This class will cover concrete bridge modeling in the context of a wider transportation project. The class will explore fast conceptual bridge modeling in InfraWorks software, and workflows to Structural Bridge Design software, Inventor software, and Revit software. You will learn how to rapidly model concrete bridges in InfraWorks and use the “built-in” analysis tools to assess the suitability of the chosen girder system against recognized design standards. You will learn how to use Structural Bridge Design to examine and refine the design and to carry out more-detailed analysis and design checks. You will learn how to use Inventor to refine the InfraWorks bridge model by creating custom parametric bridge components for use in InfraWorks, and you’ll see how to configure them to act as native parts. You will also learn how to transfer the refined bridge model to Revit, where you will add 3D reinforcement using new rebar tools and finally produce drawings and rebar scheduling ready for fabrication.

Prefabrication and modular construction has become increasingly significant in building design and construction management. Building Information Modeling (BIM) combined with fabrication has enabled integrated architecture and engineering workflows that can embrace these technologies. In industrialized production, the digital model becomes the product. For architecture and engineering professionals, drawing sets rely upon symbology and design intent, not on specifics of construction and fabrication. This class will present best practices and procedures for modular off-site fabrication. Focused workflows will be demonstrated using the architectural design and documentation capacity of Autodesk® Revit® software combined with the manufacturing capabilities of Autodesk® Inventor® software. The digitally fabricated model produced by Inventor directly informs both the architectural design and the Computer Numerical Control (CNC) components. Autodesk® Navisworks® software will then be applied as a tool to explain industrial production techniques, documenting prefabricated construction methodologies.

What use would a tire company have for construction management software? We had to ask ourselves that same question at first. Unlike most who work in Autodesk Construction Cloud, we aren't paying our bills through the construction of buildings; we're investing in the buildings. We manage the entire project lifecycle of our facilities from conception to operations. Tires are our product, but we need a place to build those tires. We need to maintain that facility, manage our assets, and, most importantly, we need to transform our manufacturing footprint. All of these things need to happen, all while product continues to flow out the door. We produce tires despite the building process, we don't build despite the production of our products. We hope to share a different perspective of how an owner and operator takes advantage of Autodesk Construction Cloud and the rest of Autodesk's portfolio to make a successful process.

Revit building design software is an extremely capable modeler for different disciplines, but using it for modeling simpler items such as furniture, toys, dollhouses, decks, and more can be a very rewarding experience. This class demonstrates the use of Revit on a smaller scale to create drawings, quantity takeoffs, renders, and cut sheets for home projects. Real-world examples are shown from conception to fabrication. As the BIM director working for a firm with over 700 employees, there is always a challenging project underway that requires in-depth planning, technological innovation, and complex workflows. After this work is done, it is a pleasure to kick back and use Revit to model something fun! This class focuses on using Revit to create models for the weekend warrior who is not afraid to build, create, and fabricate items at home.

With 3D structural analysis being the norm and with a rapidly growing implementation of bridge asset management systems, the market is poised for an explosive adoption of Bridge Information Modeling (BrIM). However, there is no single black-box information model that incorporates hydraulic and structural analysis, geometric design, and plans production—and much less structural detailing! This class will create a process map for bridge design that identifies data exchanges from conception through construction. It will look at owners' bridge management information needs and what data should flow to the operation and maintenance (O&M) phase. Taking into consideration appropriate Autodesk® tools for bridge design and analysis, such as AutoCAD® Civil 3D® software, AutoCAD® Revit® Structure software, and their various extensions and analysis modules, the class will offer best practices for creating a workflow to meet the owner's, contractor's and designer's needs. We won't necessarily have all the answers, but we'll contemplate some thought-provoking questions.

In this class, we’ll explore the journey one person has taken to create numerous 3D prints and designs—with a case study of two specific, very popular, 3D-printed designs—using Fusion 360 software and other Autodesk tools. These designs help demonstrate the value of Fusion 360 software’s multiple workspaces, while requiring the user to find alternative workflows to overcome some limitations. Both projects are 3D-printable items that can be printed on most home 3D printers or through any commercial service. Come and share my experience.

This class shows how Fusion 360 is the one stop solution for colaborative work in rapid prototyping. Designing components, simulating and rendering previews, as well as programming industrial level milling machines can be done in one program.

The class focuses on an example part from a formula student racing car, with global reaching collaboration, which is modelled and programmed live during the class while highlighting the immense workflow speed of Fusion 360.

This class will explore using Autodesk, Inc.’s, Architecture, Engineering, and Construction Collection for transportation design. We will walk through the Collection identifying software that we can use to efficiently create designs going from conception to design to completion and maintenance. The class will cover InfraWorks 360 software, AutoCAD Civil 3D software, Navisworks Manage software, and AutoCAD software. This session features AutoCAD Civil 3D.

This talk will showcase the use of Autodesk Generative Design tools in Fusion 360 and how these tools have been used on various projects in Education. It will showcase the workflow from conception through to final manufacture in a complex working system; covering set up, loading, and post-processing using T-Splines. This talk will also cover the use of Autodesk Generative Design in Education and its adoption into the designing workflow in Engineering.

In the dynamic landscape of Manufacturing and Design, success hinges on streamlined processes and data-driven decisions. Join us to uncover how the digital thread can revolutionize product lifecycles, from conception to delivery, while mitigating risks and fostering innovation, bolstering market competitiveness. In the intricate realm of AECO, where massive projects demand meticulous coordination, the digital thread emerges as a linchpin for clear communication, efficiency, and risk mitigation. Program and Project Managers can harness its principles to ensure timely deliveries, optimize resource allocation, and align with client visions and industry standards.

BIM plays a crucial role in the conception, modelling, and management of physical infrastructure, allowing architects and engineers to design within a 3D parametric environment. Unusual structural systems (e.g., buildings in seismic areas, tensile structures, reinforced concrete shells, diagrid structures) pose significant geometric, modelling, and analysis challenges. Conventional approaches with Revit and Robot, entail extensive resource allocation, are time-consuming and provide limited flexibility to accommodate significant variations. As a result, this case study investigates the automation of complex parametric structural systems. It explores the Revit/Dynamo/Robot interface and procedures to minimise data contamination, examines the flexibility to accommodate variations at any stage of the design process, and ultimately aims to increase productivity across the Atkins? infrastructure business. Several case studies have been investigated, and algorithms have been developed combining Dynamo's comprehensive set of pre-defined nodes, with the development of advanced Python coding. The case study begins with the development of an algorithm for multi-storey flat-slab buildings with stability to be provided by shear-walls in two orthogonal directions. Buildings in high-seismicity areas require a shearwall/floor plan area ratio of 1.5%, and specific Python code has been developed accordingly. Assuming even column distribution, constant floor-to-ceiling height, and regularity in plan and elevation, the algorithm is governed by six input parameters: Width, Length, Floor-to-ceiling height, Number of storeys and Column grid spacing (X, Y). No difficulties were encountered in the Dynamo/Robot interface. It then directs attention towards a second case study involving high-rise structures, and a third case study comprising complex surfaces.

In this class, we will consider how mechanical, electrical, and plumbing systems can be designed from end to end as graph data. We'll see how the graph can connect all parts of the system, including spaces and walls, as well as conventional MEP elements. We'll also go through how the graph can expand to encompass complexity at each stage of the design—from initial conception to design development and, finally, to use. We'll go through an example application of MEP graph data using Revit software, Azure, and the Forge platform. With this application, we’ll see how other algorithms can use graph data for rapid simulation and analysis.

Are you using Inventor software and wondering if you should switch to Fusion 360 3D CAD/CAM software? In this class, you'll learn how Inventor and Fusion 360 compare, and how the products can coexist. This class's presenter has written 20 books on Inventor software, and has been working with Fusion 360 since its conception with major universities. The following areas will be examined: data management, operating systems, import data, imported data editing, sketching, part modeling, configurations (iParts), sheet metal, surface modeling, tools for creating components like bolts and gears, simulation, generative design and lightweighting, assembly modeling, and large assemblies-capacity, drawings, exploded views, rendering, CAM/CNC, and software update cycles.

The steps from conception to design to construction to handover form quite a fragmented process. Not only are people coming and going, stakeholders changing, and risks shifting throughout the processes, but the tech stack supporting the process is fragmented, creating data silos and interoperability gaps. It’s no wonder that projects are coming in over budget, behind schedule, and suboptimally optimized for operations and maintenance. This presentation will take a step back and peel back the layers of this complex, fragmented process. We’ll explore how a design-driven, data-centered workflow managed through BIM 360 software from construction to handover closes the loop in the building continuum. This will close the loop in the value chain so that stakeholders can communicate more effectively for the most value-driven design, construction, and operation of a building.

Improved and affordable software has made the concept of real-time rendering to become fully realized in the AEC industry. Designers are now able to effortlessly produce high-class renderings throughout every stage of their workflow. A game-changing feature that has added to the improvement of the design workflow is an integration that gives designers the ability to work with both CAD and renderings side-by-side. Adjustments can be made on the fly and the changes will appear on the rendering instantly. This session will demonstrate the possibilities users get by being able to create fully rendered walk-throughs with just one click. From standing out in the conceptional design stage with videos and VR to displaying BIM data to answer questions on facility management. We will outline how all members of the AEC industry can benefit by implementing rendering functions into their workflows and shorten their trial and feedback iterations.

Autodesk Advanced Consulting and General Motors are working in collaboration on the future of design to create important new vehicles. The application of generative design is a key part of this engagement, and in this class, we will explore the application of this technology. We will look at the evolution of the design from conception to manufacturing and some of the wider considerations in the design approach. An overview of the broader generative-design application will be shared, as well as a deep dive into a generative-designed component. We will cover the streamlined workflow utilizing Fusion 360 software, generative design, and Netfabb software to achieve design for additive manufacturing. The methodologies and design approaches will be presented by representatives from Advanced Consulting and General Motors. There will also be some GM-manufactured artifacts to see. Our aim is that attendees leave with a familiarity with the generative-design process and how industry is applying this to real problems.

Undertaking the monumental effort of organizing data within an organization is difficult alone. Add standardization and, ultimately, the development of specifications to provide guidance to all who do business with your organization, and you really have a mountain to climb. Airports have unique requirements that set them apart from other asset management systems. During this panel discussion, we’ll share the obstacles encountered from the conception of an asset management program all the way through to an enterprise-level BIM (Building Information Modeling), geographic information system (GIS), and computerized maintenance management system (CMMS). We’ll share experiences on how these obstacles were handled both temporarily and permanently to achieve steps toward a single source of truth. Panel members will offer their unique perspectives on the various issues confronted through the implementation of these programs.

A Project BIM Execution Plan (BExP) is more than just a document; it is the common language that becomes the roadmap for digital collaboration, strategy and deliverables. Sure, the average BExP will define the basics. But what good are the BExP outputs without a well-defined information exchange process? With the continuous evolution of platform integrations directly into native BIM environments, why do we assume all project participants know these new workflows and protocols? Enter cloud-based technology planning. Late engagement and undefined workflows set up your project for failure and reduce the likelihood of choosing the best workflows. Cloud-based technology and early collaboration between designer and builder have put a spotlight on expeditious kickoff meetings for successful BIM Execution. New technology now enables early sharing of information and greatly impacts cross-discipline collaboration and risk mitigation. In this class, we’ll examine project-specific BExPs and Information Exchange Diagrams to highlight where project impacts can be avoided through proper cloud-based collaboration planning. From Project Conception to Building Handover, you’ll leave with tangible examples of how to setup your project stakeholders for collaborative success.

This Instructional Demo will begin with setting up a large site for multiple residential blocks in Revit and fully embracing work sharing from early conception of the architectural design. The role of the architect in the construction industry often aligns with the role of lead designer and project coordinator. Bearing in mind the responsibilities that come with such role the class will learn about techniques of setting up coordination files for a multidisciplinary shared project. The lesson will then explore fast-track workflows for conceptual residential design by utilising Revit and Dynamo. We will further explore workflows, user tips and tricks for the creation of numerous unit variations within a block and managing changes as the project is being advanced. We will discuss different roadmaps for modelling internal layouts with their benefits and challenges explained and analysed. The class will expand on the need to keep models flexible and adaptable to the level of detail and development required by clients at each stage of the project. Focusing on the transition from concept to technical design the class will learn how to progressively advance the model and aid multidisciplinary coordination. The demo will discuss team collaboration and the importance of discipline while working on a design in Revit. Milestones in the residential design working towards BIM Level 2 standards will be set out and discussed. How much is too much data and what can the residential design data be used for will be explored as a final of the demo with some RIBA project stages analysed from the user/draftsman's perspective.