The design of heat sinks will vary based on heat, size, temperature, environment, and an assortment of other specifics. We can use computational fluid dynamics (CFD) to optimize heat sinks for their specific application. This class will walk through the process of evaluating and optimizing the design of heat sinks for natural convection.

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.

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.

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.

The effective use of Autodesk Simulation CFD for Turbomachinery applications requires fundamental knowledge of Computational Fluid Dynamics (CFD) and the software simulation use. Proficiency in these areas will ultimately help to improve both the design process and product performance. In this class, the fundamentals of the CFD process and its impact on Turbomachinery designs will be introduced to establish the initial foundation of simulation skills. A practical exercise of a simple centrifugal pump will then be used to put these skills into actual practice. The progression of a typical CFD simulation starts from the CAD model, the meshed model, to solving and convergence, and finally results visualization. During this workflow, best practices and pitfalls of CFD in Turbomachinery modeling will be discussed. Finally, the powerful post-processing tools of Autodesk CFD will be exposed to interpret Turbomachinery results and make decisions for modifying the design.

In this session, we will show you step by step how to use the powerful, yet easy-to-use simulation capabilities of Autodesk CFD Simulation. Computational fluid dynamics (CFD) and thermal simulation tools will help you to predict product performance, optimise designs, and validate product behaviour where a fluid or gas flow is playing a crucial role. Electronic cooling, pressure drops in equipment, or even simulating the natural ventilation inside a building are all examples where CFD simulation can help you to optimise the design. The class is aimed at designers and engineers who have never used CFD simulation within their workplace.

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.

The NBBJ healthcare practice is currently using Simulation CFD 360 software to study patient comfort in healthcare design. This class will show examples of the work, and we will examine analysis of the results of this work. We will examine in-depth studies of natural ventilation, infection control, and patient comfort, and we will discuss methods and results. We will also look at additional computational fluid dynamics (CFD) studies to investigate the use of Simulation CFD 360 software in the study of energy-saving concepts as they relate to healthcare design and the design of other Sustainable Design Solutions.

Computational fluid dynamics (CFD) is a critical simulation tool for sustainability. By integrating CFD into the broader energy-simulation workflow, we can make more informed decisions and illustrate these issues for our clients. The key is to understand how CFD results translate into real-world metrics in terms of thermal comfort and energy. And, ultimately how the value of each strategy compares to other high-performance investment opportunities. This case-study class focuses on one simple example: using CFD to compare finned-tube perimeter heat to radiant ceiling panels in a typical private office. Our class outlines not only the specific steps of the CFD modeling process, but also how this process fits into the overall energy-performance optimization trajectory for the project.

This class will review the new wind simulation technology available in Robot Structural Analysis Professional 2015 software. We will review the current landscape of code-based wind design (specifically ASCE 7) and we'll discuss the challenges of applying these methods to different structure types. We'll then examine Robot Structural Analysis Professional software's unique computational fluid dynamic (CFD) wind simulation tools, and we'll discuss how they compare to the code-based approaches. Using sample wind simulation models, we will review the wind simulation analysis parameters and the analysis process, and we'll discuss the simulation results. Finally, we'll review the benefits of wind simulation, we'll discuss the ways it can be used to supplement and/or validate code-based approaches, and we'll cover the benefits of wind simulation on workflows and projects.

Dive into computational fluid dynamics. In this session, you'll learn how to make complex fluid studies simple using Autodesk CFD software. Explore the step-by-step process to setting up the simple and complex analysis using Autodesk CFD. See how to set up your unique studies, manage your materials, and understand how and when to use boundary and initial conditions and advanced solve tools. Dive into complex setups, including electronics cooling, steady state versus transient studies, and fluid mixing.

Energy efficiency, safety, and technology integration are fundamental aspects in architecture, engineering, and construction (AEC) design and analysis. Explore how Autodesk and Ansys are advancing innovation in AEC through highly effective tools that streamline the application of powerful modeling and simulation technologies. By integrating AutoCAD and Revit with Ansys's simulation offerings, complex simulations are accelerated and simplified. Advancements in numerical simulation—like graphics processing unit (GPU) acceleration and new computational codes—boost computational fluid dynamics (CFD) and electromagnetic (EM) analyses, enabling more-detailed simulations and full-field EM solutions. We'll look at how these integrated solutions improve domain-specific applications, including HVAC system optimization, atmospheric modeling, indoor air-quality assessments, and 5G/6G channel predictions, showcasing the benefits of the Autodesk and Ansys collaboration for accuracy and interoperability in AEC and health and safety.

This talk will focus on transient coupled effects of conduction and radiative heat transfer in turbine rotor segments. Rotors at ambient are to be heated to extremely high temperatures, following certain metallurgical criteria. We'll use a computational fluid dynamics (CFD) simulation approach to analyze the rotor surface temperature, track the temperature trend vis-à-vis surface-to-core variation, and estimate transient heating time and surface heat flux. This simulation is needed to establish criteria required for testing rotors for meeting metallurgical properties under accelerated heating conditions. Challenges faced before obtaining a solution include reducing computational time, modeling complexity in geometrical features, setting up boundary conditions, and meshing. We'll also discuss basics of heat transfer and fluid mechanics, association of heater control logic, and the application of Autodesk CFD simulation tool to thermal engineering problems, as well as an analysis of results.

Join scanning professional Chad Studer and Autodesk's own CFD professional Ryan Abel as they demonstrate new end-to-end workflows from raw scan data to innovative solutions with Autodesk® Simulation CFD. They share intermediate and advanced techniques during the workflow process. The live scanning presentation will capture existing room conditions. Once the virtual site is completed, it will be used as a guide to develop an intelligent model by placing parametric content using Revit®-based software scan-to-BIM workflows. This model, created at a level 100, is used to automate the CFD (computational fluid dynamics) workflow. The existing model will illustrate air/fluid flow as it interacts with surrounding solids. The model will be analyzed for proper temperature or thermal influences. Natural ventilation, chilled beams, radiant heat, and displacement ventilation are just some of innovative solutions that will be discussed. New HVAC runs will be completed, modeled, and colored for visual temperature influence and design.

As demand for high performance buildings increases, more sophisticated techniques are needed to ensure a balance between energy efficiency and occupant comfort. Innovative ventilation and energy management approaches require an understanding of airflow patterns and the influence of heat gains or losses. Computational Fluid Dynamics (CFD) enables detailed modeling of these physics yet has historically been too difficult to use early in a project cycle during conceptual design and design development. Over the past 10 years simulation technologies have evolved to become faster, more user-friendly, and more accurate. Autodesk® Simulation CFD 360 is a proven cloud-based tool for examining how air is delivered to and exhausted from a space and the impact of thermal loads. This class will introduce you to CFD workflows and show you how to take full advantage of Simulation CFD 360 for rapid ventilation analysis.

Participants will learn how to use Revit software as a powerful and rapid geometry creation tool. As energy analysts and mechanical engineers, we often require multiple energy analysis programs to produce energy performance models, compliance models for Title 24 and Leadership in Energy and Environmental Design (LEED), load calculation models, and computational fluid dynamics (CFD) models. We can save significant time and money by using Revit software to create a single analytical model that we can export to various programs, including Simulation CFD software, eQUEST, energyPRO software, Trane's TRACE software, Integrated Environmental Solutions Ltd.'s Virtual Environment software, and California's new CBECC-Com software. This class will provide a detailed workflow for creating the geometry and exporting to the various programs, and you will discover tips and tricks to help troubleshoot and control the quality of your mechanical, electrical, and plumbing designs.

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.

Many of the major design and construction firms already rely on Building Information Modeling (BIM) for data center designs in order to take advantage of 3D clash detection and the production of coordinated construction documents. However, most don't realize that those functionalities are only the tip of the iceberg when it comes to the usefulness of BIM models. This class will give an overview of how to utilize BIM to expedite and enhance the workflows that include computation fluid dynamic (CFD) modeling with both Simulation CFD software and 6SigmaRoom software from Future Facilities for troubleshooting and optimizing airflows; electrical-system power calculations with the suite of tools from SKM Systems Analysis, Inc.; energy analysis, Leadership in Energy and Environmental Design (LEED)-compliance modeling, and load calculations using eQuest software or Trane's Trace700 software; and generation of automated bills of materials using Excel spreadsheets.

Autodesk CFD software from Autodesk, Inc., provides computational fluid dynamics (CFD) and thermal simulation tools to help you make great products. Using Autodesk CFD software, you can predict product performance, optimize designs, and validate product behavior before manufacturing. The question then arises: "Where do I start?" Attend this class and you will learn the basics of Autodesk CFD software and how it can improve your design process.

For high-performance HVAC systems such as radiant heating and cooling, underfloor air distribution (UFAD), and natural ventilation and hybrid systems that use both natural and mechanical conditioning of a building, it is critical to understand how the air flows and the surrounding environment impacts the occupants' comfort while still being able to balance energy savings. Computational Fluid Dynamics (CFD) models are key to understanding this balance. This class will teach you how to prepare an Autodesk® Revit® 2013 model and import into Autodesk® Simulation CFD 360 software. From there, you will learn how to quickly create wind-driven models of the airflow around the exterior of a building. You will also learn how to create buoyancy-driven steady-state models to understand the airflow and surface temperatures to provide design recommendations to increase thermal comfort. You will leave this class with the skills to use your CFD model to optimize your building and achieve energy savings for your high-performance HVAC system.