This roundtable session focuses on the Autodesk® solution for design and implementation of typical overpass bridges. We also evaluate approaches for working with tunnels, retaining walls, and other structural elements that are common to road, rail, and highway projects. Attendees can learn how these structures can be initially located by the roadway engineer in the context of the road or rail model, further designed and detailed by the structural engineer, and finally used by the contractor for construction planning. Key to this workflow is the ability for all project participants including civil, structural, contractors, and owners to work in a coordinated way with the goal of reducing production cost, compressing project timeline, mitigating risk and improving the overall quality of the end product. This session has a live walk-through of the process, primarily using a combination of AutoCAD® Civil 3D®, the Civil 3D Bridge Module, and Revit® Structure software.

Extracting data from Revit software and changing existing data within Revit models is exactly what contractors need, and Dynamo software is perfect for these types of jobs. For example, if you want to determine the bottom and side areas of a ramp for formwork calculations, it’s easy to do in Dynamo software. Do you want to split up floor slabs based on pour joints? Or perhaps you need to export all those adaptive component points out to Microsoft Excel? Well, you can also do those tasks with Dynamo software. Take this class and you’ll learn how to create Dynamo software graphs to perform these and many other practical tasks that are perfect for your office. Design professionals are also welcome to attend this class. Dynamo software experience is not required but Revit software experience is required.

The aim of this class is to demonstrate how teams within a construction company can use Autodesk Revit Live and what benefit such use can bring to their daily activities. Autodesk Revit is a software package most commonly used by design consultancies and architectural practices across the UK. It allows the creation and coordination of BIM models delivered by multiple members of the design team. Within the CAPEX phase, the model is passed to the contractor for clash detection, quantity take-off, and scheduling purposes, further to populate BIM models with information necessary for the Operational & Maintenance phase. Contractors can also use BIM models to provide the client with various design options, adjusting project cost, duration, and quality. Through the use of Autodesk Revit Live, contractors can provide clients with the ability to experience immersive VR visualisation of their project; however, VR usage is not limited to clients? benefits. Various teams within the construction company can benefit from visualising BIM models in a virtual reality environment.

The visual programming interface of Dynamo is enabling structural engineers with the tools to build optimized structures with minimal energy, and subsequently make their own design tools. Based on the Revit Platform, we can use our creativity to develop optimized structural systems using computational logic in an advanced building information modeling environment. This lab will teach participants how to create and iterate computational space frames with native Revit Framing elements and Adaptive Components, and how these can be used in structural analysis.

During the construction process, general contractors and trade contractors work together every day in many ways to get the job done. One way these groups commonly work together to plan projects is through the use of Building Information Modeling (BIM) and 3D coordination. Holder Construction Company, a general contractor, and McKenney's, Inc., a mechanical contractor, have had a working relationship for many years and have built many projects together. In this time we’ve watched BIM become an integral part of the construction process. In this presentation we would like to explore the different ways we approach coordination, the tools we use, how this relationship has changed over the years, and how we expect it to change in the future. Please also consider joining us for a related roundtable discussion to share your views and experiences.

This class is intended for structural engineers/technicians and contractors who struggle with the on-time delivery of accurate structural analysis results. It's a daily challenge for structural engineers to make the right decisions on structural geometry based on limited project data. Being competitive in structural design means early delivery of building construction documentation. In this session you will learn how to perform early-stage analysis on your structural models in Revit in order to define the right foundation design. You will discover how to detect structural problems in your predesign stage of your Building Information Modeling (BIM) process using cloud analysis in Revit with the Structural Analysis toolkit. Find out how to share your analysis conclusions with the other stakeholders of the project. Finally, we will evaluate the predesign decisions with comprehensive detailed analysis of your structural model in Robot Structural Analysis.

This lab is designed for structural engineers and designers who struggle with non-economic and unsustainable structural designs. It is a cliché that in the world of structural engineering, too often we have to face lack of time and impossible design changes that negatively influence the sustainability of a construction. We are challenged in making several structural analysis models, finding the best solution, leading in design of economic structures. In this class you will discover a whole new way of modelling and analysing your structures. You will learn how to create complex structural steel models with Autodesk Dynamo and Autodesk Revit. You will discover how to rewire your analysis system using Autodesk Dynamo and Autodesk Robot Structural Analysis Professional. And finally you will get surprised how easily you can handle almost any complex rebar design in Autodesk Revit with Autodesk Dynamo.

In this session, we'll look at a customer reference case of a shopping mall in Norway where Robot Structural Analysis Professional software managed to reduce the planned calculation work from 48 hours to 16 hours. The planned calculation work included optimization of steel frames and trusses, reinforcement calculation, and reaction forces for the piles.

This session will be an overview of current Revit software workflows for electrical contractors, the difficulties they present, and how the GTP electrical add-in solves them. Learn how to automate conduit scheduling and data management within Revit software to solve some of the biggest scheduling problems. See how information from estimators and engineers can be used to drive project standards. Find out about ways that the field can provide information for modeling staff, see information from the model, and ensure that the model includes changes and information requested. This session features Revit and Navisworks Manage. AIA Approved

It's time to learn about Robot Structural Analysis software in this hands-on, down-and-dirty take on a powerful analysis tool that boasts one of the highest levels of direct integration with Revit software currently available. If you are curious about Robot Structural Analysis software and you want to know more, this is the class for you. As engineers with extensive responsibility, changing analysis packages is not something we would ever undertake lightly—and not without doing our own investigations into the capabilities of the new software. This class will give you an introduction to Robot Structural Analysis software and get you ready to set up your own exploration and investigation of this great analysis package. We will cover basic interface, navigation, setup, display, simple modeling, basic loading, seismic, results exploration, and basic material design workflow. We will also include key tips and tricks for getting up to speed quickly with Robot.

Learn how a contractor could deliver projects with better quality, cost and time.

This class will show you how to use the Robot Structural Analysis software's comprehensive API to simulate complex structural problems and thus improve efficiency and provide feedback loops. We will review several examples where the API has been used to link Robot Structural Analysis software to other software in order to speed up model generation and help create complicated geometry models with a high level of accuracy. We will show you tips, tricks, and effective practices for generating models that run efficiently, and you will discover how to use the API to extract results in order to provide optimization feedback loops. We will also show you how to use such functions as Result Query and Cache in Microsoft Visual Basic to access data within Robot Structural Analysis software. We will use at least 1 example of this type of workflow to demonstrate how quickly you can create scripts to link software such as Grasshopper to Robot Structural Analysis software, and then continue through to Revit software to produce project documentation and images.

This class will review the American Institute of Steel Construction's (AISC) Direct Analysis Method, and we'll look at how it is implemented in Robot Structural Analysis Professional 2015 software. We will cover the requirements of the Direct Analysis Method, and we'll examine the challenges of applying it in analysis and design software. We'll explore analysis examples from actual projects to conduct an in-depth examination of the Direct Analysis Method workflow in Robot Structural Analysis Professional software. Through these examples, we'll review the analysis parameters, the ways to perform the analysis, and the options available to review and validate the analysis results. This class will illustrate the benefits of the Direct Analysis Method and demonstrate the ways that the implementation of Robot Structural Analysis Professional software is efficient, customizable, and user-friendly. We will also discuss how the software considers the code-required stability effects.

BIM is a disrupter much more than AutoCAD was many years ago. BIM has the ability to very quickly make something in the virtual world which exactly replicates the real world. The speaker will present a main contractor's struggle to understand what BIM is, what it means for their work, how it can be implemented, and what they can deliver for a customer at handover. The UAE (and the wider MENA region) has particular challenges around tight programmes, constant change throughout the construction phase, multiple multi-cultural stakeholders, complex design, and projects ranging from 20 million AED to 3 billion AED. The speaker will explore BIM through the Navisworks Manager toolkit which brings in many disciplines from the construction field. The company are currently working on a range of projects but 1 British-designed iconic building currently stands out along with another 1+ billion AED project which demonstrates the issues faced including the absence of BIM standards.

This class will focus on interoperability between Plant Design Suite Ultimate software and Robot Structural Analysis software. In this class you will learn effective practices for collaborating with 3D models from AutoCAD Plant 3D software, Revit software, Advance Steel software, and Robot Structural Analysis software.

When describing a concrete structural model in Revit, the model contains elements used in constructional projects and exported to Graitec Advance Design solution to apply loads and perform structural finite element analysis. The export process will take care of the required properties of elements such as material, sections, and geometry. Using the powerful mesh engine and finite element solver of Graitec Advance Design, the internal forces will be calculated based on the applied loads. Then the required area of reinforcement in elements will be calculated, considering the concrete design code and localization. Next, the model will be exported back to Revit. Graitec GTCX format can also transfer internal forces and rebar areas to Revit using the Powerpack tool. Based on the calculated forces and steel area, we will present how to perform 3D rebar placement in Revit for several structural elements. The process of model synchronization between Revit and Advance Design will also be covered.

The collaboration features of Revit Structure software with Structural Analysis software were widely presented and experienced over the last years. However, despite all this featured software, many structural engineers still stay with their Microsoft Excel spreadsheets and their common pencil-and-paper routine. Not all software supports all codes, and very often it is faster to use those light spreadsheets than it is to work with heavy analysis software. This workshop will demonstrate how you can implement those spreadsheets into the parameter fields of a Revit software family, making use of the formula capabilities of the Revit software parameter and of nested families in order to make Revit software tasty for engineers. We will present examples that will include a reinforced-concrete footing design, a concrete retaining wall, timber joists designs, and a timber joist cantilever design. The workshop will also cover the documentation features and possibilities.

This class will review the new wind simulation technology available in Robot Structural Analysis Professional 2015 software. We will review the current landscape of code-based wind design (specifically ASCE 7) and we'll discuss the challenges of applying these methods to different structure types. We'll then examine Robot Structural Analysis Professional software's unique computational fluid dynamic (CFD) wind simulation tools, and we'll discuss how they compare to the code-based approaches. Using sample wind simulation models, we will review the wind simulation analysis parameters and the analysis process, and we'll discuss the simulation results. Finally, we'll review the benefits of wind simulation, we'll discuss the ways it can be used to supplement and/or validate code-based approaches, and we'll cover the benefits of wind simulation on workflows and projects.

In this lecture we will cover seismic design capabilities that are included in Robot Structural Analysis Professional software. Come to this lecture to explore seismic analysis based on both lateral force and response spectrum methods. Topics will include seismic analysis based on lateral force method; seismic analysis based on response spectrum method; modal analysis; definition of automatic design combinations considering static load cases and dynamic combinations; and specific results for the core walls and the building stories.

With Revit software and Advance Steel software, structural engineers have tools available to enable them to take their designs past construction documents and into fabrication and construction. Construction schedules are faster, integrated project delivery is more common, and the Who, How, and When of structural shops drawings and fabrication models are changing. This presentation will show how US-based structural engineers who already create their design models and drawings with Revit software can use this same software to create shops drawings from their fabrication models for rebar, precast, and structural steel, and also create concrete lift drawings. Attendees will learn why these services are offered, how engineers can offer them, and best practices to follow to offer Building Information Modeling (BIM)-based structural shop drawings. This session features Revit Structure and Advance Steel. AIA Approved