This case study will explore the transformative impact that Forma software has on environmental simulations and urban design, empowering designers to reclaim tasks that have traditionally relied on specific experts or skilled individuals. Using Forma, we’ve achieved remarkable milestones, including a 400% increase in implementation projects, a tenfold expansion in the diversity of simulations, and an 80% cost reduction. These advancements are “democratizing simulations,” making them accessible to a wider range of designers. Additionally, we’ve customized libraries and workflows to align with Japan-specific regulations, resulting in a 300% increase in implementation projects and a reduction in the lead time for initial outputs by a third. Through innovative application of Forma, designers have experienced significant improvements in both the scope and speed of their work. In this session, we’ll share detailed insights into our workflow, the challenges we’ve faced, and the solutions we’ve developed.

In today’s fast-paced construction industry, bridging the gap between real-world conditions and digital-project environments is key to achieving accuracy, minimizing errors, and streamlining project delivery. Reality capture technologies, such as laser scanning, allow teams to document site conditions with precision. However, turning that raw data into actionable models and coordinating them across disciplines can be a challenge without the right tools and workflow. This lab will help you to set up a practical workflow that integrates ReCap Pro 2026, Revit, and the module in Construction Cloud to enable efficient scan-to-BIM and processes. It will demonstrate how point cloud data can be used not just for modeling, but also for coordination and clash detection, using mesh representations and cloud collaboration.

When things go sideways in the field, what would *you* do? In this interactive, hands-on lab, you'll be dropped into 10 high-pressure, real-world field scenarios. Each one will challenge you to make critical decisions using Build software’s interconnected tools. Do you open an Issue or log a Form? Do you link Assets or refer to the latest Sheet set? The choice is yours—and every choice has consequences. Participants will simulate the workflows of real field teams: creating Issues, completing Forms, referencing Sheets, tracking Assets, and seeing how these tools work together to bring clarity and control to field operations. You’ll get to compare your team’s decision path against others and discuss what worked and what didn’t. This won’t be a lecture—it’ll be an immersive simulation that will test your instincts and teach best practices by doing.

Stephen Hooper opens the Summit to share how Autodesk is shaping the factory of the future through Digital Workplaces, AI-driven simulation, and open data models.

Then, Stephen invites representatives from Motherson SAS on stage to share their organizational strategy for in the factory. CEO Frederic Boumaza and CIO Praveen Chinta will discuss their approach to planning, deploying, and maintaining a Digital Workplace, and how they included business stakeholders and technology in the decision-making process. Using Autodesk Platform Services (APS), Inventor, and FlexSim, they have implemented solutions for building optimization, production optimization, and real-time monitoring, leading to outcomes like increased energy efficiency, reduced downtime, and improved production flexibility.

 

Unlock the full potential of your asset data with Autodesk Digital Workplace solutions. This session will explore how Digital Workplaces—spanning both physical assets and operational processes—support the entire lifecycle: design, build, operate, and maintain. Tandem software creates rich production twins using live sensor data and structured taxonomy. FlexSim delivers dynamic process flow simulations that model people and operations. Together, they form a connected digital thread, from concept to reuse, enabling smarter decisions, reducing waste, and supporting circular economy goals. Discover how combining asset and process twins drives sustainable, resilient outcomes across buildings and infrastructure.

The future of sustainable, equitable urban design hinges on access to actionable data at the earliest design stages. This session will explore the ongoing strategic alliance between Autodesk and Esri, with an exclusive look at the new Forma extension for ArcGIS that integrates deep geographic information system (GIS) insights directly into design workflows. You’ll hear from Lake Flato Architects’ Urban Planning Studio, the Forma team, and Esri’s Professional Services about how the Forma real-time simulation and massing tools, combined with robust GIS layers—from flood risk and green infrastructure to demographic and zoning data—can empower planning decisions that balance ecology, equity, and economy. Through real-world examples and a forward-looking road map, we’ll show how GIS-driven design accelerates collaboration and unlocks transformational outcomes for communities.

Designing a drone is more than just assembling parts—it’s about bringing together electronics, mechanics, and performance into one seamless system. In this session, we will explore how to create a fully functional mechatronic drone using the all-in-one capabilities of Autodesk Fusion software. You’ll learn how to integrate a complete 3D mechanical assembly, and run simulations to validate both thermal performance and structural integrity. Whether you’re an engineer, product designer, or educator, this session will show you how to take your ideas from circuit to sky with efficiency, precision, and confidence.

Explore how you can use artificial intelligence (AI) to extend the reach and accessibility of catchment-specific machine learning (ML) in InfoWorks ICM software without sacrificing hydraulic fidelity. This session will introduce the concept of training surrogate ML models on local InfoWorks ICM simulations to predict flows at key locations across a catchment. You’ll learn how Autodesk is generating and deploying these surrogates to quickly forecast system performance without computationally expensive simulations. The approach offers a new way to support rapid scenario testing, stakeholder engagement, and real-time operational insight without hurting a hydraulic equation. The session will present a practical framework for integrating AI in a way that empowers more users and accelerates insights.

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. "

Discover how IMI Critical Engineering, a greenfield manufacturing facility, overcame the limitations of traditional 2D CAD models by moving to 3D simulation modeling. Relying on 2D layouts led to inefficiencies, high error rates, and communication barriers between engineering, operations, and leadership teams. This session will explore how IMI used FlexSim software’s advanced features—such as process flow, SQL queries, and video recording—to achieve significant improvements in efficiency, accuracy, and collaboration. By visualizing the production process in a dynamic 3D environment, the team identified bottlenecks, iterated designs more effectively, and minimized costly errors before implementation. Read real-life case studies to learn how this Management reduced errors, optimized workflows, and streamlined decision making, ultimately leading to higher productivity, better resource use, and sustainable growth for IMI.

This session will walk through how catchments or watersheds can be automatically generated using a surface model and assigned to drainage networks as part of a concept design in Civil 3D software. Ultimately, with the InfoDrainage/Civil 3D integration tool, we’ll see how we can bring all the data across to InfoDrainage and use its more extensive runoff routing methods and rainfall generation tools to set up and simulate hydrology and accurately size up the drainage network.

Mechanical modeling in Revit software entails creating graphical information in 2D and 3D. However, the efficacy of mechanical systems lies in comprehensively analyzing the nongraphical information within the model. This session will showcase how to analyze every duct and pipe segment in mechanical systems to meet design constraints. We will demonstrate how to ensure that every part of a mechanical system is logically and physically connected for optimal performance. We'll illustrate system flow and engineering inspections within mechanical intelligent models in Revit. And we'll showcase how to size mechanical equipment to overcome every system pressure standing in the way of best performance. The session will also demonstrate the extraction of information from intelligent models for optimal performance and design improvements.

ECOFACT is a €12 million Horizon 2020 project aimed at developing an ECO-innovative energy FACTory management platform for four demo sites: Arçelik (white goods industry), Athenian Brewery (Heineken brewing company), Gullón (biscuit factory) and Tofaş (a body painting plant of Stellantis vehicles). This platform features a dashboard that includes an LCA/LCCA module based on SimaPro and an Energy and Resource Management System (ERMS) built on Autodesk Platform Services. The ERMS consists of a Digital Twin Platform (DTP) that combines industrial digital twin models of production lines and machines with simulation and optimization tools into a single web environment. Using an advanced IIoT infrastructure, each digital twin streams real-time field data to ensure user-friendly monitoring. Managers and operators can run simulation and optimization applications integrated into the DTP for improved factory management in terms of energy, resources, and costs.

For developers and service providers in a wide range of fields other than construction—such as mobility, robotics, mapping, security, and maintenance—the value of reliable, high-quality spatial information on buildings and infrastructure is expected to increase in the future. In Toyota Woven City—which is currently under construction as an experimental city where various technologies can be tried for the well-being of people—we've been exploring the ideal form of spatial information, including building information modeling (BIM) data, while closely observing the needs of a wide variety of users. Based on the knowledge we've gained there, we've been developing spatial information of building structures for various users outside the construction industry from the client's standpoint, as well as developing databases and APIs to provide this information in an open-data format. We hope that sharing our experiences will help accelerate the development of spatial information as the future social data infrastructure.

This year—2024—was a significant year for VRED software, marked by numerous enhancements and new features. We started with a comprehensive UI redesign, reflecting Autodesk's guidelines for a modern, intuitive experience. And we introduced improvements, such as multiselection property editing and searchable preferences, boosting speed and efficiency. We launched many new features, balancing technical precision and artistic freedom, providing a platform for visually compelling and accurate designs. In line with industry advancements, VRED integrated open standards, including IFC, USD for data exchange, and MaterialX and MDL for seamless material exchange across applications. VRED also introduced OpenVDB for volumetric data processing from simulation applications, and OpenXR for a wider range of hardware support, including hand and marker tracking capabilities. In this presentation, we'll guide you through the changes from 2024 to 2025, providing an overview of the key updates shaping VRED 2025.

This session will showcase a new workflow of creating a factory layout in Autodesk Factory Design Utilities software and using FlexSim to validate the throughput of the layout, identify potential bottlenecks, and balance resource use. We will also discuss the product roadmap for Factory Design Utilities and FlexSim, as well as the vision for Autodesk Fusion digital factory. Learn how Autodesk is paving the way to connected data and seamless workflows in the Autodesk Fusion industry cloud, as well as enabling factory designers and industrial engineers to validate factory layout designs.

With new technologies emerging, we're always on the road to explore the digital factory. In this class, we'll share the best practices and approaches regarding the digital factory. First, drive increased efficiency of the factory design and optimization based on CAD workflow and FlexSim process simulation, which is essential for the digital factory. Next, ensure the objects can be tracked throughout the whole lifecycle; we built a "Factory Object TAG Rules" system for digital delivery. Finally, connected IoT devices help realize digital twins to streamline, automate, and predict tasks. And we explore AI to reinforce human intelligence so that it can achieve more.

Have you ever attempted to transfer your machining process to another machine, only to find yourself dealing with lost CAD and CAM associations and wanting to start over from scratch? In this session, we will explore using Autodesk Fusion Configurations to build robust assemblies of your work-holding systems that will elegantly repair CAD and CAM associations when you need to change course. Through this course, attendees will develop powerful CAD frameworks capable of supporting various computer numerical control (CNC) workflows for both milling and turning that empower the new machine simulation environment. Building on these frameworks, we will explore the potential of Geometry Features to automate the machining process for common part families using toolpath templates, ultimately streamlining routine cutting operations.