Samsung Electronics plans to leverage Autodesk's cutting‐edge technologies to digitalize the construction process for semiconductor manufacturing facilities. While we have strong expertise in semiconductor production, the construction of semiconductor factories involves a vast array of specialized fields—such as architecture, civil engineering, electrical engineering, and mechanical systems—that are difficult to integrate and manage effectively. To overcome this challenge, we aim to introduce a data-driven construction digital solution by incorporating Autodesk technologies, including BIM, Digital Workplace, Generative Design, and Explainable AI (XAI).

This session will investigate how Autodesk Forma software can support transportation-focused projects through its out-of-the-box capabilities, including site analysis, massing, and analysis. The session will explore the integration potential of Forma with geographic information system (GIS) and Industry Foundation Classes (IFC) data. We’ll test interoperability with tools like Dynamo and Grasshopper, and also evaluate the possibility of extending Forma software’s functionality through custom extensions.

Building information modeling (BIM) platforms and design software have opposite strengths. To get the best from each, it's beneficial to have them working in combination and complementing each other throughout the whole design phase. Doing so will also help bring BIM culture closer to designers, breaking the entrenched silos between the disciplines. Embracing designers in BIM allows for earlier implementation in the project and delays design freeze, as every iteration is captured in the federated model. This workflow proposes a fully integrated approach to the use of Rhino software and Revit software, describing the interoperability requirements of these platforms at the different stages of a project. Interoperability is a big challenge—we will review how an agile methodology can let you incorporate emerging technologies, and how this technology affects the design process.

This session will detail how to use Revit software and building information modeling (BIM) for complete load calculation with the help of API development, from power outlets to lighting fixtures and up to the main switchboard. In an underground railway station project, a total load of approximately 4,000 amps has been successfully calculated for the electrical system design. We understand there are difficulties to simultaneously use BIM for electrical engineering, 3D modeling, and 2D drawings in a single model. This case study will demonstrate it can be successfully achieved with great efficiency. We'll explore: 1. How to make smart families that are efficient and easy to use for calculation and 3D and 2D representation. 2. How to connect the circuits and pass the load upstream for the whole system, including UPS and duty-standby situations. 3. How to calculate electrical load from other disciplines, such as HVAC and Comms. 4. How to calculate electrical load from other models, e.g., electrical load from tunnel models to station model.

In this talk, we will dive deeply into how ongoing technological strides are revolutionizing building services engineering and enabling new event-driven design workflows. We will explore innovative automation tools, including visual programming and SaaS platforms, that are not only enhancing the efficiency and precision of MEP designs, but are also promoting a more integrative and dynamic approach to engineering challenges by capturing engineering knowledge, as well as the data that drives it. This presentation will also emphasize the transformative potential of fileless data architecture through the power of federated GraphQL APIs, Neo4j graph databases, and Autodesk Forma software. These advanced technologies facilitate a seamless, real-time flow of information, adapting dynamically to changes and ensuring that every component within a project is consistently synchronized with a single source of design information.

This class will cover how the Autodesk AEC Collection for Infrastructure can be used for detailed bridge design using InfraWorks, Inventor, and Revit. Leverage Inventor assembly of structural elements into subcomponents for design detailing in Revit, components tagging for cost estimation and carbon calculator for sustainability purposes. We will apply InfraWorks advanced features on an actual project that results in Rapid Engineering Modeling (REM) for bridges.

What’s the difference between topology optimization and generative design—and why does it matter when building advanced components? In this hands-on lab, we’ll explore the tools and workflows that helped Elara Aerospace design a launch-ready, record-breaking rocket built to survive the extreme forces of spaceflight. You’ll follow guided exercises in Autodesk Fusion software, learning how to harness both generative design and topology optimization to reduce mass, increase strength, and improve overall performance under tight constraints. We’ll walk through how to define loads, constraints, and materials. We’ll cover how to interpret and compare outcomes. And we’ll explore post-process geometry for manufacturability. You’ll gain practical experience in setting up a generative design study, comparing it with topology optimization, and understanding when and why each approach is appropriate. By the end, you’ll understand the theory—and have built and optimized a component for spaceflight-level performance.

There is no single way to design a new product. The design principles needed to manufacture a coffee maker will be different from those needed for an electric vehicle. So, why can’t today’s software tools adapt to meet designers' needs? Generative AI may offer a path forward to enabling product designers to adopt agile and adaptive design workflows and support the design of complex assemblies. In this interactive session, we’ll take an in-depth look at an early-stage software prototype for AI-assisted assembly design, developed by Autodesk Research. Participants will gain insights into how the researchers used large language models (LLMs), multimodal data, and system modeling to design products from 1D to 3D. Join us if you’re a product designer, software engineer, or UX designer interested in advancing your understanding of assembly design and learning how this new innovative technology can shape the future of Design and Make industries.

In this hands-on lab, you will hear a real-life story of an architect and an engineer collaborating on specific building design. Together, we will walk through the major steps of the structural analysis workflow, and discover the features fostering the most effective use of tools for analytical modeling in Revit. For some steps, we will use customized Dynamo scripts to demonstrate the power of this visual programming tool that enhances the out-of-the-box Revit features with extra capabilities. You’ll learn how to send the analytical model to analysis software, where we will perform some calculations and design checks to experience the modifications of elements. We’ll close the loop by demonstrating the tools for effective version control and changes monitoring to update our Revit model with analysis outcomes and transition the changes from analytical to physical model. This is a full end-to-end workflow flavored with a dose of humor, which we all like and need.

Assembly design is on the edge of a transformative leap. This session will introduce a groundbreaking approach that harnesses agentic artificial intelligence (AI) to redefine how we conceive, simulate, and build complex assemblies. We’ll explore early-stage research and prototypes demonstrating how intelligent agents can collaboratively generate geometry, streamline workflows, model dynamic systems, and adapt designs in real time based on performance feedback. If you work with systems design, simulation, or multidisciplinary workflows, this session will challenge your assumptions and offer a glimpse into the future of AI-augmented engineering. Prepare to rethink what’s possible!

"Revit 2026 introduces powerful new capabilities that transform how MEP designers work. In this session, we’ll explore two major enhancements that give users unprecedented control and flexibility over electrical and mechanical systems. You’ll also learn how to apply Dynamo scripts to automate the task. On the electrical side, we’ll cover the newly introduced user-controllable conductor sizes and cable configuration tools. These updates eliminate long-standing limitations, enabling both imperial and metric workflows with custom logic to automate conductor sizing and assign cables to circuits based on your own standards and rules. On the mechanical side, we’ll showcase a highly requested feature: the ability to override pressure loss coefficients for ducts and pipes. This gives mechanical engineers precise control over pressure drop calculations, ensuring more accurate sizing, balancing, and performance simulations across HVAC and hydronic systems. By the end of this session, attendees will gain insight into how Revit 2026 empowers MEP professionals to create smarter, more adaptable, and globally compliant designs—all from within the native Revit environment. "

Generative design isn’t just a buzzword - it’s a powerful tool that can reshape how we approach projects in Civil 3D. Yet many users are unsure where to begin to implement generative design into their daily workflows. This class will explore how you can implement generative design into various Civil 3D workflows to create smarter, clash-free models, streamline tasks, and unlock better project outcomes. This session will demonstrate various real-world examples of where generative design can be applied, including route optimization & asset placement. You’ll learn how to prepare Dynamo graphs for use in generative design before creating generative design studies, evaluating outcomes and generating geometry in Civil 3D – all with practical real-world examples. Whether you’re looking to reduce risk, lower costs, improve Sustainable Design or simply work smarter, this class will give you the confidence and tools to put generative design to work on your Civil 3D projects.

Dr. Tonya Custis, senior director of artificial intelligence (AI) at Autodesk, draws on 20 years of experience in AI research to explore both the limitations and the transformative potential of AI in design workflows. While powerful, AI is often misunderstood—it’s frequently perceived as a catch-all magical solution rather than a tool with specific strengths and weaknesses. As AI becomes more commonly used in daily life, expectations rise for its role in professional tools. The best way to move beyond the hype, fear, and uncertainty surrounding AI is to develop an understanding of its history, limitations, and the types of tasks it’s best suited to help with. In this session, Dr. Custis will demystify how AI actually works, examine current trends, and outline the unique challenges of applying AI to design workflows—particularly those involving complex 3D design data. She’ll also share some recent work from the Autodesk AI Lab, offering a glimpse into the current state of AI in design and what the future may hold.

This product briefing will showcase the latest advances in Dynamo visual scripting, Dynamo Player for workflow automation, and Generative Design in Revit software for automated design exploration. Come learn from Autodesk AEC Generative Design product managers about where they've been focusing their efforts and what's on the road map for future releases. We'll use real-world examples to showcase these tools and show how we've improved the authoring experience in Dynamo and the running experience in both Dynamo Player and Generative Design in Revit. This briefing will demonstrate the value that Dynamo and Generative Design in Revit bring to the design process. We'll show how customers are using the tools to automate their workflows and design explorations in their projects in order to optimize sustainability and efficiency and produce less construction waste. We'll cover the product principles that we use to prioritize new work and future direction. Finally, we'll address the future of the product.

In this class we will talk about the most-updated workflows to build a multi-version Dynamo package that includes: ZeroTouch nodes, explicit nodes, extensions, and view extensions. The class will be structured to explain step by step how to set up the Visual Studio solution, how to make sure there is a robust version control system, and how to deploy for Dynamo Core or Dynamo hosted. We'll touch on how to use GitHub Actions to streamline the release pipeline and we will use NUKE Build to do it. NUKE is an extremely powerful framework that allows basically everything you can think of in terms of automated pipeline. There will be much more, including some bonus topics on adding Rhino Yak packages too. If you're looking to build a company library of tools for computational design, there is no other stop in your journey except this class. We will provide access to a Notion workspace worth hundreds of pages, including future updates. Not selling, just saying :)

Revit 2023 software has completely overhauled the analytical modeling workflow. Now the physical and analytical models have the freedom to act independently. The analytical model elements must be created separately from the physical structure; however, you can still "link" them together. This ultimately gives better control over the analytical model and what it is allowed to represent. These changes are drastic, but don't worry. We're here to help explain how it all works, and have you give it a try in this hands-on lab. You don't need to be a structural engineer or a Revit structural modeler, because we'll show you how you could use the Revit analytical elements to help in the creation of physical walls, physical beams, and many other fun creations. In this lab, we'll also show you how to create your own workflows using Dynamo to customize the automation of the creation of the analytical elements.

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.

Human bone is a unique material that grows based on the mechanical loading applied to it. This can cause problems for astronauts, as the loading through their bones is reduced and conditions such as osteoporosis can set in. Surgical implants, which are often used to stabilize bone fragments following a fracture, can inadvertently create similar problems, by reducing the force transferred through the bone itself. This can permanently reduce bone mass and increase the risk of future fracture. This class will discuss the ongoing research into this problem, and will demonstrate how researchers are using generative design in Fusion 360 software to explore new designs for these implants that better aid the natural bone-recovery process.

Challenging the deconstruction and decontamination of a former industrial site: the refinery of Dunkerque in France. From a huge data sets of 30 000 old plans and a dynamic scan of a 90Ha area, the low LOD Revit models were made manually but also automatically using IA with image recognition. The representations of the contamination and lithology is modelled with voxels and informed using interpolation scripts with Dynamo directly from georeferenced boreholes stored in excel datasheets. The aim of this BIM model is to create scenariis of depollution depending of what is located underground : pipes, concrete and pollutants.

Specialized applications for structure, analysis, detailing, and more are now included when you subscribe to the Architecture, Engineering & Construction Collection. How is the new, unified AEC Collection changing how you work? In this 60-minute session, you’ll learn about the seamless Revit software, Robot Structural Analysis software, Advance Steel software, and Dynamo software. You’ll learn how to link a Revit structural model to Robot Structural Analysis for structural steel code check and optimization. You’ll also learn how to control all models using Dynamo and Autodesk Generative Design software. This class will also cover how to set up and use BIM 360 Design software for sharing Revit, Robot Structural Analysis, and Advance Steel models, and to curate, coordinate, and manage deliverables throughout the project lifecycle. When design project teams have the right information at the right time, work happens faster.