Drawing templates, when used to create drawings in Fusion 360 software, can both accelerate the time it takes to complete your mechanical engineering documentation, and ensure your drawings consistently represent your business and project standards. We will start by creating a new title block, with fields that can be automatically populated with information from the design, project, and your profile. We will add this to a new template, then walk through other options for customizing the template for your specific office and business needs. We will then show the power of "placeholder" elements in your template, and demonstrate how they can help remove much of the tedium of creating a new drawing from scratch.

Fusion 360 software is a cloud-powered CAD, CAM, and CAE tool, and it is the primary software for the instruction of degree apprentices at the AMRC Training Centre, part of the University of Sheffield. With rising student numbers, it was becoming increasingly difficult to provide detailed and timely feedback to students as they learned the basics of Fusion 360. In this session, Joe Palmer will present a bespoke feedback tool that has been coded in Python and implemented using the Fusion 360 API. This tool provides instantaneous feedback to students about the quality of their CAD models by assessing key model metrics. These metrics enable a complete picture of model quality to be determined by the script without any input from course tutors. This has empowered tutors to spend more time on valuable activities within the classroom. We will discuss a background of the Fusion 360 API, the tool's development process, and details of the scoring algorithm. We will also present a road map for future development.

Join Xometry’s Greg Paulsen for an in-depth comparison between five major, plastic 3D printing processes. In this talk, you will learn what makes them unique, how they are used, and what to consider when choosing an additive manufacturing process. Paulsen will discuss the following industrial 3D printing methods: HP Multi Jet Fusion (MJF); selective laser sintering (SLS); fused deposition modeling (FDM); stereolithography (SLA); and carbon digital light synthesis (DLS). Whether it’s cost concerns, mechanical function, performance environment, cosmetics, or output, this topic will help steer the design approach for end-use 3D-printed parts. The presentation will conclude with an open question-and-answer session.

In this class, we'll use the case study of designing a lab power supply. This is a common tool in electronics and by working through its design, we'll highlight how the electronics workspace, e-cooling simulation, and mechanical modeling can all be capitalized on to simplify and expedite the production of this product. As we go through the case study, we'll clearly demonstrate the benefits of having all of these tools in one application—namely, faster product development with fewer rework cycles.

This session is for admins who want to learn more about the steps required to transition to named user. We will cover step-by-step instructions that will help you add users with our four invite workflows, assign users to your subscriptions with import to assign and active directory group sync, update your license type to a named user subscription using automation or self-service by end users, and detail the new sign-in process for your users. Attendees will leave the session ready to transition and set up their new named user subscriptions in the most efficient way possible.

Are you working on ways to help automate design and make workflows for you or your customers? Are you trying to share product information between applications such as Fusion Lifecyle software and Fusion 360 software, or those outside the Autodesk ecosystem? Learn about how Forge data is powering a shared product information model to enable your design and make data flow more seamlessly across your workflows, teams, and the applications you use.

Learn how to capitalize on Revit data in Fusion 360 software to optimize for Autodesk CFD.

This presentation will focus on simulation techniques used to compare traditional hurling stick material and performance against a composite redesign. We used several Autodesk tools—including Fusion 360 software, Netfabb software, Moldflow, and Autodesk Nastran software—to evaluate and optimize the performance of the composite structure.

Horizontal machining centers (HMCs) have many advantages, and some disadvantages, over their counterpart. Many struggle with efficiently programming or getting started programming HMCs. This Fusion 360 instructional class will advise different workflows on setting up and programming an HMC. We'll demonstrate tips and tricks to make programming and machining times quicker and more efficient. We'll showcase several example posts and operation property modifications you can utilize to make the programmer’s and operator’s jobs much easier. With these methods and a bit of machining knowledge, you'll have more confidence in programming and optimizing the efficiency of your HMC.

In order to streamline design-to-manufacturing workflows, there is a dire need to simulate anything. The Fusion 360 and Ansys relationship is getting stronger and deeper, which means more power to the users. With Fusion Simulation software, you can do a variety of analyses like linear and e-cooling. With Ansys Simulation you can simulate virtually any analysis type. Generative design outcomes can be validated with advanced analyses such as transient, nonlinear, fatigue, and random vibration, to name a few, in Ansys. This technology will enable users to do design in Fusion 360 and simulation in Ansys. Fusion Simulation setups can be packaged into neutral files and pushed to Ansys Mechanical and Discovery on the same or a different computer enabling designer-designer and designer-analyst workflows.

The Fusion 360 platform is an extremely powerful tool for design and manufacturing, and with the inclusion of an easily accessible API, it can become even more powerful to automate user workflows. This class is NOT an introduction to the API. Rather, this class will focus on a number of powerful techniques the presenters have developed throughout the years to significantly enhance developer workflows and increase what you may think is possible with the Fusion 360 Client API. The class will focus on a number of specific problems and use cases commonly encountered when building automations and application integrations. Come learn how to do things you may never have thought possible.

This industry talk will begin by describing where we were back in 2017, how we came to find out about Fusion 360 software, and the decision-making process we went through when converting to using Fusion 360. In 2017, our students were stuck to a desk in our “CAD suite” using a competitor product, “collaborating” with USB sticks, and finding creative ways to get around the limitations with “locked down” educational software. The talk will present some case studies detailing the impact Fusion 360 has had on certain workflows and teaching methodologies, as well as some fundamental details of how we deployed the software successfully and are now able to teach more than 300 novice engineers a year how to use the software. During each year that we have subsequently used Fusion 360, we have been able to refine our approach to teaching and using the software on a daily basis, and during the talk we will share some of the best practices and teaching materials we have created.

A fully optimized computer case was designed, validated, and manufactured using Fusion 360 integrated workflows. The enclosure serves to showcase various Fusion 360 technologies including Electronics Cooling Simulation, Generative Design, Generative Fluid Design, Additive Manufacturing, and Netfabb integration. Join us and learn how each one of these connected workflows contributes to the overall design and performance of the workstation. Our journey begins with the basic design and layout of the workstation and attempts to address common industry shortfalls. Advanced Fusion 360 technologies enable us to investigate novel designs for the internal case structure and flow-optimized ductwork, and then validate them with powerful, accessible simulation tools.

Additive manufacturing (AM), better known as 3D printing, is disrupting the manufacturing industry. Its capabilities and build processes make additive technologies ideal for applications such as light-weighting and component consolidation. In order to fully capitalize on the awesome power of AM, an understanding of the technology and its limitations is crucial. However, this is not a natural skill for most designers and engineers. Since AM is so new and different from traditional manufacturing, it comes with a completely different set of design considerations. When properly understood and applied, design for additive manufacturing (DfAM) can vastly improve printing times and it results in higher-quality parts. This class will focus on general design practices that apply to all types of AM, including metal (SLM) and polymer materials. Lab dataset is available at https://autode.sk/3pCQ0xQ

This class will be an introduction or reintroduction to Inventor software. It will also go into general detail about a lot of the common issues that come up on the Inventor Forum. It is generally understood that there are a greater number of intermediate and advanced Inventor sessions at Autodesk University; however, sometimes you need to go back to the basics and introduce/reintroduce people to some of these features they may or may not know about or understand—whether it's how to find them, or how to use them. This session will feature Inventor Professional 2021- 2018, and the handout will include some information on older versions information.

We4bee pursues the goal of establishing a worldwide network of high-tech beehives. This is not only to promote environmental research and education, but also to establish an early warning system for earthquakes and other natural disasters. This project collaborates with the University of Würzburg, Germany. In this class Dr. Claudia Leikam (CEO of we4bee), Professor Hotho and Padraig Davidson from the Chair of Computer Science X (big data and machine learning), Professor Jürgen Tautz (THE bee expert), and the engineer Hans Neumayr will give us an overview about this research project. Hans Neumayr used Fusion 360 software and EAGLE software to create the electronics equipment and some mechanical parts of the beehives. Professor Hotho and Mr. Davidson will provide information on data collection and analysis. Professor Tautz is the well-known bee expert, and Dr. Leikam will give you a view of the scientific aspects of this amazing project.

How do you do use the secure, scalable, and cost effective capabilities of the cloud to accelerate your manufacturing design and engineering process? In this session, we will show you how: Fusion 360 is built on a secure, scalable, and enterprise-grade Amazon Web Services platform. Inventor can be deployed on a secure virtual private cloud for enterprise-grade security and lower total cost of ownership.

How do you do use the secure, scalable, and cost-effective capabilities of the cloud to accelerate your design and engineering process? In this session, we will show you how Autodesk cloud solutions such as Fusion 360 are built on a secure, scalable, and enterprise-grade Amazon Web Services platform, as well as how desktop solutions such as Inventor can be deployed on a secure virtual private cloud for enterprise-grade security and lower total cost of ownership.

When the COVID-19 outbreak began, makers across the globe came together to help fill the shortfall in supply chains and provide personal protective equipment (PPE) for frontline workers by harnessing the power of a localized collective factory of 3D printers. At Warwick University we also sprang into action to help fight the virus. Large-scale additive manufacturing (LSAM) is a technology similar to that used in hobbyist desktop 3D printers. However, it generally has much bigger build platforms, larger nozzle diameters, and higher volumetric flow rates. This means it can be used as a rapid-response bridge manufacturing from 3D printing to injection molding. Using Fusion 360 software’s parameter tables, the speaker was able to generate a design that could be easily changed based on the printer setup, and be optimized for the faster printing times. In just three design iterations we went from 10 minutes to just 3.5 minutes.

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.