This roundtable discussion is designed to bring to the table those like-minded individuals who have the following in common: A desire to share their experiences based on a successful deployment of Building Design Suite workflows that take full advantage of the range of product solutions available in the suite. The roundtable explores past and existing project-based solutions and best practices while looking to use the range of products in Building Design Suite in a successful project workflow. The discussion also looks at technical problems that were encountered during this process and explores suggestions on how to resolve them. The concluding part of this roundtable addresses the lessons learned and looks to exchange a set of practical hints and tips that can assists the group in achieving a highly productive workflow.

In a fast-paced design-build environment, the ability to streamline and accelerate processes necessary for optimized project delivery is directly proportional to the ability to minimize information loss. Using real-life examples, we will demonstrate how complex projects and their demanding schedules be improved from the use of Forma Building Design Suite. The class will cover a Building Information Modeling (BIM) workflow from the very beginning of the design and construction process. We will discuss how early decisions have a lasting impact on the building’s performance and lifecycle cost, explore the process of program development and client engagement using advanced visualization techniques, and finally, delve into the process of document production and coordination. This BIM-enabled workflow determines a team’s ability to collaborate and deliver a product that will exceed the client’s expectations.

Dynamic shifts have emerged in the digital realm of building design and physical methods of off-site fabrication. Buildings are increasingly manufactured/assembled rather than constructed/crafted. This class will present these digital procedures for modelling buildings in Revit whilst simultaneously assembling and managing your building components through Dynamo and into Inventor for fabrication. This entails navigating a hierarchy of linked/nested Revit models, families, and formulas; aligning the design BIM with detailed fabrication models in Inventor. Dynamo will be applied as a tool to automate, annotate, and design the building layout with assembled components. Orchestrate the building model, drawing sets, and work instructions in Revit alongside Dynamo to lay out building components, visualise building data, component relationships, and simultaneously assemble Revit components for building site context, component assembly in factory layout, and final modules in transportation.

This hands-on lab will teach a repeatable early-stage design workflow using Autodesk Forma Building Design through a controlled case study of a famous, modernist, residential icon. Using a shared reference model reduces project complexity and allows participants to focus on workflow, not design invention. Participants move from site context and massing to environmental analysis and iteration then to facade and plan design options evaluated on daylight and solar performance, orientation, and layout design. The workflow supports continuity into Revit software, reducing rework and improving coordination.

This class will showcase new high-performance building design workflows from Autodesk, Inc., and their applications in the early design stages. We will explain and explore through the case study application current technology and new features in FormIt 360 software and Revit software. This class will cover processes and best practices for using conceptual analysis tools as integrated, iterative, and collaborative parts of the design process from a Design Team’s point of view. It is critical to use performance analysis tools early when aiming for high-performance design goals. New high-performance building design workflows are making analysis tools more accessible and easier to use earlier in the design process than ever before. Analysis tools can go a long way toward informing design decisions, saving time, and improving the usefulness and validity of your design.

In this class, students will learn the basics of machine learning and how they can apply it to building design and construction. First, we'll talk about the history of machine learning and how it has been used in literature and the building industry. Then, we'll talk about some easy-to-use machine learning algorithms and try to implement them in Dynamo Studio software. This class does not require any prerequisite knowledge or skills.

This class is designed for CAD managers, structural engineers, and designers who struggle with finding out the best workflow in their company for designing building structures from preliminary phase to fabrication. Find out how the leading products in the Forma Building Design Suite fit into your current company workflow and design process. Learn how to use Autodesk® Revit® software as your main CAD platform and how to integrate and simulate your model with Autodesk® Robot® Structural Analysis software, using advanced techniques for analytical models. See how Revit can add more value in making fabrication drawings. This class will also emphasize the importance of Autodesk 360 applications and services in your design process: save time with preliminary analysis of your model and visualize and share your intelligent models using the cloud. We will wrap up by presenting i-Theses® applications: extensions for Revit and integration of an intelligent model into i-Theses® FloorOffice to make fabrication drawings of precast floors.

Generative artificial intelligence (AI) and large language models (LLMs) are bringing disruption across industries, changing the way we create images, text, and code. Within architecture, engineering, and construction (AEC), these tools will transform the design and construction process. Professionals in AEC must stay informed of this fast-moving technology to remain competitive and aware of the innovative design-and-make software. TileGPT is an LLM-powered prototype developed within Autodesk Research to generate optimized designs using intuitive and flexible text-based input. This session will cover the technical capabilities of this generative AI system, which uses optimization to enable rapid design exploration. It presents example use cases within AEC design, including performance-driven generation of building massing, site design, facade layouts, and more. With generative AI, Autodesk Research is expanding what's possible within design tools, and showcasing new design experiences that are fast, intuitive, and accessible.

Computational design enables architects to design parametrically, using visual programming to automate design processes and simulate, script, customize the parameters of, and generate design solutions—making it easier to explore ideas and innovate. Design practices big and small are turning to computational design to solve problems in new ways. Students with experience in computational design have a distinct advantage in their careers. Hear how Autodesk Dynamo is helping the next generation design structures and buildings and create using digital fabrication.

How does the cloud help your firm grow and reach global scale securely? In this session, we will share the various ways in which building design and construction professionals can use Revit on Amazon Web Services through Project Skyscraper, Hosted Trials, and Virtualized Deployments. We will also give you a sneak peek at the new Revit LT Software as a Service Beta.

The contractor and architect from the Kendeda Building for Innovative Sustainable Design—which is striving for full certification of the Living Building Challenge—will explain how Autodesk tools were used during the pursuit, award, design, preconstruction, construction, and post-construction activities. They will cover lessons learned from the most interesting and challenging aspects of the project related to the high standards of regenerative design and the 20 Design Imperatives for the Living Building Challenge. The team used Revit software, Assemble software, Navisworks software, and BIM 360 software to identify and work through solutions. The presenters are not software experts; however, they are experts in project management, regenerative design and construction, and systems coordination, and they are excited to share how Autodesk software contributed to the project.

Most digital twin projects stall at the same point: There's no 3D model. Point cloud scanning takes weeks too heavy for operational use cases like workplace booking or shop-floor monitoring. But we've found a faster path: Design buildings in Autodesk Forma Building Design, process them server-side via the Autodesk Platform Services Automation API for Revit, then use agentic AI workflows via Model Context Protocol (MCP) to enrich the model with workplaces and connected production data. It takes hours instead of months. Through video walk-throughs and live demos, we'll show two use cases we're deploying this year replacing our own third-party desk-sharing tool, and building a manufacturing digital twin. You'll leave with a replicable pattern for AI-enabled design-to-operate workflows.

Intended for structural engineers, this class covers an integrated process for the rapid analysis of complete concrete buildings and the detailed design of concrete floor and foundation systems modeled in Autodesk Revit Structure software. We will demonstrate a workflow through a step-by-step process of extracting concrete building information from a Revit model, creating a 3D finite element model of the building, and generating structural analysis results—all within minutes and without having to first fine-tune an analytical model. Analysis results include member forces, floor system deflections, building modal vibration responses, and load takedowns. This process saves time and gives engineers an easy method for quickly checking the structural response of concrete models. The class will also cover options that are available to carry out detailed design of the concrete floor and foundation systems of any building. We will use the latest concrete building design software from ADAPT and Revit Structure in this class.

In this class, we will present the use of Autodesk CFD for a new building project with a goal for net-zero energy compliance. The building and construction industries are responsible for about 40% of the global energy use and about 30% of the global carbon emissions, contributing to climate change. Energy-optimized building design is one of the green building principles that, by 2030, could reduce the carbon footprint and achieve reduction of building-related emissions by 50%—and deliver net-zero buildings by 2050. In an endeavor to design energy-efficient buildings, adoption of new technologies for enhancing indoor environment quality, thermal quality, and lighting quality are imperative. And implementation of such technologies needs validation for performance. Modeling and simulation software such as Autodesk CFD could be used to estimate the performance of the built environment and compare different design decisions in order to realize the opportunity to reduce energy consumption and, therefore, carbon emissions.

Discover decarbonization design strategies for building design, as well as a data-informed workflow for implementing these strategies to decarbonize the training Revit House. We’ll use Revit software, the Revit One Click plug-in, and One Click LCA to show you how to extract and manage quantitative and material data to measure the embodied carbon emissions associated with the design of the Revit House. After examining the results, and discovering the carbon hotspots, we’ll decide on appropriate decarbonization strategies, aiming for a 40% reduction in line with the World Green Building Council goal. We’ll then apply those strategies to the Revit House. Integration between Revit and One Click LCA has streamlined the data-informed workflow and provides carbon data when the designer needs it. The designer can use this data to make design decisions and subsequently deliver measurably lower carbon buildings.

The roundtable discussion is designed to bring to the table like-minded individuals who have a desire to share their experiences toward achieving a fully collaborative Building Information Modeling (BIM) to facilities management (FM) workflow using Building Design Suite software and BIM 360 Cloud software Solutions. The primary intent is to explore well-documented, coordinated, and collaborative workflows using Revit software and Navisworks software with BIM 360 Field software, BIM 360 Glue software, and BIM 360 Plan software. The roundtable is set to review present and future project-based solutions and BIM workflows toward a highly efficient project delivery. We will address the key benefits of collaborative BIM and look to exchange a set of practical hints and tips to assist the roundtable group in gaining crucial insight into the BIM process using Autodesk, Inc., cloud technology. The concluding part of this roundtable will cover potential hurdles encountered in the process and possible solutions that will contribute toward delivering a successful project.

Autodesk, Inc.’s, Project Scorch enables fire and smoke Computational Fluid Dynamics (CFD) simulation within your buildings’ designs. In this class we’ll cover the full process, including importing your designs, creating burners and sprinklers, working with materials, and interpreting local and cloud-based analysis results—all to enable you to utilize the power of simulation within your design process. We will cover how understanding heat, smoke, and particle movement can help you in the design process, and how you can integrate simulation into the process. We will also cover some best practices and helpful tips to help you get the most out of Project Scorch, as well as demonstrate several examples to help understand key concepts.

Architects, engineers, contractors, building owners, Building Information Modeling (BIM) managers—they’re all critical to the success of a high-performance building-design project. However, accountability and responsibility for performance are not always evenly distributed among these roles. How can we facilitate a discussion between these groups, and how can we get everyone on board with high-performance targets like Architecture 2030? Through collaboration and early analysis. Join us for a design charrette where we will work together to achieve Architecture 2030 targets for a project. This design exercise aims to encourage the adoption of conceptual-analysis tools and sustainable design practices early in the process through collaboration.

Join us for an exciting presentation on the intersection of ChatGPT and building information modeling (BIM) energy analysis in sustainable fractal design through the use of fractal patterns and structures in the design of buildings. Fractal architecture aims to create a functional connection between the built environment and the natural world, promoting a more sustainable and harmonious relationship between buildings and the earth's complex ecological systems. In this talk, we'll explore how machine-learning algorithms like ChatGPT can be integrated into fractal design to optimize building design for maximum energy efficiency and sustainability. We'll also discuss the potential that sustainable fractal design has to reduce a building's carbon footprint and improve indoor air quality. You'll leave with a practical understanding of how to capitalize on these innovative tools and approaches for your own building design projects

Whether building for net zero or reducing building utility bills, distributed solar has become a common component of the modern design process. To consider photovoltaic, solar hot water, or passive solar from rooftop or remote panels, or to build integrated units in building design, designers need to understand solar-energy-generation potential as an integrated part of the design process. This class will show how to use built-in tools in Revit software and FormIt software to understand the potential of solar power from the very beginning of conceptual design, and to generate and analyze a complete solar design all the way to detailed panel layouts and efficiencies and their effects on overall building-energy performance. We will also show advanced processes using Dynamo solar analysis nodes to parameterize, automate, and optimize your solar power installation.