We’ve all been there. Multiple sources of information, various software systems, and everyone needing to efficiently communicate to complete the project. AnyCAD software provides the medium to use, reuse, and exchange data of various types and from different sources. In this class, we’ll explore the different types of data supported by Inventor software and the applications included in the Product Design & Manufacturing Collection. We’ll dive into handling change and ensuring we associatively (when possible) share the data. What can AnyCAD do? It can associatively import DWG™ to build parts; keep third-party data in their non-native format; use 2D and 3D PDF for communication; perform to-and-from exchange with Revit software; share with others using the A360 cloud-based collaboration service; export Inventor bills of material (BOM) information to nonengineering users; and associatively share information with Fusion 360 software—and who knows what else!

Autodesk is famed for having robust and reliable simulation tools. On the other hand, we have Generative Design in Fusion 360 software—the technology that revolutionizes the engineering world and the ways we design things. Autodesk development teams have been working on capitalizing on these proven simulation solvers as well as the latest technologies in a generative design. As a result, a new tech preview feature named Experimental Solvers is enabled in Fusion 360. This means every user of the generative design feature will also see new outcomes with new sophisticated shapes, in addition to the existing traditional solutions. This technology brings new functionalities and delivers forms optimized in a new way, opening doors that have been closed previously. In addition to showing how to use the new technology of Generative Design in Fusion 360, above all, we will present how the new functionalities empower the new applications using real-world examples.

Laser powder bed fusion (LPBF) is one of the most predominantly used additive manufacturing (AM) technologies today, producing functional metallic parts in several industries such as aerospace, medical, and automotive. As an emerging and complex technology, the manufacturing design guidelines and rules of LPBF along with its impact on sustainability are not well understood. This session builds off design for additive manufacturing (DfAM) principles as they apply to specific process parameters and machine dynamics defined in LPBF. These include recoater blade interference, support structure, and part distortion. This session also provides insight into the impact of AM on sustainability, as well as highlighting key design considerations to improving the implications on sustainability. With these considerations in mind, the session will explore how a user can implement design variables into their workflow using Autodesk Netfabb and its Simulation Utility.

Fusion 360 software now offers a simple workflow for programming industrial robot arms. Anyone familiar with post-processing machine code from Fusion 360 can now create robot code in the same way. During this lab, users will use the manufacturing space from Fusion 360 to generate robot native code that can drive industrial robot arms. First, we will show a generic robot workflow within Fusion 360 that will post with the ABB post processor. Then, we will cover exporting code into a virtual robot simulator, ABB RobotStudio, for validation. We’ll then pivot to recordings at Autodesk Technology Centers, explaining calibration of various coordinate systems localizing the robot arm and robot operation for milling applications. We’ll introduce other applications that participants can use with this workflow, such as welding and additive. Finally, we will share various case studies from Autodesk Technology Center residents and customers utilizing Fusion 360 for industrial robots.

How cool to watch or drive a drone! Well, there is a cooler way to think drones: You’ll be able to create a drone chassis after attending this hands-on lab! Fusion 360 software is an amazing product, with lots of environments to master. Generative Design in Fusion 360 is also available. Using the power of Generative Design, you can discover lots of details on how to use Fusion 360 to create a specific product. No matter if you’re a beginner or a seasoned veteran, this will be a detailed course that everyone can understand. Come along for an action-packed 90 minutes of learning, and find out how to create a design using Generative Design in Fusion 360!

Direct modeling is an extremely powerful tool in Fusion 360 software. The use of features that follow natural gestures and movements (i.e., pull, twist, stretch) empowers users to fully immerse in a modeling experience that provides enjoyment, exploration, and a sense of “flow.” Direct modeling can also bypass steps such as setting planes, sketches, and other 3D commands, which could get in the way of modeling workflows. While direct modeling is typically associated with T-Splines via the Sculpt environment, it is possible to also use it in parametric settings. This presentation will illustrate the power of direct modeling in both environments in Fusion 360 software with the use of simple yet effective workflows and design examples.

In this class, you will learn how to best identify parts for redesign. You will receive a few examples and then see in Fusion 360 software how to redesign the parts keeping design-for-manufacturing (DFM) rules for metal additive manufacturing (AM) in mind. The goal is to redesign the parts using simple operations in Fusion 360 to see that you don't need an organic topology optimized part to get an economical use case. You’ll learn the limits of metal AM and when it is definitely not smart to use this technology.

In this class, the speaker will share the Fusion 360 free-form modeling tips and tricks that were used to model the Ironman Suit and the Ironman Armor: Mark XLIV—HulkBuster. The process of making these suits was presented at Autodesk University 2017 and 2018. These two models were also posted on the Fusion 360 Gallery: (https://gallery.autodesk.com/projects/110798/ironman-suit), and (https://gallery.autodesk.com/projects/120141/iron-man-armor-mark-xliv—-hulkbuster)

The South China University of Technology (SCUT) robotic team never stop seeking brand-new solutions for improved efficiency and quality workflow from design to manufacturing. Zhen-Po led his team, the South China Tigers, to a first-place RoboMaster 2019 regional championship through the adoption of generative design tools in Fusion 360 software. Zhen-Po was hired by the RoboMaster’s organizer, DJI, an electronics manufacturer in China after graduation. Combining 27 parts to only a single part for the stabilizer mount achieved a final weight of 170 grams—a 42% weight reduction compared to the original computer numerical control (CNC) process. Reducing the material waste while enhancing the strength by generativity adding support, therefore reducing the mass of the robot while ensuring structural integrity, the mechanical team’s entire iterative cost was reduced by 80%, which would not have been possible before.

In this session, attendees will get a look at how Generative Design in Fusion 360 software can help them improve the way they design and make engineering decisions. We will review the development progress we made throughout the year, and highlight why those features were key to improving how users capitalized on Generative Design. We will also look ahead to how we will be investing in improving our workflows, as well as growing our physics support to expand the types of problems that can easily be solved with Generative Design in Fusion 360. Lastly, we will show a sample of some of the successful customer projects that have been executed throughout the year.

Solar energy is clean and limitless, and the operational costs are close to nothing once you’ve installed a solar panel as no fuel is needed to create a considerable amount of energy. And a single kerosene wick burns an estimated 80 liters of fuel, producing more than 250 kilograms of carbon dioxide per year. To help people living in remote places with limited access to electricity, we made a low-cost solar light bulb as a replacement to a harmful kerosene lamp. We will share the technical workflow while creating the solar lamp inside the Fusion 360 Electronics and Modeling workspace, demonstrating an effective ECAD—MCAD collaboration.

Fusion 360 software could be your most powerful tool as a designer, maker, or engineer. Fusion 360 is an all-encompassing piece of software that helps users with processes from start to end, design to manufacture, utilizing CAD, CAM, Simulation, and Rendering to envisage a design. This class will focus on the middle of that process—Simulation for Fusion 360. Simulation lets designers test (simulate) their designs before reaching the manufacturing process. This enables iterative changes without the time and money (and potential waste) that can go into making a product only to find it doesn't meet the standards needed. The Simulation workspace in Fusion 360 can feel a little intimidating at first glance—with so many options to choose from. This class will take you through the steps, showing you which study type of simulation can be used depending on what your aims are. You will leave this class feeling more confident and ready to improve your whole design process!

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 demo, we will walk through a simplified example of capturing real-time manufacturing data (cutting temperatures) from a hobby-class computer numerical control (CNC) router as it machines aluminum, visualizing that data on the visual model of the part being manufactured. Cutting tool and workpiece temperatures are direct indications of cutting efficiency and tool health. Mapping temperatures can help validate and suggest adjustments to feeds, speeds, and depth of cut to achieve the nominal chip load. While this is far from an industrial solution, this demo will show the power of IoT manufacturing within a simplified context to explore the utility and promise of cloud-based manufacturing solutions, built with Forge.

Professor Hamane consolidate class and World solar car team for student org to Fusion Team which can help distant learning platform and collaboration for ME design students over Fusion 360 and Fusion team. You can learn the effective way of project management and data from SWX data to convert.

How many tips do you think we can learn in 60 minutes while recreating the Engineers’ Guide to Drinks within Fusion 360 software? The Engineers Guide to Drinks drawing was a test drawing originally created to test pen plotters back in 1972. Autodesk stalwart Shaan Hurley recreated it in AutoCAD software a number of years ago. It's since been replicated in a number of other applications. When coming up with a title for this tips and tricks class, the speaker thought about how much more sober everyone will be at Autodesk University this year given it's not being held in Las Vegas (in theory, at least). This thought immediately invoked the Engineers’ Guide to Drinks and how it would be a fun way to cover a series of tips and tricks across sketching, modeling, assemblies, animation, rendering, and manufacturing. Let's do this!

Using a multiaxis machine tool is a great method for reducing the machining time when manufacturing components. This presentation will give an overview of how this software can speed up the process of programming multiaxis computer numerical control (CNC) machines to manufacture complex components. The focal point of this presentation will be showing how CAM can simplify the machining of complex components, while minimizing mistakes in the process and increasing productivity.

We’ll start by exploring the basics of Generative Design in Fusion 360 software, then look at how understanding the inputs can help us to design not only functional but also fun designs. To make our new artistic design, we need to explore how 3D printers see the designs. Small tweaks can help the 3D printer create better results. We will show examples of artistic designs and the quality of the 3D-printed outcomes.

3D models help us to create better-quality products, but also help us to visualize our designs in various ways: 3D images, videos, games, 360 panoramas, virtual tours, augmented reality, virtual reality, and so on. All these are digital and are able to reach a big audience. Sometimes we need to step out of this digital world and go back to the basics! Brick Reality is a partly 3D printed and partly Lego build of a 3D road design. This class will show you how an InfraWorks model was made and turned into visualizations and a 3D-printed/Lego model.

Ever wanted to get hands on with CAM in Fusion 360 software but felt a bit intimidated or didn't know where to begin? Want to see a job set up and run live during the session? Well, this is the class for you! Throughout the last 10 months, the speaker has gone from knowing nothing about machining or CAM to knowing slightly more about machining and CAM! This is the class for CAM newbies! We will go through the process of posting out your first computer numerical control (CNC) job without assumed knowledge. This will involve opening the Manufacture workspace in Fusion 360, creating a setup, creating tools, generating toolpaths, and posting out to machine G-code. We will even have a live demonstration of the running of the CNC job on a machine at University of Warwick's Engineering Build Space!