Showcase®, and Autodesk® Inventor® Publisher software. We will also examine Autodesk® Simulation Mechanical software and the tooling capabilities of Autodesk® Inventor® software. Finally, we will introduce you to the Project Simulus Technology Preview from Autodesk Labs.

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.

Implementing Simulation software early and often in the design process helps to reduce prototypes, get to market more quickly, and optimize your design for better performance. Designs are all around you—some that have used Simulation software, and some that could benefit from this optimization. In fact, most products require the use of multiple Simulation software products to achieve their best design. I know, I know . . . so where does the kegger come in to play? It might seem strange, but something as simple as a keg can be used to perfectly demonstrate nearly every Simulation software product. In this class, you will learn a bit of Simulation for Fusion 360 software, Autodesk CFD software, Autodesk Nastran In-CAD software, Simulation Mechanical software, Moldflow software, and Moldflow Design software. So, if you’re interested in how you can optimize your designs, or just want to grab a beer in one of the most entertaining classes of Autodesk University, this is the place for you! This session features Fusion 360 and CFD.

During Autodesk University 2021, we shared a developed workflow for how designers can bring data together through designing the part, the PCB, and even how to manufacture the plastic components. With the complexity of electronic part designs, there are often various aspects that need to be considered for the part to both work and perform as expected. In this class, we will demonstrate how the Fusion 360 workflow has matured to incorporate mechanical engineering aspects to smooth this product design workflow. We will use a sample product, the Autodesk University Digital Badge, to demo how to integrate mechanical design requirements and simulation into the product design process.

This class will explore the computer-aided thinking and design process that the Nairobi-based Engineering Team from a leading social enterprise uses to create new, income-generating products for the poorest segment of Africa’s population: small-scale farmers. Developing irrigation products that are affordable and uniquely tailored to the complex needs of small-scale farmers in Africa is a design challenge with the potential to improve the lives of millions. Examples from the work of KickStart International will illuminate how Inventor software, Simulations Mechanical software, and Autodesk CFD software are used to address this challenge more efficiently. KickStart has been expanding their line of human-powered irrigation pumps for more than 15 years, and the introduction of Autodesk, Inc., software and 3D printing have improved workflow by shortening the concept-to-completion product-development cycle and offset some of the challenges of prototyping and batch producing locally, in Kenya, on the way to mass manufacture. This session features Inventor Professional, CFD, Fusion 360, and Simulation Mechanical.

This class covers the use of bolted connections, joints, rigid elements, and other element types to link parts within multi-body assemblies inside Autodesk Nastran In-CAD and Simulation Mechanical.  Several models will be displayed to highlight the differences between solid and idealized connectors, and how each approach can affect the results. 

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.

Autodesk has historically developed software and provided consulting services for metal additively manufactured (AM) lattice-type structures. Common powder-bed processes include SLM (Selective Laser Melting) / DMLS (Direct Metal Laser Sintering), and EBM (Electron Beam Melting). When considering real-life applications of these structures, many assumptions are made about the characteristics of the manufactured material. Among others, these include strength, elastic moduli, thermal properties, material density, surface finish, and structural stability. These characteristics are affected by many factors, including machine parameters, build orientation, and feature size. This session features Autodesk Explicit Solver, Nastran, Netfabb, Within.

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.

In this class, you will see how to use Fusion 360 Simulation software to create an Event Simulation workflow. You’ll learn that nonlinear concepts such as multibody contact, nonlinear elastic and plastic material behavior, and large deformations are straightforward and intuitive in Event Simulation. You do not have to be an expert in finite element analysis (FEA) to build and simulate realistic nonlinear models. You will discover the new automatic quasistatic analysis technique that’s built into Event Simulation and see that this new, fully explicit method vastly simplifies even the most-challenging nonlinear contact problems. You’ll learn to toggle between transient dynamic and quasistatic simulations with ease. The presentation of numerous example problems will show that challenging nonlinear simulation is now available to everyone.

In this class, we will go over various contact types for linear and nonlinear stress analyses. You will learn when to use which contact type and the types of meshes one needs to get the best results when using contact. This session features Simulation Mechanical and Fusion 360.

Generative design is a process of iterative design that uses the power of computing to give a designer a very large number of permutations and possibilities we can fine-tune with several constraints to get an optimum-performing design. This class will describe with real examples how we can use Fusion 360 tools to optimize designs, fulfilling the whole process from a raw CAD model to a high-performance design model that we can use in our simulation studies. The workflow will involve Fusion 360 and Autodesk Generative Design software for the optimization process, alongside Fusion Simulation and Autodesk CFD software as the numerical studies to prove the high-performance of the final alternative. The class can be a great way to get familiar with the usage of Fusion 360 and Autodesk Generative Design, as well as Autodesk simulation tools for fluids and mechanical simulation.