Road infrastructure consists of many simple elements—road signs, traffic barriers, traffic lights, and so on. Creating and placing them separately in large infrastructure projects can be very labor intensive. In this technical presentation, we’ll demonstrate how to automate the creation of an intelligent model for road infrastructure using Dynamo scripts and universal Revit families. This class will teach you how to organize a geographic information system (GIS) system of a traffic management plan in Civil 3D software and effectively transfer it to an InfraWorks model. Learn how to set up an effective link between a 2D plan and the consolidated intelligent model in accordance with the information embedded in the vector objects. We’ll also cover the creation of parametric barriers in Inventor software for InfraWorks, and how to apply parametric barriers for component roads in InfraWorks. See a demonstration of the Dynamo script that places barriers on the appropriate position in the consolidated model in accordance with the attributes of the barrier’s points from the 2D plan.

Recognize ways to enhance workflows through the application of algorithmic design, structural optimization, BIM, and virtual reality using Revit, Dynamo, Rhino and Grasshopper. This class will demonstrate methods to optimize and explore designs to preserve design visions, using Dynamo and Grasshopper. I will talk about how you can optimize your workflow and increase efficiency by creating custom tools for these software. I will also show how Virtual reality can be used for design collaboration with any existing Revit model, to save time and reduce uncertainty. Through small, medium and large scale case studies, we will see how a project of any size could benefit from the use of these methods, and help you identify where your workflow could be further streamlined.

This roundtable discussion will explore the power of computational design in promoting sustainable development. We'll provide practical knowledge of the tools and techniques used to implement circular design principles, and we'll evaluate the ethical and social implications of using data analytics and modeling to evaluate the environmental impact of design decisions. This topic highlights the importance of resource conservation and regeneration and promotes a more sustainable future. The concept of the circular economy has gained momentum in recent years as a more sustainable and efficient model for resource use. In this context, computational design has emerged as a key enabler of the circular economy by optimizing material usage and reducing waste.

To meet global demand for affordable and sustainable housing, the architecture, engineering, and construction (AEC) industry must streamline the design-to-construction process. Modular builders—like Factory_OS—are doing just that by productizing their building systems to generate customizable buildings from a catalog of construction-ready unit types. With Factory_OS, Autodesk Research has developed new design methods that connect their building unit catalog with AI-powered generative design to create multiple design options. This case study demonstrates how new procedural design systems enabled rapid, no-code design exploration while balancing trade-offs between cost, carbon, and habitability. The study also showcases how the prototype made it onto Autodesk Forma using the developer extension model to deliver customized novel design functionality and metrics. Going beyond existing capabilities, Autodesk Research and Autodesk Forma enabled Factory_OS to rapidly and intuitively evaluate new development projects in a data-informed manner.

Building configurators are essential in the industrialized construction (IC) space. By using tools like Dynamo with Revit software, we can efficiently create an assembled building using basic design for manufacture and assembly (DfMA) assumptions. A configurator enables us to quickly search libraries for company assemblies and their parameter values, suggest previously engineered products (assemblies), and place these suggested products in their assumed project locations. Using this tool reduces a three-week process to one hour, and it unifies data with design, all while creating a reliable model. In this class, you'll learn the techniques involved in building a configurator with Revit and Dynamo software. You'll also learn how to evolve the process for continuous optimization, create custom searches for your products, filter methods that mimic DfMA logic and how to consume other massing inputs. Lastly, we will share lessons learned in our own experiences building configurators and discuss what resources were needed.

In this class, you'll learn how to use generative design in Civil 3D software through Refinery. Starting with the prerequisite packages and initial setup, you will discover how to create a Dynamo graph for generative design purposes. You'll also learn how to create a study, assign methods, set constraints, and explore outcomes. This class assumes basic knowledge of Dynamo for Civil 3D. Join this class and take your design skills to the next level.

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.

The East Bank project—located in the Queen Elizabeth Olympic Park, London, United Kingdom—provided a rare opportunity to push the boundaries of what's possible in terms of building information modeling (BIM) collaboration and digital delivery. With more than 280 live intelligent models across five buildings, Allies and Morrison, BuroHappold, and Mace had to establish a digital strategy that could facilitate collaborative working across an international team, with a wide range of skills across 70 design and construction teams. This presentation will start from the humble beginnings in the early concept stages, and will take you through the evolution of the BIM strategy over eight years. We'll touch on everything from the use of virtual reality (VR) technology in the design process to complex 3D coordination exercises before the fabrication of building components. Finally, we'll present our use of data analytics platforms to track the development of building asset data, for use in the operation of the buildings.

This class will go through 20 tips, workflows, or automations using Revit software. Topics will be on tool usage, collaboration workflows, and Dynamo automations. There should be a little bit for everyone in this class. The goal is to get your mind thinking of different ways to save time that you can apply to your projects. Sometimes technology moves at such a rapid pace that we focus on the next big thing while ignoring more-efficient use of the basic tools we have.

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.

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!

With rising material costs and razor-thin margins, construction takeoff—including accurate material quantification and cost estimates—is essential to starting and executing jobs on budget and on time. Autodesk Takeoff, with centralized 2D and 3D takeoffs, allows estimating teams to update quantities in real time, using the most up-to-date design files. By connecting existing building information modeling (BIM) data, Autodesk Takeoff can reduce takeoff and estimating times by 25% or more, minimize the risk of missed quantities, and guarantee accurate data capture. In this technical instruction, Edwin Bailey (senior preconstruction technology manager at Skanska) will showcase the workflows, techniques, and best practices for using Autodesk Takeoff, with real-world examples from Skanska's Class A Montrose project in Houston, Texas, among other examples.

Mandai Bird Park Project is an innovative sustainable-construction initiative in Singapore designed to create Asia's largest bird park in a 23-hectaire nature reserve. The design consists of eight massive walk-through aviaries inspired by diverse habitats, 20-meter-tall waterfalls, and an 84-meter-long archway. As part of the Environmental Management and Monitoring Plan, the team had to keep in mind sustainability and preservation goals to minimize changes to the original landscape topology, preserve existing flora and fauna, and replicate a tropical landscape incorporated within the architecture. This intensified the overall construction complexity. The class will show how we fully used building information modeling (BIM) as a single source of truth, reality capture. and cloud platforms, including drone mapping, laser scanning, and 3D surface modeling with Revit, Navisworks, Dynamo, and ReCap software throughout the virtual design and construction (VDC) implementation. This saved us 30% in survey costs, achieved 100% reuse of excavated soil, and prevented the aviaries from clashing with the trees.

In this session, we'll take a look at Alias 2024 software—a new modern Alias for a new world showing innovative modeling and discoverability for a new age.

This session will present an integrated digital workflow that creates alternatives by automatically reviewing the risk of traffic accidents, earthwork volume, and design standards using a digital design model of roads when performing linear improvement on roads with high volumes of traffic accidents. This technology implemented the digital design procedure of the road with Dynamo and Python, based on Civil 3D software. In addition, the traffic accident risk index of the road section was reflected in the algorithm. In particular, the road design standards were digitized based on XML and reflected as evaluation models in creating alternatives. Through this process, the digital alignment of the road that minimizes the occurrence of traffic accidents is optimized within Civil 3D, and a digital road model is created that presents multiple alternatives by collectively reviewing the calculation of earthworks and whether the road design standards are satisfied.

Technology in the architecture, engineering, and construction (AEC) industry is changing rapidly. To keep up with this accelerated pace, VHB is stating that our default design practice will be model-based design (MBD) by 2025. This means training 800+ Civil 3D users in more-automated, connected, and advanced workflows. We recognize that to create this large-scale shift we need to train a generation of innovative and inspiring coaches to help guide others through this change. Advanced MBD Training was created to mold 10% of our Civil 3D users into MBD Project Coaches. As MBD Project Coaches, they'll be expected to advance MBD from automating processes to creating more-efficient workflows. The training will focus not only on our core tool, Civil 3D, but it will also include Dynamo, InfraWorks software, Subassembly Composer, Grading Optimization, ArcGIS Connector, Autodesk Construction Cloud, and Twinmotion. This session will walk through how we built and implemented this program to accelerate change at VHB.

The 2011 Christchurch Earthquakes in New Zealand decimated a city full of 500,000 people. Government and residents required fast and decisive action. Twelve years later, the rebuild continues. What would this city's rebuild look like now with all the new technology applied? Could we respond more rapidly? Could the city be carbon neutral? Would we focus on the same projects? Would the projects look different if we measured embodied carbon? Would we have greater collaboration and data analytics capture and use? Would we gain efficiencies? We will explore all this in this class. We'll have a recap of the event, the damage, the decisions made that set the ground for the next 20+ years of work, and how we might approach the planning, design, delivery, and future of the city and its anchor projects if we could do it all again. We'll explore and demonstrate key workflows, processes, data-informed decision making, and software with some of the real-world design-and-built projects. We will explore the implementation of InfraWorks software, Autodesk Forma, Dynamo, ReCap software, Autodesk Construction Cloud Pro, and Insight X and share our ideas for the future.

Our industry's reliance on interoperability workflow hacks—such as app-specific import/export plug-ins, file formats with varying support across tools, and limited point-to-point translators—result in inconsistent data-sharing experiences that suck up time and require rework. Autodesk Data Exchange moves your disconnected workflows toward more-seamless cloud interoperability between the design tools you use every day, whether they be Autodesk tools (like Revit or Civil 3D software) or other apps (like Rhino). In this class, learn how you can use Data Exchange to curate, securely share, view, and manage design data across these apps and multiple stakeholders—with specific focus on Revit, Rhino, Grasshopper, and Dynamo. We'll explore how Data Exchange simplifies data sharing between those tools for architects, landscape designers, and more, so your teams and stakeholders can stage on the same page with the latest data changes relevant to you, without sharing your entire design files.

The "Canal do Sertão Alagoano" is an important initiative of the Brazilian government that aims to combat drought by providing access to water for various purposes, such as rural and urban human consumption, livestock watering, and irrigation. The successful implementation of this project can serve as a model for other regions facing similar challenges. In this session, you'll learn more about the implementation of the BIM Execution Plan (BEP) in a 27 km section of an open channel design. We'll highlight the collaboration between the design and construction teams and the clients through a common data environment (CDE). We'll discuss the complexity of 3D modeling for open channels in AutoCAD Civil 3D software, the use of Subassembly Composer to automate channel sections with multilayered earth fill, and the use of self-adjusting earth embankments to accommodate different soil materials. We'll also cover the use of Dynamo for minor automation and Navisworks software for design simulation.

This course will give you an overview of civil asset management at Denver International Airport. What are the civil assets? Denver International Airport (DEN) has a campus size of roughly 34,000 acres. DEN Asset Management is tasked with tracking existing and new assets across the entire airport. Learn how the Digital Facilities and Infrastructure (DFI) group in DEN Asset Management manages airport models and asset models. DFI is tracking 200+ projects at the airport. The Autodesk Construction Cloud Asset Module has model linking so that changes to the models are pushed into the Autodesk Build environment in Autodesk Construction Cloud. In this class, you will see a demo of how asset model linking is done based on criteria loaded into the models by our design consultants. DEN is completing an inventory of airfield stormwater structures. You'll learn how the collection of the data via electronic means has saved time and effort. And you'll see how, as an owner, the data can be used as we manage the civil assets into the future across our maintenance and engineering teams.