Departments of transportation and other highway agencies are attempting to integrate their workflows and information processes as they move from design through the construction stage of the infrastructure lifecycle. This effort is designed to achieve greater efficiencies and cost savings through better collaboration during the construction process, and help facilitate information flows into and out of the field. This panel (under the direction of Esri and Autodesk) will assemble three best practice examples from the California Department of Transportation (Caltrans), the Pennsylvania Department of Transportation (PENNDOT), and the Montana Department of Transportation (MDT) to present their current initiatives and engage in a panel discussion. The session will focus on the successes and difficulties each agency encountered as they sought to streamline their workflows associated with the digital delivery process, and how Esri and Autodesk helped them better align their processes with technology.

The Summit will focus on customer-driven discussions, from the evolution of project-delivery best practices to customer-driven technology presentations. The discussion will focus on emerging technology and workflow/process change that is empowering connected Building Information Modeling (BIM) in transportation. We'll be focusing on transportation and having in-depth conversations on addressing key issues in transportation and direction that technology should go to support complex, cross-disciplinary projects. New this year we'll focus on the construction needs of the transportation segment. Networking opportunities during hosted break and pre-reception.

The BC Ministry of Transportation and Infrastructure (BC MoTI) plans transportation networks and provides transportation services and infrastructure for the Province of British Columbia. BC MoTI has transitioned from CAiCE and is now using Civil 3D software for consultant and in-house survey, design, and construction administration workflows. This class will detail the entire Civil 3D implementation process, including a BIM (Building Information Modeling)-based approach for the development of workflows and data handoffs, CAD standardization, subassembly and application customization, training and information dissemination, continued support, and documentation. The end product is a Civil 3D terms-of-reference document that describes all of the requirements for using Civil 3D for survey, design, and construction administration tasks, and is applicable to both Ministry staff and private sector consultants.

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.

In this session, we'll explore the intricacies of drainage design workflows for transportation projects, including rail, roads, and highways. Using Autodesk's InfoDrainage and Civil 3D software, we'll present a streamlined workflow that facilitates the interaction and data exchange between both software solutions, with a special emphasis on drainage for transportation-related projects. One of the key learnings will be spotlighting the data exchange and results migration capabilities between civil design software (Civil 3D) and drainage design software (InfoDrainage), without the interjection of spreadsheets. Additionally, we'll highlight InfoDrainage software's machine learning (ML) deluge feature, with emphasis on its potential to expedite the concept and early planning process by rapidly identifying ponding locations on a site. Testing data showed the ML deluge outperforming traditional deluge by identifying ponding on a site in four seconds compared to more than nine minutes.

This session will walk through a typical highway/road design transportation project workflow using the full suite of infrastructure solutions using InfraWorks software, AutoCAD Civil 3D software, Navisworks software, Revit software, and Structural Bridge Design software. We will look at the following workflows: InfraWorks road layout tools and component roads for preliminary design; cloud services for corridor and profile optimization for Greenfield or Brownfield projects; the creation of bridge structures and evaluating bridge design with line girder analysis; modeling and analyzing of watersheds, culverts, and drainage networks; the moving of preliminary designs from InfraWorks to AutoCAD Civil 3D software for detailed design and documentation; the moving of bridges from InfraWorks to Revit to make a more parametric structural bridge; and the transfer of detailed design elements back to InfraWorks 360 software to visualize and communicate design intent.

Transportation engineers work every day to keep cities and people connected. But how do we keep transportation engineers connected so they can help successfully deliver projects? This class will focus on providing a workflow for hosting multidisciplinary transportation projects in BIM 360 software. We will start with project setup, including cleaning inherited files, folder structure, and drawing and model creation. We'll discuss the steps teams need to take to collaborate through effective data shortcut management, markups, issues, and model coordination. We'll examine collaboration techniques between roadway, utility, and structural designers working in Civil 3D software and architects working in Revit software. In addition, we will show how LIDAR data can be used using Navisworks software to complete the 3D model. Finally, we’ll summarize best practice tips and tricks that can aid design teams in the efficient management of projects. We'll use examples from a successful BIM 360 transportation project located in Toronto.

Max Bögl, a German construction and infrastructure company designed a fully automated urban mobility solution: Transport System Bögl (TSB). It is based on magnetic levitation technology and designed to provide a future-proof public transport for densely populated cities. Max Bögl approached Autodesk Consulting to help finding a quick design solution for their urban mobility systems and build 3D visualization models to communicate the proposed tracks more easily and convincingly. One of the key aspects of the whole design is the light-weight construction of elevated tracks, InfraWorks Bridge Design capabilities with its parametric modelling approach was the perfect answer. This class will highlight the main steps of the solution, the creation of the track and 3D visualization models using Inventor and InfraWorks, including animated parts, generated in 3ds Max to better demonstrate the TSB in action.

Learn how Autodesk® Infrastructure Modeler (AIM) software can enhance your transportation workflows during the conceptual design phase. Not only can you use Autodesk® Infrastructure Modeler to provide eye-catching conceptual visuals in record time, but also you can feed this conceptual model into AutoCAD® Civil 3D® software to proceed with your design. This class focuses on employing Autodesk at the beginning of a transportation project and the interoperability between Autodesk Infrastructure Modeler and Civil 3D. In addition, interoperability options between Autodesk infrastructure Modeler and other products in Autodesk Infrastructure Design Suite Ultimate, such as Autodesk® 3ds Max® Design software, will be discussed. This class will benefit Infrastructure Design Suite users who are interested in getting the most from their suite investment as well as standalone Civil 3D and Autodesk infrastructure Modeler users who want to know more about how these products can interact.

The Transportation Summit is a gathering of leading industry professionals in the world of infrastructure design, construction, and operations focused on best practices and technologies. This year’s Transportation Summit will feature AU Speakers and three consecutive Knowledge Sessions where attendees will hear from industry thought leaders and learn about technologies and best practices. Space is limited. Keynote: Ismaeel Barbur, Virgin Hyperloop One Design Automation: Knowledge Session 1: Wouter Bulens, BIM Manager, TUC Rail Jerome Chamfray, Chief Geo-Digital Engineer, Jacobs Thord Backe, Sr. Director, AEC Generative Design, Autodesk Digitizing Construction: Knowledge Session 2: Jamie Waller, Assistant Director of Construction, Region 3, TNDOT Eric E. Cylwik, Virtual Construction Engineer Senior, Sundt Mohammad Al Ktaishat, Digital Project Delivery lead, AECOM Operations and Maintenance: Knowledge Session 3: Takaya Nagai, Manager, Construction Division, East Japan Railway Company Nigel Stroud, Head of Information Management, Heathrow Airport Liam Gallagher, Director of Information Management, Jacobs

BIM (Building Information Modeling) for infrastructure has rapidly emerged to transform the way transportation and civil infrastructure agencies, organizations, consultants, and contractors plan, design, and construct their projects, and maintain, operate, and manage their assets. BIM and CAD are effective tools for project delivery and they’re even more valuable when integrated with geographic information system (GIS) to provide asset management. This class will provide value-based deployment strategies, best practices, challenges, and case studies of successful BIM-CAD-GIS projects.

Learn how Autodesk® Infrastructure Modeler (AIM) software can enhance your transportation workflows during the design execution phase. In Part 1 of this series, we focused on the classic ability of Autodesk Infrastructure Modeler in the conceptual design space, but what about later in the design? This class will show how a well-established AutoCAD® Civil 3D software model can be fed into Autodesk Infrastructure Modeler to communicate the design visually. In addition, we will discuss interoperability options between Autodesk Infrastructure Modeler and other products within Autodesk Infrastructure Design Suite, such as Autodesk® 3ds Max® Design software. This class will benefit Infrastructure Design Suite users who are interested in getting the most from their suite investment as well as standalone Civil 3D and Autodesk Infrastructure Modeler users who want to know more about how these products can interact.

This presentation will review and demonstrate the Florida Department of Transportation’s (FDOT) software-development effort to implement AutoCAD Civil 3D software for state and consultant designers. We will examine a sampling of custom tools and applications created by FDOT on the Custom Ribbon to increase productivity and plans consistency using AutoCAD Civil 3D software. We will cover the following sample of FDOT applications: FDOT Takeoff Manager—an application that enables users to create automated Quantity reports in Microsoft Excel; FDOT Entity Manager—which enables the user to draw graphical entities with pay item data for Quantity Takeoff (QTO) preattached, or place the pay item data on entities after they are drawn; FDOT Signs—which enables the user to design sign assemblies and place them into the drawing with pay items attached; and Create File—an application that enables users to create files based on discipline and sync with the proper Templates. The newly created files are then saved to the project folder hierarchy. This session features AutoCAD Civil 3D. AIA Approved

Are you using AutoCAD Civil 3D software on a transportation project and still struggling to solve construction earthwork problems? If you fall under either one of these categories, consider attending this class: (1) you have struggled with bridging the gap between the old cross-section methods in CAiCE™ Visual® Transportation software or AutoCAD® Land Desktop software and the new methods in Civil 3D, or (2) you are convinced that Civil 3D cannot handle the cross section solutions and therefore cannot replace the old software already mentioned. In this class, we will use review using Civil 3D as a complete construction quantification tool. We will cover strategizing for success, editing surfaces; editing sections; creating Autodesk® Quantity Takeoff criteria that will work for your situation, creating material quantities; adding earthwork exceptions; and reporting earthwork to Microsoft® Excel®.

Join in on this roundtable discussion where you will get a detailed look into the implementation of Infraworks 360 on three entirely unique transportation projects at various stages of the design process. The first project is a full-blown multi-million dollar roadway, bridge, & drainage project through an active rock quarry that chose to utilize Infraworks 360 at the advanced design stage of the project in order to enhance the public outreach process. The second project will provide a peak into an LRT & BRT 14-mile corridor alternatives analysis where various segments of the corridor were brought to life in Infraworks 360 in order to incite agreement amongst various jurisdictions & stakeholders. Lastly, you will get to see how Infraworks 360 was used to develop 3 concepts for a parking lot and trailhead relocation at popular local hiking destination. These 3 unique real world examples will give you great look into how Infraworks 360 can be utilized in the world of transportation.

This class presents solutions developed for a typical Florida transportation reconstruction project. We will cover how to effectively apply data management principles to an AutoCAD Civil 3D corridor project based on a real project. We will review common questions and concerns expressed by a team that is initiating a Civil 3D software project and step through how to divide a model for multiple users and plan production. Our focus will be in managing data references and multiple corridors.

With 5 domains of operations—air traffic, airside, landside, ground access, and underground facilities—an airport presents both the greatest challenge and the greatest opportunity to benefit from a digital model of the facility and it's functions. When working on airport transportation planning projects, it is paramount to know the most effective ways to create multiple data sources and then connect them with the Infrastructure Design Suite software tools into an integrated model to be used for decision-making. In this overview of AutoCAD Civil 3D software, InfraWorks software, and Navisworks project review software, we will explore the integrated workflows and some critical functions that have been tested and proven in the field

Wisconsin Department of Transportation (WDOT) began using AutoCAD Civil 3D software with the 2010 release. Since that time, more of the department's internal users have switched over and WDOT has switched platforms to 2012 and, more recently, to 2014. As WDOT's use and user base have grown, the department has learned many lessons that have effected how it has moved forward. We will explore these lessons, specifically those that come from the development of standard concepts for use of AutoCAD Civil 3D software and the ways in which those concepts are put into practice in project workflows.

Visualization is a terrific way to improve communication with non-technical stakeholders, but what’s in it for you, the designer? This class will show you three practical workflows that use visualization and validation tools to help make design decisions and create technical exhibits. You have invested time in building a model—now let’s take it to the next level with these core activities: visual impact with photomontages using AutoCAD® Civil 3D® and Autodesk® 3ds Max® Design software, lighting levels with street lighting analysis using Civil 3D and 3ds Max Design, traffic impact analysis using Civil 3D, 3ds Max Design, Autodesk® Infrastructure Modeler software, and Quadstone Paramics (a Pitney Bowes company).