Since 80% of carbon is already locked into a product by the decisions made at the design phase, making good design and manufacturing choices is key to producing products with lower carbon impact. However, today, designers and engineers lack the data and tools to inform their design and manufacturing decisions, all while new and upcoming regulations are forcing designers and manufacturers to produce their products in more-sustainable ways. To tackle this issue, this talk will introduce Autodesk's new Manufacturing Sustainability Insights tool. Created in partnership with Gravity Climate, this interactive manufacturing-impact exploration tool for Autodesk Fusion 360 will provide users with valuable insights into the carbon emissions associated with producing their designs via various manufacturing methods, enabling users to make better informed decisions that support sustainable manufacturing practices, resulting in better products for the planet.

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.

King's College London relaunched it's Engineering department in 2019 with the aim of attracting students and staff to tackle new societal and technological challenges and change the world through interdisciplinary and transdisciplinary education. In this talk I will describe our journey towards a ‘create-first' programme pedagogy flipping the traditional Blooms triangle to deliver a horizontally and vertically integrated curriculum with design and make at the heart. We will reflect on the emerging benefits of scaffolding project-based learning with design and simulation and highlight the improved design, sustainability, and systems thinking skills seen in our students. Our deep-dive will focus on a first-year integrated design course where students work in teams to design, make, and operate a remote-control ship to collect floating waste in a water tank. Our project-based approach exposes students to a range of manufacturing methods. We have created a series of short workshops for 2D cutting, 3D printing, and three-axis milling and we will demonstrate how instructors can use the Fusion 360 API to automate the modelling of engineering components. In this project-based learning module 200+ students use Fusion 360 (and connections with Simulink and Arduino) to develop high fidelity digital twins of a design, build, and test project, while retaining the open-ended nature of design projects and maintaining a common digital thread throughout the experience.

3D Printing is a topic that everybody has heard of and has a general idea about. While 3D printing is around for years, the actual workflow, the processes and applications are known only by the experts. This talk is about the technology of Additive Manufacturing and how it is integrated into Fusion 360 and Netfabb for those who are new to this topic. We give a broad overview over the topics by picking examples of solutions, features, workflows, and machine integration. Covering 26 topics for each letter in the alphabet, keep the talk light and easy as speaker and co-speaker engage in a dialogue - the ABC of 3D Printing!

Automated Modeling is a new tool in the Design Workspace that automates the process of exploring and creating new design concepts based on simple definitions of what to connect and what to avoid. Imagine simplifying your work-holding methods so that, within minutes, you're presented with several design alternatives of various shapes, styles, and complexity to use moving forward. Automated Modeling in Autodesk Fusion 360 is going to change the way you approach and explore new ideas for clever work-holding of complex parts for computer numerical control (CNC) machining.

The class will show you an automotive interior design workflow. It will show how fast you can get to a physical prototype of an interior part. The workflow starts with quick concept modeling using Alias software. After that, we hand out the model to Autodesk Fusion 360 software for additional steps like physical model making and manufacturing cost evaluation. This early phase concept workflow can massively speed up your decision-making process for interior parts.

SimaPro, a sustainability partner, and ProtoTech, a technical consultant and reseller, are building a POC web app to demo at AU 2023, showing a web-based sustainability analysis workflow of an Autodesk Fusion 360 design. SimaPro requires mass, weight, and material to perform the sustainability analysis. Mass and weight are mass properties, meaning the company needs to extract and store mass properties for components in PIM so that SimaPro can access this data to perform its analysis in a web-based environment outside of Fremont. Currently, physical properties are extracted only inside the Fusion 360 canvas. PPE is a scalable solution that enables users to extract physical properties on-demand outside the Fusion 360 canvas using GraphQL APIs. Physical properties extraction trigger is also integrated with Fusion 360 workflows like on-milestone creation, as well as view physical properties in Fusion Team.

Full-color 3D printing experts from Mimaki will be leading a session detailing how their customers are using full-color 3D prints in their workflows around the globe. Utilizing Autodesk software, Mimaki users are pushing the limits of additive manufacturing in architecture and construction, design and engineering, and arts and entertainment to create models, mockups and products in a variety of fields. In this session, you'll learn about what sets the Mimaki 3DUJ series apart from other industrial level 3D printers and how they are being used today to change the way businesses create. You'll also learn how to go from on-screen 3D visual models in a verity of Autodesk software to physical, full color models and products with ease.

Have you ever thought about flow path optimization? Do you have great ideas that could change the world, but no fluid mechanics knowledge, time, or expensive CFD tools? All you need is Generative Fluids in Autodesk Fusion 360 software! We'll present a set of case studies in this session. The first ones will explain the basic aspects of flow path optimization. We'll discuss pressure drop, its reasons, and minimalization solutions in an easy-to-understand way. Then, we'll discuss more-complex designs in order to show how to use Fusion 360 capabilities and change inner flow paths into outer shells that are fully manufacturable parts. And we'll bring a few of our 3D-printed designs so you'll have a chance to handle them! By the very end, you'll understand the full potential of Generative Fluids optimization possibilities. This is the beginning of your flow optimization journey!

The demand for medical devices is rapidly growing with a forecast of global annual sales to reach nearly US$800 billion by 2030. But a one-size-fits-all approach in surgery often results in major complications such as infection, delayed or incomplete healing, and revision surgeries that contribute to diminishing clinical outcomes. A new approach with design thinking is now necessary to help solve these challenges. Researchers at University of Birmingham, Autodesk, Manufacturing Technology Centre (UK), and the University Hospitals Birmingham NHS Trust have developed a novel design framework to create personalized knee implants from a CT scan using generative design for treating arthritis. This class will showcase how generative design can be implemented in an all-encompassing digital workflow to explore customized devices and make a positive impact to improve patient outcomes. The team will also discuss the fabrication of functional prototypes using cutting-edge manufacturing, post-processing, and validation techniques.

Evolved Structures, a technology based on generative design and digital manufacturing, has the potential to revolutionize spaceflight system components. This presentation explores "prompt engineering" for guiding generative design artificial intelligence (AI) using textual and geometric information to create parts that meet functional, structural, and manufacturing requirements. By integrating essential design elements, engineers can maximize AI-driven optimization for innovative, high-performance spaceflight systems that are cost-effective and efficient to produce. The presentation will also showcase examples of fabricated hardware developed using this approach, which are slated for integration in future NASA missions.

Educators! Have you been tasked with teaching digital modeling and/or 3D printing? In this session, learn step-by-step, tutorial projects for simple consumer items. You can take these fun, actionable projects back to your classes to help get students started. Projects will include: Finding sketches on the internet, turning them into SVG files with an online converter, and using Fusion 360 to turn them into a cookie cutter and business card; Using Recap Photo to turn smartphone snaps of a statue into a reality capture model, importing the model into TinkerCAD, and editing it into a candy jug.

3D printing has become increasingly popular on construction sites, allowing firms to facilitate the construction process and decrease carbon footprint. It's a challenging exercise, due to the size of elements and the fact that they can't be reinforced, nor can the finishes be easily achieved. In order to democratize 3D printing, the decision was made to tackle the problem differently. The creation of 3D-parametric-printed formworks, urban furniture, or complex beam nodes/intersection is automated. This enables the reduction of production time and costs, as these elements can be produced in an infinite quantity and easily mounted on site. It also enables carbon footprint reduction by getting rid of wooden formworks and trucks for concrete pouring, and reducing the waste and time involved in creating those elements. The use of parametric elements to create these objects allows a full customization and replication. A deployment kit has been created for their subcontractors. Spie batignolles is becoming the first contractor-printer!

In this class, we'll demonstrate a project that uses Automated Modeling to design a conceptual part. We'll then take that concept and refine it to become a functional, manufacturable part using Generative Design.

New manufacturing techniques and innovative materials are making us rethink infrastructure creation, but they've also raised a need for closer structural health monitoring. Autodesk Research collaborated with MX3D to create the world's first 3D-printed steel bridge, and then with Dar Al-Handasah to 3D print a series of bridges from sustainable (recycled and recyclable) material. We drove the effort to add "smarts” to both bridges via sensor networks that capture data about their use. The bridges were modeled as digital twins using innovative visualization technology that has been integrated into Autodesk Platform Services and Autodesk Tandem software. These twins visualize the stress on the bridges' structures as people walk across them. Given the popularity of the 5-meter Dar bridge exhibited at Autodesk University 2022 in New Orleans, we wanted to show more details of our work on these iconic projects, and how they might influence the future of smart and sustainable infrastructure.

Additive manufacturing has opened the doors to large scale production of geometry previously thought impossible. Today, the challenge isn't manufacturing; it's how to quickly and easily design products that can leverage the unique benefits of 3D printing. Thankfully, Autodesk is leading the industry with cutting edge implicit modeling tools that enable you to design better products more quickly, more easily and more affordably. In this hand-on lab, you'll dive deep into the world of volumetric lattice in Fusion 360 and how it enables you to design the product of your dreams. You'll start by learning the basics of how the technology works and how to lattice a sample part. Then, you will put your new skills into practice and lattice an actual part. After covering foundational skills, you will use intermediate methods to create more complex lattices with ease. Finally, you will explore advanced and even expert techniques that push the limits of what is possible. If you design or engineer consumer products and want to take your designs to the next level and beyond, this hands-on LAB is for you!

Desktop-scale 3D printing has become ubiquitous in many industries today. As this growth continues, the demand for ever-larger printed parts has increased exponentially. The move to large-format additive manufacturing (AM[ad1] ) is not as simple as just scaling up. Large-format AM delivers a whole new set of challenges not widely understood by the average designer or engineer. In this class, we will demonstrate how to create 3D-printing toolpaths in Fusion 360 software for both typical desktop-scale 3D prints, and large-scale robot-based printing using the new Fusion 360 robot post processor. We will compare and contrast these two workflows and discuss the additional strategies necessary for successful large-format AM. To close the class, we will summarize the three major categories of difficulties faced and how to mitigate them when moving into large-format additive: access to software tools and simulation solutions; process physics and material properties; and machine selection and equipment.

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.

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.

In this session, we’ll discuss how design for additive manufacture (DFAM) can influence the performance of additively manufactured parts. This session will focus primarily on laser powder-bed fusion, but concepts can be transferable to other additive techniques. We’ll explore lattices, hollow geometries, and thin walls as common features in lightweight designs, including the challenges that these can pose in design, post processing, and actual performance. Autodesk Research is currently undertaking research to characterize how as-built features perform (mechanically) compared to idealized conditions—generic bulk-material values found in literature. This will enable better representation of these features at the design stage to facilitate more accurate simulation and optimization. Attendees will leave more familiar with DFAM, considerations during the design process, and the impacts these have on overall part performance.