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.

Join Mika Kazassoglou—an 18-year-old high school student from Liverpool, England—in exploring the use of software such as Autodesk Fusion, Revit, Autodesk CFD, and Dynamo to craft a unique solution for a local housing project. This session will offer a glimpse into his growth as a young, aspiring engineer, showcasing how he used these powerful tools to hone his skills. His project draws inspiration from sustainable design principles, incorporating elements from Passive House methodology to tackle energy efficiency and elevate living standards. He'll showcase the intricacies of his design process, looking at how Dynamo facilitated the creation of a distinctive roof model and how CFD analysis was used to assess its performance. Above all, this session will serve as a testament to the transformative potential of technically driven education, supported by Autodesk. It's a narrative of learning from mistakes, refining skills, and, ultimately, evolving into a more adept engineer.

The presentation will open with veteran cycle designer Mike Burrows, who will introduce the design strategy behind his initial frame design for the vehicle. He will describe the proof-of-principle model created to road test rolling resistance, wheel size and tyre selection. From that data, he designed and fabricated a carbon frame through a craft, analogue process, building on his considerable experience but without the use of any digital design aids. The courses were modelled mathematically in respect to the drag induced by the terrain. By the end of 2017 an initial prototype vehicle was ready for track testing and evaluation. This prototype will be used for UK speed and hour records in early 2018. Following Mike's introduction, Glen Thompson of London South Bank University will describe the aerodynamic considerations. Concurrently to the frame design, he was developing the external faring for the vehicle around datum points from Mike?s design. Approximately 30 iterations of form were generated over a period of 2 years, slowed by the requirement to solve models locally. The drag coefficients of early designs were benchmarked against models of the existing world record holder, Varna, and subsequently refined to absolute values with a goal to minimise the size of the transition zone to reduce drag. The second half of the presentation will be made by Barney Townsend of London South Bank University, and will focus on Autodesk's contribution to the project: the use of generative design and cloud computing to develop the next generation HPV design for the world speed record. Autodesk CFD will be used to validate existing results, and employ cloud computing to massively accelerate design improvements on the faring. This second-generation, hopefully world-record-breaking, vehicle will be manufactured in June with help from the Autodesk Advanced Manufacturing facility. At time of writing this abstract, the existing frame has been 3d scanned and imported to Fusion ready for subsequent rebuilding of the model for use with Generative Design. The presentation will conclude with the latest road test results and designs, and future plans for the record attempt at Battle Mountain, Nevada in September 2018. It will also summarise plans for a future spinout of the project as an HPV design project for STEM education in schools.

Generative Design technology in Autodesk Fusion 360 software is becoming a household name for those who want to achieve better engineering outcomes in less time. In this session, you'll get a look at how Generative Design technology in Fusion 360 has matured in 2023, and we'll take a deep dive into how these improvements will help enable your success in the future. In addition to our technology discussion, we will also review examples where Generative Design technology has played a role in helping customers achieve new levels of success.

In this session, we’ll explain how computational fluid dynamics (CFD) and generative design were used to reduce and optimize a maternal health ward in Sierra Leone, Africa. We will illustrate how one nonprofit firm is using this technology to design energy-efficient health centers for underserved communities. This session will show how we utilized generative design and CFD to perform building-performance analysis. We’ll present a case study in which CFD analysis was used to target and locate prime locations for louvers and vents to promote a completely passive strategy. We’ll explain how we optimized daylighting for a more sustainable building with an unreliable power supply and reduced operating costs. These strategies are crucial for health care centers in developing countries, where resources are limited and maximizing the environment is a necessity.

Want to learn how to use generative capabilities to design and optimize fluid flow with lower pressure drop and smoother channels—10-100 times faster? This class will present the Fluid Path study in the Generative Design Extension in Fusion 360 ("Generative Fluids” for short), a powerful generative technology for the CFD industry, explain how to apply it, and share advanced tips and tricks to significantly speed up the design process. You'll learn the Generative Fluids workflow, the physics and optimization behind it, and important aspects involved in getting as much as possible from the tool. Additionally, we'll cover how to connect the workflow with other Autodesk capabilities and products, such as Generative Design in Fusion 360 (to combine both generative technologies, structural and fluids); Autodesk CFD for result validation; and Fusion Electronics Cooling in Fusion 360. This session is a chance to ask direct questions to the people creating the product.

The Studio Wind Tunnel Project will bring simulation insight and guidance to the automotive design community. With seamless integration into existing design pipelines, fully automated virtual wind-tunnel analysis will enable studios to assess performance criteria, visualize airflow, and make informed design decisions at any stage of development. Designed to provide reliable and consistent insight, the Studio Wind Tunnel Project solves traditional challenges associated with vehicle aerodynamic simulation.

Increased renewable energy in power grids has reduced the load factor of coal-based power plants. Independent thermal power producers face regulations to shut plants or operate at reduced load. However, there are grid stability and availability issues with solar and wind power. To address both, existing thermal power plants need to operate flexibly. In this mode, a plant quickly ramps down from 100% load to as low as 30% and ramps back up, based on renewable surplus or deficit, respectively. This deviation from actual design parameters leads to thermal mechanical stresses in equipment, impacting equipment life and site personnel safety. Material residual life is studied under such adverse operating conditions. Challenge is handled by modeling and simulating wide variations in steam process conditions on thick-walled piping. Autodesk Fusion 360 and Autodesk CFD software help us understand transient thermal behavior. This talk will focus on new business prospects, and how to predict equipment life and ensure grid stability.

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.

Join us for a riveting introduction into computational fluid dynamics. Using the Fusion 360 platform as a launch pad into Autodesk CFD software, we’ll start at the beginning and discuss tips and tricks you may not find in a users’ guide or help system. This class will be both hands on and competitive as we focus on simulation optimization. Designed for users with existing basic Autodesk CFD skills, this 90-minute crash course in Autodesk CFD will leave you with renewed confidence. You’ll also have a shot at a prize or two, so bring your A game.

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.

In this class you will hear firsthand from one of our customers, Parker Hannifin Corporation, regarding how the firm deployed Vault software from a small group of 30 users to what is now over 1500 active users. You will also learn how the firm is using Autodesk PLM 360 software to manage the other processes that support engineering, quality, costing, quoting, and supplier management, and you will see how this enables the firm to use cloud-based PLM collaboration to extend the product data management productivity and increase the time to market of products and services.

One of the main development efforts regarding Autodesk CFD software has been to reduce time that users spend on the tasks of altering geometry and meshing. There have been several new major features and tools added to the product as part of this focus. The aim of this class is to inform and teach about how to gain productivity and greatly reduce your model-preparation time using these new tools. This class will include instructional demonstrations on how to use the new Surface Wrap tools, Model Assessment Toolkit, and SimStudio Tools for Autodesk CFD software. We will show a live demonstration of these tools in action. There will also be some demonstration of further enhancements for geometry and meshing available in the Autodesk CFD 2017 Beta software scheduled to be available at the time of Autodesk University 2015.

In this class, we will cover applications of Autodesk CFD Simulation software for sustainable design in the architecture, engineering, and construction (AEC) industry. You will learn how Autodesk CFD is used in the AEC design process. We will cover case studies involving the following: energy-efficient ventilation design for a large sports stadium facility; indoor thermal comfort using energy-efficient displacement ventilation for a large convention center foyer occupied by people; wind-loading analysis to simulate wind pressure and resultant structural loading on an airport façade and roof; and optimization of storm-water roof-drainage design using free surface flow. You will learn how the air flow and thermal simulations capabilities of Autodesk CFD are used to demonstrate performance for sustainable design.

In this class, we will present the use of Autodesk CFD for a new building project with a goal for net-zero energy compliance. The building and construction industries are responsible for about 40% of the global energy use and about 30% of the global carbon emissions, contributing to climate change. Energy-optimized building design is one of the green building principles that, by 2030, could reduce the carbon footprint and achieve reduction of building-related emissions by 50%—and deliver net-zero buildings by 2050. In an endeavor to design energy-efficient buildings, adoption of new technologies for enhancing indoor environment quality, thermal quality, and lighting quality are imperative. And implementation of such technologies needs validation for performance. Modeling and simulation software such as Autodesk CFD could be used to estimate the performance of the built environment and compare different design decisions in order to realize the opportunity to reduce energy consumption and, therefore, carbon emissions.

How can large, multidisciplinary projects be delivered in a streamlined and efficient way? Using the example of a recently delivered design of a 96,000-seat stadium featuring an enormous cable net roof, Mark will outline a unique approach to planning and implementing robust and efficient workflows that embrace the latest technological developments. The project was anchored in Autodesk Revit and Revit’s flexibility and openness was exploited to document and communicate a fully integrated building design with highly complex and irregular geometry. The class will introduce the application of “mass bespoke” thinking to a construction design project outlining how a change of mindset can demonstrably increase productivity and resilience to change. This class will change the way you think about design.

Taking as an example a real-world case—a dam discharge tunnel—this class will show how to handle a model that originated from digital scan, taking it toward a model that is at the same time simple, but keeping the relevant features. We will explain the workflow of turning the complex surface model into point clouds and simplified surfaces, and then generate a Simulation-friendly model—all using a wide range of Autodesk, Inc., products (like AutoCAD Civil 3D software, ReCap software, Inventor software, Remake software, and Fusion 360 software). Having the final model, we will explain how to set it up in Autodesk CFD software using the latest features of Autodesk CFD 2017 software—especially Hydrostatic Pressure—showing how it works and generates accurate results predicting the flow in and around the tunnel. Results derived from simulations are used for the design of the tunnel entrance to maximize the efficiency of the discharge, and to avoid problematic effects like cavitation. A representative of the EP customer that commissioned the project will be joining as a co-presenter. This session features CFD, AutoCAD Civil 3D, and Fusion 360. AIA Approved

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.

Plant designers face a wide variety of tough-to-solve ventilation and flow control challenges. How can contaminant releases be controlled more effectively? How can you improve energy efficiency? Can you improve flow uniformity through a filter to improve uptime and reduce costs? Designers routinely face these and countless other challenges but until today have had limited ability to examine them in detail. Plant Design Suite subscribers now have access to Autodesk Simulation CFD 360 cloud-based software, which enables designers and engineers to model flow, thermal phenomena, and fluid mixing in complex plant environments. This class will introduce attendees to what Simulation CFD 360 offers and how they can make best use of it for their design work using geometry that was created in AutoCAD® or Autodesk® Revit® software.

3ds Max software has a unique ability in that it can consume and output more data than any other application within the Autodesk, Inc., portfolio. In this class, we will explore how we can use 3ds Max software as a design hub. We will import real-world content from applications such as InfraWorks software and others. Then we will create physically accurate wind simulations using Autodesk CFD software (formerly known as Simulation CFD software). We will send these simulations to 3ds Max software for visualization purposes. Lastly, we will send everything to Stingray game engine to create an interactive and immersive experience. This session features 3ds Max and Autodesk Stingray.