Explore deploying a digitalized design and monitoring workflow for a thermal remediation system (TISR®). Using Autodesk Forma, Autodesk Construction Cloud, Revit, and Autodesk Tandem software, the project establishes a seamless lifecycle workflow from early-stage planning and data harmonization to real-time monitoring and maintenance. Forma optimizes solar energy feasibility analysis and site planning, while Autodesk Construction Cloud ensures standardized data exchange across stakeholders. Revit enables detailed 3D parametric modeling. And Tandem integrates telemetry data to monitor system performance. You’ll learn how Digital Prototypings enhance operational performance, reduce the need for on-site visits, lower greenhouse gas emissions, and improve collaboration between stakeholders. Explore the transformative potential of Digital Prototyping platforms for advancing sustainable asset management, conserving resources, and increasing infrastructure resilience in environmental restoration.

Carleton Immersive Media Studio (CIMS) has been involved in the 3D modeling of judicial evidence for homicide cases since 2015. The lab has refined its modeling workflows based on the established use of reality capture (photogrammetry) and BIM (Building Information Modeling) to model artifacts and buildings. Working with the coroner’s office, CIMS has incorporated newer forms of 3D modeling and real-time rendering to establish a standard for displaying digital representations of photographic evidence in a courtroom setting. In this class, we’ll cover our modeling process, starting with analyzing evidence to presenting the data in a user-friendly format. Utilizing Maya software, we’ll model a series of anatomical base meshes that we’ll then manipulate to show inflicted injuries. Next, we’ll texture map the models in Mudbox using photos as reference. Finally, we’ll combine the pieces in Unreal Engine using a template. The addition of blueprints and widgets complete the final product.

This session will introduce LotSpec, an Option Management add-in which automates “Lot-Specifics” within Revit and AutoCAD Architecture. We will be interviewing a LotSpec user from Smith Douglas Homes. The session will discuss the pain points home builders face and how LotSpec can help ease the burden of site specific architecture. We will cover how LotSpec can automate the process to improve organization, project management, and estimating by providing concise drawings. LotSpec uses a rules-based workflow to assign logic to project elements. The automation process assists in eliminating combination errors and reduced red-lines.

This class will try to give an introduction to the new features within Fusion 360 software regarding electronics cooling simulation. A real model can be simplified in Fusion 360, and then taken through the whole workflow of setting it up, running simulations, and analyzing results. The class will also capitalize on the other capabilities from Fusion 360, to combine the design optimization with Fusion Mechanical simulation and Generative Design in Fusion 360.

You don't have time to learn 3D modeling? All your legacy data is 2D? Your customers demand 2D drawings from you? You know that there is a better way to get your work done, and help your colleagues downstream—but you’re under too much pressure to spend time working this out? Well, 2D and 3D workflows don't have to be mutually exclusive. Your best option could be a combination of both. You can have the flexibility of 2D AutoCAD software when you need it, and the automation power of Inventor software when you're ready. In this presentation, we'll see how you can move from 2D to 3D at your own rate. We'll show you how to reuse your legacy 2D data in a 3D workflow, and how to repurpose your 3D data as 2D drawings for your customers. AutoCAD and Inventor work better together, for 2D + 3D workflows.

Owner requirements are becoming more demanding. Designs are becoming more complex. The shortage of skilled labor continues to grow. And, meanwhile, construction's poor productivity rates fail to improve. How do we respond to this challenging industry landscape? So much of the conversation has revolved around BIM (Building Information Modeling); however, BIM is not the answer. It is, however, the beginning of the answer. In this session, we will explore how BIM, if properly implemented, can become a powerful enabler of efficiently and elegantly executed projects. We will dive into scan-to-BIM workflows, automated field construction, prefabrication, and industrialized construction. By drawing on experience implementing BIM on more than 500-plus projects, we’ll reveal trends and highlight successes and failures, so attendees will leave with a greater understanding of how to make the most of their intelligent models. Get a glimpse into life after BIM.

The handover of a 3D model is an old standard practice in the industrial plant market-one that nowadays has to be integrated with the Building Information Modeling (BIM) approach. This presentation will walk you through the journey that an engineering, procurement, and construction (EPC) contractor took by implementing BIM inside its typical design workflow for an $800 million petrochemical plant in the Middle East. We will demonstrate how to perform civil and structural design using Revit software from conceptual up to construction documentation delivery, and how to take full advantage of 3D modeling for plant project coordination and information management. Thanks to this method of collecting and delivering model data in an efficient manner, it's possible to recognize potential risks, impacts, and conflicts-and to take action in order to bring the project to success. Finally, the class will briefly discuss the project and process BIM implementation benefits, together with the related risks for a general contractor.

It is common to design factory layouts using AutoCAD software and Inventor software to ensure spatial accuracy and safety compliance. However, it is not the norm to be as diligent with process design. Often plant designers will rely on equipment vendor rates and will assume equipment and resources will integrate and run according to the design on paper. But what happens when the reality of process variation and equipment and labor interdependencies come into play? It’s very difficult to take all these factors into account using only CAD drawings and layouts. The solution is to use simulation to optimize the factory workflow, then create a direct link from the simulation to the factory layout, providing a digital twin of the factory. We will demonstrate the value and basics of how using ProModel and Process Simulator Autodesk Editions, synced with AutoCAD and Inventor, can help optimize your digital twin first so that you’re not playing trial and error with your real equipment, inventory, and labor.

Industrial piping design tools such as AutoCAD Plant 3D software are now sophisticated and mature tools in many capacities across the specification-driven, P&ID-validated, data-driven fronts. However, other disciplines are engaging with more-contemporary modes of design, communication speed, and risk reduction. This paper will discuss how complimentary computational-design processes can harness power from other disciplines such as 3D geometric dimensioning and tolerancing in product design, mesh backdrops originating from reality capture processes, intelligent AutoCAD-Plant-3D-to-Revit interoperations through APIs, through to the creation of specifications from legacy data fragments for seamless piping component file (PCF) imports.

There is an increasing desire to build custom designs that can more easily convert from traditional mechanical and industrial CAD tools into BIM (Building Information Modeling)-ready content that can be utilized inside of Revit software. Inventor software has the capability to generate Revit-ready content, but often this requires specialized knowledge of the process. What if things didn’t have to be this way? What if any CAD designer could quickly assemble components with BIM-enabled features, easily compile multiple components into one compiled model, and populate BIM connectors for final insertion into Revit with a click of a button? Doesn’t that sound amazing? The workflow in this class will utilize everyday Inventor techniques to set the stage for powerful iLogic capabilities to enable virtually any designer to configure Inventor models into Revit-ready content.

There are 12 things you should never do in Revit software—but if you do them, here’s how to fix them. Now, we know you didn’t explode a DWG in your Revit project—but somebody did, and it has to be fixed. This is one of 12 examples we will discuss in this class. Of course, we will cover strategies for how to avoid these problems, but let’s be realistic. You can’t control everything. We will dive into 12 painful mistakes made in Revit files that may drastically affect your model and production. We will even go a step further to reveal strategies for avoiding this dirty dozen, and remedies to heal if the damage has already been done. Please join us for this class as we uncover ways in which to keep your Revit model healthy.

In the first part of this session, we will create an associative parametric model to introduce fundamental concepts that underpin computational design while exploring visual programming in Dynamo software. The model will be enhanced by parameters retrieved from AutoCAD software and Civil 3D objects. We will show how to organize and export a point cloud representing the landform and link into Civil 3D. There we will integrate this landform as a triangulated irregular network (TIN) model into the model of the existing environment and perform several analyses, including grading, stormwater, and cut/fill balance. Based on this analysis, we will optimize the parametric model. As the model is dynamically linked, we can check the improvement immediately in Civil 3D and iterate the process easily. We will also show how to use Dynamo to link landforms created by designers as NURBS with TIN surfaces that engineers can use.

Advance Steel software can be used for a diverse range of structural-steel modeling and fabrication projects. When it comes to large projects, the right approach is essential for project health and management, on-time documentation delivery, and later use of the project. In this class we will examine different methods of working on large projects in Advance Steel. We will start with what makes a project “large” and when special considerations would be needed. Then you will learn how to approach the 3D modeling phase based on project characteristics and available resources in your company. We will discuss using xrefs, split models, and multi-user methods, with their characteristics and challenges. Further on, we’ll discuss the detailing phase and generation of the full documentation for fabrication. The class will include performance comments based on experiences with previous projects, as well as best practices and recommendations for working with large projects.

The Content Center is an invaluable Inventor tool primarily used to store standard components and drive design accelerators, such as Frame Generator, Tube and Pipe, and Bolted Connections. Due to the Content Center database structure, there are several advantages for product design and data manipulation. One advantage is to replace large iPart tables with Content Center families. Simply publishing these large families to a custom Content Center Library will greatly reduce the amount of time required to place and modify these components versus placing them via the iPart table. We’ll also explore customization techniques offered in the Family table, but particularly via the Microsoft Excel spreadsheet linking. Editing Family tables within Excel unleashes all the power the spreadsheet tools have to offer, simplifying data coordination. Finally, we’ll use iLogic to extend the data within the Family table to solve the vexing problem of automatically establishing part numbers for Tube and Pipe Conduit parts.

Have you struggled with, “what do I do now that I have a point cloud?” It is a common question in the infrastructure industry. There’s an abundance of software that will assist in the post processing of point clouds into a working/usable format. If you have the Architecture, Engineering & Construction Collection, you have all you need. Using a "real-world infrastructure project," this class will walk you through the step-by-step process of post processing drone-collected photogrammetric data. Using products available within your AEC Collection (ReCap Photo software, ReCap Pro software, InfraWorks software, and Civil 3D software) surveyors and designers will be able to generate a working existing-condition drawing.

There are more than 20 million miles of underground plant in America. That's more than one football field in length for every person in the United States—and more are being put in every year. It is critical that engineers and designers have the best data available. Traditionally this has come from field visits, photographs, and survey points. As the cost of the technology decreases and the accuracy increases, we are able to provide designers with highly accurate, reality-based 3D models to work in. Accurate preconstruction data can reduce subsurface costs by almost 5 times! We will discuss using reality capture to provide point clouds, photogrammetric mesh models, panoramic photos, underground locates, and 360-degree photos to facilitate design. We will discuss the differences between the different methods under the circumstances in which we use them. Finally, we will discuss using them to generate line work and terrain models for use in AutoCAD Utility Design software. Also see: Designing Reality, Incorporating Point Clouds into AutoCAD Utility Design. This session features ReCap 360 and AutoCAD Utility Design.

This class will discuss and demonstrate the concepts of using AutoCAD Utility Design software's Data Exchange (DX) functionality. Using DX, we can attach to feature data object (FDO) and industry model geographic information system (GIS) data stores to pull as-built data into an AutoCAD Utility Design project to be used as the basis for that design. DX enables us to create mappings between our external data store and the internal AutoCAD Utility Design industry model and this mapping is used when importing and exporting data. During this class we will connect to a job-enabled AutoCAD Map 3D software electric industry model, map its feature classes to our AutoCAD Utility Design feature classes, and import data. We will then edit some of those features, remove some of those features, and create new AutoCAD Utility Design features and export that data back into an AutoCAD Map 3D software job. Finally, we will look at the imported data in AutoCAD Map 3D software.

Hark! The voice of the customer calleth!  Join a highly interactive class focusing on distribution design. This class will focus on AutoCAD® Utility Design software and will provide users the opportunity to collaborate on product capabilities, implementation, and more. We will cover the following topics: new user highlights, capabilities (tools and features, configuration, integration), data exchange (geospatial data, civil surfaces), engineering data management, and breaking down barriers to get from old to new. We will also provide a sneak preview of technology futures, such as 3D design innovations, transmission, and more.

This class will present an overview of the workflow of capturing and utilizing real-world urban and natural locations in order to make powerful, real-time, volumetric, 6DOF (six degrees of freedom) virtual reality (VR) experiences. Starting with site-capture methodologies, we will discuss techniques of utilizing 360 panoramas, DSLR photogrammetry, and laser scanning, along with specific hardware concerns. We’ll then cover postproduction workflow, utilizing raw conversion, tone mapping, photogrammetry solves, cleanup, and prep in Maya, then final import into Unity game engine. We will show final examples through a VR headset that illustrates urban CG integration of architectural design as well as natural landscapes.

Learn how Southern California Edison uses AutoCAD software-based drafting tools to produce designs in a rapidly changing industry. This class discusses how the Transmission and Distribution groups produce work order packages using the AutoCAD Utility Design tool, resulting in greater consistency, accuracy, standardization, and ability to feed downstream processes in the enterprise. We also discuss how designs are initiated and how engineering tools feed into the final design within a tightly integrated network. All of these processes occur within the context of enterprise-level resource planning, and the downstream systems such as mapping, GIS, and SAP® that consume design data, including design validations, material ordering, scheduling, and construction. This class also examines future design elements in the industry, such as cloud-based computing, 3D renderings, and data point clouds.