
This lesson introduces how to access and synchronize the street map and aerial (or Azure) view in Bentley Open Roads Designer. It begins by guiding you through creating a new file setup supporting 2D empirical training with the appropriate workspace configuration.
Next, the lesson explains the importance of having an active internet connection for Bentley Open Roads to load online map data. Once connected, you'll learn how to access the presentation mode through the main ribbon interface to manipulate the background map.
You will then see how to toggle between street map and aerial views, allowing dynamic control over zooming, panning, and locating specific project areas on the map according to your needs.
Key topics covered in this lecture:
Creating and setting up a new project file for mapping
Ensuring internet connectivity for map loading
Accessing presentation mode in Bentley Open Roads Designer
Setting background map type to street map or aerial (Azure) view
Using zoom, pan, and navigation controls for map interaction
Practical value for civil infrastructure design:
Enables seamless integration of real-world street and aerial imagery in your projects
Provides essential spatial context for planning and design activities
Improves accuracy in site location and geometry positioning
Facilitates efficient project visualization before detailed modeling
By the end of this lecture, you will be able to efficiently set up and switch between street and aerial map views in Bentley Open Roads Designer to support your infrastructure design workflow with accurate spatial references.
In this lecture, you will learn how to manually attach an aerial image within Bentley Open Roads Designer. Building on the previous lesson where map synchronization was covered, this session focuses on adding raster images as a background manually to enhance your model visualization.
The process involves sourcing aerial images from popular map services like Google Maps or Bing Maps. These images can be captured as screenshots or downloaded directly in common raster formats such as JPG or PNG for use in your project.
We will demonstrate how to import these images into Open Roads via the Raster Manager tool, explore placement options, and tweak settings like snappability and locking to optimize your workflow.
Key topics covered in this lecture:
Sources of aerial images and formats supported
Capturing and preparing raster images for use
Using the Raster Manager to attach images
Interactive placement of aerial images in the model
Adjusting raster properties such as snapping and locking
Handling image display settings like levels and colors
Understanding the concept of raster attachment as blocks
Practical value in the course domain:
Enhances project visualization by integrating real-world aerial imagery
Supports accurate site referencing and contextual mapping
Improves workflow flexibility by manual image attachment options
Provides foundational skills for advanced mapping and terrain modeling
After completing this lecture, you will be able to manually attach and control aerial images within Bentley Open Roads Designer to support your infrastructure design projects with better spatial context.
This lecture builds on the previous session by accessing the saved file with a manually attached raster image in Bentley Open Roads Designer. The focus is on preparing the DGN file for upcoming work on horizontal geometry basics.
In this session, you will start by creating reference points that will guide the drawing of horizontal geometry. Using tools from the Geometry tab, particularly circles from the arcs dropdown, you will construct a series of circles with a set radius to mark bends and key positions along a path.
This setup work is essential as it simplifies the next steps where the actual horizontal geometry will be developed, reviewed, edited, and finalized.
Key topics covered in this lecture include:
Opening and setting up the previous session's DGN file with raster image attachment
Accessing and using the Geometry tab in Open Roads Designer
Creating circles with a specified 500 radius as reference points
Placing circles at bends to mark geometry points
Saving the progress and viewing the setup
Practical value of this lesson:
Understanding the initial preparation needed for horizontal geometry design
Learning how to use basic geometric definitions as guides
Applying a structured approach to setting up a design file for further modeling
Familiarizing with the software interface and navigation for geometry creation
After completing this lecture, you will be comfortable with setting up your Open Roads Designer file, creating reference geometry elements, and preparing for more detailed horizontal geometry design in subsequent lessons.
This lecture introduces the fundamentals of creating horizontal geometry within Bentley Open Roads Designer. It builds on the previous session’s saved file, providing a practical hands-on approach to geometry creation by accessing the geometry baseline and using snapping techniques to accurately start lines.
You will learn how to define and lock distances and directions, explore how to adjust geometry by snapping to key points, and understand the usage of element selection tools to edit direction and length dynamically. The lecture also highlights the importance of working within horizontal geometry tools exclusively to avoid confusion with vertical geometry options.
The session focuses on the workflow for constructing basic horizontal lines and curves, incorporating precision editing through the properties panel to fine-tune start points, end points, length, and direction. The importance of anchor points on lines for flexible manipulation is also demonstrated.
Key topics covered in this lecture:
Accessing geometry baseline and snapping techniques
Creating and locking horizontal geometry lines
Editing direction and length using element selection
Using anchor points for geometry adjustment
Understanding geometry properties panel
Distinguishing horizontal from vertical tools
Practical value in civil design and road modeling:
Enables precise creation and modification of road alignments
Supports accuracy in horizontal geometry drafting for infrastructure projects
Improves workflow efficiency by using snapping and locking features
Builds a foundational skill set critical for subsequent advanced geometry work
By the end of this lecture, learners will be able to confidently create and edit basic horizontal geometry lines within the software, setting a strong base for developing complex horizontal and vertical alignments in road design projects.
This lesson completes the horizontal geometry work started in the previous session, focusing on the full creation process within Bentley OpenRoads Designer. The workflow involves using feature definitions and alignment tools to pick and extend geometry baselines efficiently.
Chain commands are introduced to streamline the process, allowing continuous geometry creation without repeatedly specifying start and end points. Various interactive techniques are used to refine the geometry, including applying and adjusting simple arcs with radius parameters.
Lastly, the individual geometry elements are combined into a single complex geometry to make the entire alignment easier to handle as one part, wrapping up the creation phase.
Key topics covered in this lesson:
Completing horizontal geometry using alignment feature definitions
Using chain commands to maintain workflow continuity
Refining geometry with simple arcs and interactive radius adjustments
Applying trimming and extension tools for clean connections
Combining geometry elements into one complex geometry
Using element selection tools to verify geometry components
Saving and closing the project properly
Practical value for civil design and infrastructure projects:
Efficient creation of detailed horizontal alignments for road and infrastructure design
Improved control over geometry editing and refinement for design accuracy
Streamlined workflow using chaining and complex geometry to manage large projects
Foundational skills for working with Bentley OpenRoads Designer’s alignment tools
By the end of this lesson, learners will be able to create a complete horizontal geometry, refine its curves using arcs, and combine multiple elements into one continuous alignment within Bentley OpenRoads Designer, setting the stage for more advanced geometry manipulation.
This lesson focuses on reviewing the horizontal geometry you created in previous sessions using Bentley OpenRoads Designer. You'll open the saved supporting file and explore various methods for examining your geometry in detail.
We'll start by navigating the Home Explorer to access alignments and understand the composition of complex elements such as lines and fillets that make up the horizontal geometry. Then, you'll learn how to generate horizontal geometry reports to analyze these elements systematically.
The session covers practical steps to export and save reports in different file formats, ensuring you can integrate these outputs with your project documentation effectively.
Key topics covered in this lesson:
Opening and navigating the supporting geometry file
Exploring alignments and complex elements properties
Generating horizontal geometry reports
Understanding the horizontal alignment review data
Customizing format and precision settings for reports
Exporting reports as XML and PDF files
Simple tips for managing and saving your geometry data
Practical value in civil design with OpenRoads Designer:
Allows detailed checking and validation of your horizontal geometry
Facilitates export of project-aligned reports for further analysis and sharing
Supports customization of data formats to meet project specifications
Provides effective workflows to document geometry information for stakeholders
By completing this lesson, you'll be able to confidently review your horizontal geometry designs, extract precise reports, and save them in useful formats to support your civil infrastructure projects.
This lecture focuses on extending an existing horizontal geometry by adding lines and curves, showing how to create secondary alignments such as side or service roads connected to a main road.
Using the file from the previous lesson, you'll learn step-by-step how to initiate new geometry elements, apply station offsets, and seamlessly connect additional roads to the primary alignment using Civil Accudraw tools.
We then explore the use of arc tools to create smooth curves between linear elements, including interactive radius adjustments and trimming techniques to perfect bends and corners in your design.
Key topics covered in this lesson:
Adding new horizontal geometry elements (lines and curves)
Creating secondary alignments connected to main roads
Using station offset with the Civil Accudraw tool
Applying arcs between elements with adjustable radii
Trimming and extending geometry for smooth transitions
Partial or full annotation of geometry segments
Converting multiline geometry into complex geometry automatically
Practical value for road design and civil engineering workflows:
Enables the creation of detailed secondary road alignments within primary roadway plans
Improves design accuracy by using station offsets for precise placement
Simplifies editing and refining geometry with arc tools and trimming
Facilitates complex alignment creation through partial or full annotation and complex geometry conversion
By the end of this lesson, you will understand how to efficiently add and finish horizontal geometry by integrating secondary roads, applying curves, and preparing your alignment as a complex entity to further work on in OpenRoads Designer.
This lesson focuses on editing horizontal geometry using the Table Editor in Bentley Open Roads Designer. Unlike previous sessions where geometry was edited piece by piece, this session demonstrates how to edit the entire horizontal alignment collectively in a clear and efficient way.
We start by navigating to the Geometry Tab and accessing the Table Editor under common tools. Once the horizontal alignment is selected, the Table Editor displays detailed information about the lines and arcs, allowing direct editing with synchronized visual feedback of changes.
The Table Editor offers a powerful interface to adjust various aspects such as back tangent length, back spiral length, northing and easting coordinates, radius, arc lengths, bearings, and more. Locks can be applied to certain values to prevent accidental changes, and all edits are previewed graphically before being applied.
Key topics covered in this lecture:
Accessing and navigating the Table Editor
Selecting horizontal alignment elements
Editing geometric parameters including tangent lengths, spirals, arc radius, and bearings
Locking and unlocking values for secure edits
Visual synchronization of tabular edits with graphical view
Applying or discarding edits based on visual impact
Practical value in civil design workflow:
Efficient bulk editing of horizontal geometry for infrastructure projects
Improved accuracy by synchronizing numerical inputs with visual feedback
Quick iteration and fine-tuning of alignments before finalizing changes
Enhanced control over horizontal geometry elements and their relationships
By the end of this session, learners will confidently use the Table Editor to modify horizontal alignments comprehensively, making design adjustments faster and more precise within Bentley Open Roads Designer.
This lecture focuses on creating vertical profiles within Microstation OpenRoads Designer, building on the profile model view generated previously. It guides learners through the process of generating a vertical profile that begins at a specified offset from an existing surface.
The session emphasizes using the Geometry tab to select appropriate vertical section tools, utilizing the Accudraw feature for precision, and activating profile offsets to position the vertical alignment accurately above existing ground surfaces.
Additionally, this lesson explores the creation of vertical geometries with both lines and curves, demonstrating how to achieve smooth transitions through arcs and parabolas, enhancing the design quality of vertical profiles.
Key topics covered in this lecture:
Generating vertical profiles with specified offsets from existing surfaces
Using the Geometry tab and vertical section tools effectively
Employing Accudraw to lock stations and input profile offsets
Creating vertical geometry using lines and arcs
Smoothing vertical profiles with parabolas and curve blending
Utilizing chain commands for efficient geometry creation
Introduction to vertical geometry segmentation and complex geometry creation
Practical value for civil and infrastructure design:
Accurately modeling vertical alignments for road and infrastructure projects
Applying profile offsets to adapt designs above existing terrains
Improving vertical geometry quality with smooth transitions and curves
Optimizing workflow with tools like Accudraw and chain commands
By the end of this lecture, learners will be able to create precise vertical profiles using both linear and curved elements, apply offsets from surfaces, and prepare their designs for further complex vertical geometry editing in subsequent lessons.
This lecture introduces how to open and access the profile model in Bentley OpenRoads Designer to work with vertical geometry. You will learn multiple methods to open the profile model starting from a horizontal geometry element within the project.
We explore three different workflows for accessing the vertical profile: using the contextual toolbar on the horizontal geometry, navigating through the Geometry menu, and accessing alignments via the Explorer tab. These methods offer flexibility depending on your personal preference or project setup.
Once the profile model is opened, you will learn how to place the vertical geometry view in your workspace. Adjustments for screen layout and view placement are also covered to manage your working environment efficiently based on project requirements.
Key topics covered in this lesson
Opening profile model from horizontal geometry toolbar
Using Geometry Vertical menu to access profile model
Accessing profile model from Explorer and alignments dropdown
Placing and adjusting vertical geometry views in the workspace
Options for view maximization and screen fitting
Overview of project workflow for vertical geometry editing
Practical value for civil design with Bentley OpenRoads
Enhances ability to navigate vertical alignment models efficiently
Provides multiple access points for working with vertical geometry
Improves workspace management for better project visualization
Prepares foundation for vertical geometry creation, editing, and modification
By the end of this lesson, you will confidently open and arrange the profile model for vertical geometry editing, setting the groundwork for more complex vertical alignment work in following sessions.
This lesson focuses on editing vertical geometry within Bentley OpenRoads Designer, building on the creation of complex vertical alignments covered previously. You will learn about different editing methods to modify vertical profiles effectively.
We will explore direct input editing and the powerful Table Editor tool, which offers detailed control and experimentation capabilities. Through hands-on guidance, you will see how to adjust parameters such as slopes and curve lengths, and how changes visually affect the vertical profile before finalizing them.
Practical workflow tips are shared, including how to use mouse buttons to access additional options and troubleshoot greyed-out sections in your alignment that restrict direct edits.
Key topics covered in this lecture:
Direct input editing of vertical geometry parameters
Using the Element Selection tool for profile selection
Accessing advanced options via right mouse button
Introduction and use of the Table Editor for vertical profiles
Visualization and experimentation with profile modifications
Applying or discarding changes within the Table Editor
Adjusting slopes and handling design rule warnings (highlighted in red)
Practical value in the OpenRoads Designer context:
Improve precision in vertical alignment editing
Increase productivity by quickly testing and visualizing profile adjustments
Gain confidence in using advanced editing tools to refine road design
Understand constraints and troubleshooting when editing vertical geometry
By the end of this lesson, you will be able to confidently edit vertical geometry using both direct input and the Table Editor, enabling you to create accurate, complex vertical profiles essential for road design projects.
This lesson focuses on creating complex vertical geometry, building upon the concepts introduced in horizontal geometry. You will begin by accessing a previously saved file from the last session to continue your work seamlessly.
Next, you will navigate to the vertical section within the geometry tab to start working specifically with vertical alignments. This structured approach ensures accurate management of vertical geometry components.
We will explore how to use the automatic method to create complex vertical geometry, where selecting the starting point of the profile is as simple as a left mouse click. You'll learn how to assign feature definitions such as Geometry baseline or Geometry temporary according to project requirements, enhancing customization and control.
Key topics covered in this lecture:
Accessing saved project files and preparing to work on vertical geometry
Using the vertical section of the geometry tab effectively
Creating complex vertical geometry automatically by defining profiles
Assigning feature definitions for better project organization
Utilizing selection tools to highlight and review completed profiles
Saving your work and settings to preserve progress
Practical applications in civil design and vertical alignment management:
Developing complex vertical profiles necessary for roadway and infrastructure design
Customizing vertical geometry elements to meet specific project needs
Ensuring accurate visualization and differentiation of vertical alignment components
Efficiently managing and saving design progress for ongoing projects
By the end of this lecture, you will understand how to create and manage complex vertical geometry elements within Bentley OpenRoads Designer, setting a solid foundation for advanced vertical alignment design.
In this lesson, we continue working with the practice file saved during the previous session. We focus on completing an exercise that involves creating end tapers, a key feature used to smoothly transition traffic from one path to another.
We will learn how to apply variable offset taper techniques, starting by setting up offset values precisely and using the provided reference lines to guide our editing. The workflow includes unchecking default offset boxes, selecting the main geometry line, and defining start and end offsets with exact distances to shape the taper accurately.
The lesson also covers the use of the partial offset command, which provides additional control over the taper geometry by allowing selective adjustment over a segment of the path. This approach ensures the taper adapts dynamically when references are modified, enabling real-time changes.
Key topics covered in this lesson:
Opening and managing practice files
Applying variable offset taper with precise start and end values
Using reference lines to control taper shape
Employing the partial offset command for fine adjustments
Real-time adjustment of taper geometry
Saving work and software session management
Practical value for civil design with OpenRoads Designer:
Enhances capabilities for designing smooth traffic transitions
Improves efficiency in editing geometric alignments
Supports dynamic modifications through reference-based editing
Prepares learners for more complex geometry manipulations
By the end of this lecture, learners will be able to confidently create and edit end tapers using both variable and partial offset commands, understanding how to manipulate alignments for practical roadway designs in Bentley OpenRoads Designer.
This lecture introduces a practical exercise focusing on offset geometries, following the basics of vertical and horizontal geometry covered previously. You will work with an attached practice file to apply these concepts in a real-world scenario.
The session guides you through the process of creating offset geometries on one side or both sides of a selected element, adjusting parameters such as offset distance interactively or by input values.
This hands-on practice helps you understand how to efficiently use the horizontal geometry tools within Bentley Open Roads Designer Connect Edition.
Key topics covered in this lesson:
Using the practice file for exercise
Concept of offset and its application in geometry
Creating single-side and both-side offsets on horizontal geometry elements
Adjusting offset parameters interactively and by value input
Using mirroring for symmetrical offsets
Saving the updated file
Practical value for your work:
Apply geometry editing skills in project workflows
Increase precision with offset distances in design
Practice interactive and parameter-based geometry modifications
Understand mirroring options for design symmetry
After completing this exercise, you will be able to confidently create and adjust offset geometries within the software, preparing you for more complex horizontal and vertical geometry tasks in your projects.
This lecture continues from the previous practice session, focusing on creating a cul de sac using Bentley OpenRoads Designer. A cul de sac is defined as a street or passage closed at one end, commonly seen in residential area designs.
Using the practice file, you will learn how to assign feature definitions such as pavements and road edges to begin shaping the geometry. The session guides you through selecting appropriate arcs, defining radius parameters, and connecting elements with smooth curves to form the cul de sac layout.
The workflow emphasizes the use of horizontal geometry tools to create precise and functional street designs. By carefully setting radius values and using options like back frame extension, you will replicate real-world design details required for cul de sacs.
Key topics covered in this lecture:
Assigning feature definitions for pavements and road edges
Creating circular arcs with specified radius
Using arc between elements for smooth curve connections
Applying radius parameters and back frame extensions
Practical steps to construct a closed-end street geometry
Practical value for OpenRoads design and civil infrastructure:
Enables design of cul de sacs compliant with geometric standards
Enhances precision in horizontal geometry editing
Supports efficient workflow using native OpenRoads geometry tools
Prepares learners for subsequent exercises like end tapers creation
By completing this exercise, learners will gain hands-on experience in horizontal geometry design within Bentley OpenRoads, specifically shaping complex street configurations like cul de sacs with controlled radii and connections for professional civil design projects.
In this lesson, you will learn how to access and read an existing terrain model using Bentley Open Roads Designer Connect Edition. The session guides you step-by-step through viewing and exploring different aspects of a terrain model. You will understand how to navigate the terrain visually and make the most of the contextual toolbar designed to provide quick access to terrain features.
This session applies whether you are working with the provided supporting terrain file or your own terrain models. You will become familiar with controlling various terrain visibility options and reading detailed terrain properties.
The workflow involves fitting the view for optimal inspection, zooming into areas of interest, and using the terrain properties panel to understand key terrain attributes.
Key topics covered in this practice exercise:
Accessing an existing terrain model
Using the contextual toolbar for terrain options
Viewing and toggling major and minor contours
Exploring terrain triangles, spots, flow arrows, and high/low points
Inspecting break lines, boundaries, imported contours, and feature spots
Reading terrain properties including points, features, islands, and voids
Opening and interpreting the terrain properties panel
Practical value in civil design and terrain modeling:
Quickly gaining insights into terrain structure for design planning
Analyzing surface characteristics for better project decision-making
Enhancing control over terrain visual elements for clear documentation and presentations
Applying knowledge of terrain properties to improve editing and modification workflows
By completing this exercise, you will confidently read and analyze existing terrain models, enabling you to prepare accurate terrain data for further design and modeling within Open Roads Designer.
This lecture continues from the previously saved practice file and focuses on creating a driveway, which serves as a local road to provide access to a group of buildings.
The lesson guides you step-by-step through the process of designing the driveway geometry using specific Bentley OpenRoads Designer commands, focusing on applying lines at specified angles and distances to model the layout accurately.
It demonstrates how to manipulate feature lines by adjusting skew angles and lengths, essential for precise alignment in infrastructure projects.
Key topics covered in this lesson include:
Accessing and continuing work from the saved practice file
Using the 'line from element' and 'line by angle from element' commands
Defining start points, skew angles, and line lengths for geometry creation
Adjusting feature line properties dynamically
Applying offset commands to create pavements on both sides
Mirroring offsets to ensure symmetrical pavement widths
Identifying the need for curb returns as part of the driveway design
Practical value for civil design and road modeling:
Learn to create accurate driveway geometries within a larger roadway project
Understand how to control and modify feature lines for flexibility in design
Apply offset techniques to produce consistent pavement widths
Gain foundational skills for integrating curb returns in future designs
By the end of this lecture, you will be able to create and adjust driveway alignments using line and offset commands, establishing a solid basis for detailed road network design in Bentley OpenRoads Designer.
This lesson continues with the saved practice file from the previous session to complete the final exercise in this series focused on horizontal and vertical geometry creation.
In this session, you will learn how to create a curb return, which is a critical curve connection where two streets meet at an intersection.
Using Bentley OpenRoads Designer, we will work with the road edge of pavement feature to form smooth curve returns by applying arcs with adjustable radii between roadway elements.
Key topics covered:
Accessing and applying the road edge of pavement feature
Using 'arc between elements' and 'simple arc' tools for curve creation
Setting and adjusting curve radius parameters interactively
Trimming and extending geometry to create precise curve returns
Understanding the relational nature of curves for ongoing adjustments
Practical value in civil design with OpenRoads Designer:
Create accurate curb returns essential for street intersection design
Manipulate curve geometry dynamically for flexible project requirements
Apply practical editing techniques for horizontal alignment refinement
Gain workflow confidence in completing common roadway elements
By the end of this lecture, you will be able to create and modify curb returns efficiently using simple arc commands, enhancing your skill set in designing complex roadway intersections and completing the series of exercises on offset geometries, cul-de-sac, end tapers, and driveways.
This lesson focuses on creating a terrain model using an ASCII file within Bentley OpenRoads Designer. You will start by preparing the necessary data file, converting the provided Excel data into a CSV format. The process involves careful attention to file formatting and proper column selection to ensure the terrain imports correctly.
The lesson guides you step-by-step through the import process, including setting delimiters, specifying the decimal separator, and mapping the essential columns for easting, northing, and elevation. After configuring these import options, you'll save the data as an XML file and import it into your OpenRoads project.
Once the terrain data is imported, the course walks you through adjusting feature definitions and reviewing the generated terrain model. You will learn how to toggle various terrain display properties such as contours, triangles, spots, and boundaries to suit your visualization needs.
Key topics covered in this lesson:
Preparing Excel data for terrain modeling
Converting and saving data as CSV and ASCII files
Importing terrain data with proper delimiters and decimal separators
Saving and using XML files as import input
Adjusting feature definitions post-import
Reviewing and visualizing terrain components
Basic terrain property controls in OpenRoads Designer
Practical value in terrain modeling using Bentley OpenRoads:
Understanding how to leverage ASCII formatted data for terrain creation
Gaining skills to prepare and import external point data for terrain generation
Learning to manipulate terrain display features for detailed analysis and presentation
Acquiring foundational knowledge for handling different terrain creation workflows
By the end of this lecture, you will be able to create a terrain surface using ASCII file data and confidently manage its properties and visualization settings within OpenRoads Designer, setting a solid foundation for more advanced terrain modeling techniques.
In this lesson, you will learn how to create a terrain model directly from a corridor in Bentley OpenRoads Designer. This technique complements earlier methods where terrains were created from ASCII files containing detailed coordinate and elevation data.
The workflow begins with setting up the corridor baseline and naming it appropriately. Then you will define the corridor extent by selecting start and end points, allowing the software to process the corridor model fully, which may take some time depending on your system.
Once the corridor is generated, you will select its elements and convert them into a terrain using the Terrain tab. Key steps include selecting all corridor elements, defining the feature type as boundary, choosing edge methods, and assigning a feature name before finalizing the terrain creation process.
Key topics covered in this lecture:
Creating a new corridor and assigning a baseline
Defining corridor extents and processing the corridor model
Selecting corridor elements for terrain creation
Configuring terrain parameters such as feature type and edge method
Generating terrain from corridor elements
Understanding the relation between the corridor and terrain models
Practical value in civil design and infrastructure modeling:
Efficient terrain modeling from existing corridor designs
Improved terrain accuracy by leveraging corridor geometry
Streamlined workflows integrating corridor and terrain data
Ability to name and organize terrain features effectively
By the end of this lecture, you will be able to transform corridor designs into detailed terrain models, enhancing your project’s spatial data and setting a foundation for further design and analysis tasks in Bentley OpenRoads Designer.
This lecture focuses on creating terrain models using point cloud data within Bentley Open Roads Designer. Point cloud data, stored in POD file format, offers a precise and detailed method for terrain creation based on 3D scanned data.
We start by attaching the POD file through the point cloud tools, then exploring different display styles like intensity, elevation, and classification to visualize the point cloud better. The lesson guides you on filtering the data to focus specifically on ground points, which are essential for accurate terrain modeling.
After setting up the point cloud, the terrain creation process involves selecting feature definitions, importing the data, and customizing edge methods. Once processed, you learn to toggle the visibility of point cloud data and adjust terrain display properties such as contours and spot elevations to analyze the terrain model effectively.
Key topics covered include:
Attaching and managing POD point cloud files in the software
Using various styles to visualize point cloud data
Filtering point cloud data by classification to isolate ground points
Creating terrain from point cloud data with feature definitions and edge methods
Viewing and modifying terrain visualization properties
Orbiting and inspecting terrain in 2D and 3D views
Saving and managing terrain projects
Practical value in terrain modeling:
Enables accurate terrain generation from real-world scanned data
Improves understanding of terrain features through detailed point cloud classifications
Provides skills to manipulate large datasets efficiently for civil design projects
Facilitates terrain analysis through customizable visualization tools
By the end of this lecture, learners will be able to import and use point cloud data to create detailed terrain models, customize terrain visualizations, and manage point cloud files effectively within Bentley Open Roads Designer, enhancing their capability to work with modern geospatial data in infrastructure projects.
In this lecture, you will learn how to create a terrain model using existing elements within Bentley Open Roads Designer. The session demonstrates the step-by-step workflow for selecting elements and generating a terrain from them efficiently.
First, you will access the project file where various elements are displayed on the interface. You'll then select all the elements and navigate to the Terrain creation option specifically using the 'From Elements' method.
The tutorial covers key settings such as defining the feature type (e.g., break line), choosing the feature definition like proposed triangles, and naming the terrain model. You will also see how to confirm each setting and visualize the resulting terrain in both 2D and 3D views.
Key topics covered in this lesson
Selecting and managing elements for terrain creation
Using the 'From Elements' method in terrain modeling
Configuring feature types and definitions for the terrain
Visualizing terrain in 2D and 3D views
Basic workflow to finalize the terrain creation process
Practical value in terrain modeling and design
Ability to convert existing design elements into a terrain surface
Understanding terrain feature configuration important for accurate modeling
Skills to visualize and review terrain models in multiple views
Foundation for further editing and enhancement of terrain surfaces
By the end of this lesson, you will confidently create a terrain model from elements within your project and understand the basic settings required to produce a usable terrain surface for further civil design work.
This lesson focuses on accessing and modifying major and minor contours within a terrain model, a crucial step in terrain analysis and visualization. It builds on the previous work with terrain files, guiding learners through practical adjustments to contour intervals and text frequency to customize the terrain display.
You will use intuitive workflows within Bentley OpenRoads Designer to interact with contour elements through contextual toolbars and property panels. The lesson highlights how multiple approaches can be taken to reach the same goal, emphasizing flexibility in project workflows.
By experimenting with contour intervals and labels, you gain hands-on experience adjusting terrain details to meet project-specific requirements and visualization preferences.
Key topics covered in this lesson:
Accessing saved terrain files with existing contours
Using contextual toolbars and property panels for terrain elements
Adjusting major contour intervals to change terrain visualization
Modifying minor contour intervals for detailed terrain definition
Changing text intervals and label frequency on contours
Hands-on tweaking of contour parameters for better spatial understanding
Practical value in terrain modeling and analysis:
Customizing terrain contours enhances map readability and presentation
Fine-tuning contour intervals adapts terrain details to project scale
Improved control over terrain labels supports clearer communication
Facilitates better terrain data interpretation for design decisions
After completing this lesson, learners will be able to efficiently access and manipulate major and minor terrain contours, tailoring their visualization properties to improve project-specific terrain representations.
In this lesson, we explore the various terrain features available in Bentley Open Roads Designer. Using an attached supporting file, you will learn how to access and interact with terrain features using different methods within the software interface.
The session begins by demonstrating how to select a terrain boundary and access its properties, where multiple feature definitions can be found. You will learn about different terrain feature options, such as existing boundaries, contours, and contours combined with triangles, among others.
Hands-on experimentation with these feature definitions is encouraged throughout the lesson, as it helps deepen your understanding of terrain characteristics and how to manipulate them effectively.
Key topics covered:
Selecting terrain boundaries to access feature properties
Exploring different terrain feature definitions: boundaries, contours, and triangles
Adjusting and viewing terrain feature options in the interface
Understanding how to use feature settings for better terrain visualization
Practical value in terrain modeling:
Gain proficiency in navigating terrain feature options within Open Roads Designer
Enhance ability to analyze and review terrain data based on feature definitions
Develop skills to modify terrain features for accurate design and project visualization
By the end of this lesson, you will understand how to work with terrain features in Open Roads Designer, enabling you to interpret and adjust terrain properties effectively for civil and infrastructure projects.
This lecture focuses on editing a reference terrain within the design environment. Building upon the previous session where a reference terrain was brought into a 2D file, we continue by using that same terrain file or one provided in the supporting materials.
You will learn how to set the terrain as the active model and explore the available editing options using the contextual toolbar. The session demonstrates how to activate terrain properties that are initially grayed out by overriding the symbol settings.
With these settings enabled, you can turn on or off various terrain visualization components such as major and minor contours, triangles, spots, flow arrows, and points of interest including low and high points. Additional elements like break lines, boundaries, imported contours, islands, holes, voids, and feature spots can also be toggled to customize your view of the terrain.
Key topics covered in this lecture include:
Setting the terrain as the active model in the design file
Accessing and using the contextual toolbar for terrain editing
Overriding symbol properties to enable editing of terrain features
Enabling and disabling major and minor contours, and terrain spots
Controlling the visibility of break lines, boundaries, and other terrain features
Using terrain visualization tools for better terrain analysis
Practical value of the skills covered:
Improving the accuracy of terrain presentations through detailed editing
Enhancing visualization to understand terrain characteristics from multiple perspectives
Facilitating better decision-making in civil and infrastructure projects by tailoring terrain displays
Gaining hands-on experience with terrain manipulation tools in Bentley Open Roads Designer
By the end of this lecture, learners will be able to confidently manage and edit reference terrains, enabling improved control over terrain visualization and more precise terrain data manipulation in their projects.
In this lecture, you will learn how to reference an existing terrain model to a new 2D file within Bentley OpenRoads Designer. This essential workflow enables you to reuse terrain data across different project files efficiently.
The process begins by creating a new supporting file where the reference will be added. You will name and save this new file in your preferred directory before loading it for the referencing step.
Once the new 2D file is open, the lecture guides you through accessing the Home tab to locate and use the Reference and Attach Reference tools. You will attach an existing terrain model to this new file by selecting it as a coincident world reference. The referenced terrain preserves all attributes and features from the original model.
Key topics covered in this lecture:
Creating and naming a new 2D supporting file
Using the Home tab ribbons to find referencing tools
Selecting and attaching an existing terrain model as a reference
Understanding the coincident world reference option
Reviewing referenced terrain properties and attributes
Saving and fitting views to finalize the setup
Practical value for terrain modeling and project management:
Efficiently reuse terrain data without duplication
Maintain consistency across multiple project files
Quickly access and review terrain properties in referenced files
Simplify terrain data management in complex workflows
By the end of this lesson, you will understand how to reference existing terrains to a new 2D file, preserving essential data and optimizing your project organization within OpenRoads Designer.
This lecture focuses on the process of labeling terrain spots within Bentley Open Roads Designer. Building on the previous session where terrain contours were labeled, this lesson guides you through the step-by-step workflow to effectively add labels to terrain spots on your model.
Starting with the file from the last lesson, you will select the terrain model and explore options such as choosing text styles from the dropdown menu and setting dimension styles to the standard terrain spot template. The lecture demonstrates how to customize text rotation, alignment, and scaling to ensure labels are positioned clearly and legibly.
The practical workflow involves using mouse clicks to place terrain spot labels, where the first click designates the spot and the second click sets the label’s text position, making the labeling process intuitive and efficient.
Key topics covered in this lecture:
Selecting and preparing the terrain model for labeling
Choosing appropriate text and dimension styles
Customizing text rotation and horizontal attachment settings
Using mouse controls to position labels accurately
Understanding the similarity between terrain spot and contour labeling workflows
Practical value in terrain modeling and GIS workflows:
Accurate and clear labeling of terrain features for improved project documentation
Better organization of terrain data within infrastructure design projects
Increased efficiency through streamlined labeling techniques
Enhanced visual communication of terrain information in plans and reports
By the end of this lecture, you will be able to confidently label terrain spots in your digital terrain models, applying appropriate styles and settings to ensure your labels are clear and well-positioned, complementing your overall terrain analysis and design process.
In this lecture, you will build upon the terrain model you worked on in the previous session. The focus is on learning how to apply various element templates to a specific terrain model within Microstation OpenRoads Designer. You will explore the user interface to select and activate different template visualization options for better terrain representation.
The lesson workflow involves loading the existing terrain file, accessing the contextual toolbar, and diving into the properties of the terrain model. By enabling the override template feature, you will test multiple template options and observe how each affects the visual output of the terrain.
Through experimentation, you will become familiar with templates such as existing boundary, contours, and triangles. Each template offers a unique way to visualize terrain components, ranging from mere boundaries to detailed contour lines and triangulations, helping you understand terrain structure better.
Key topics covered in this lecture
Loading and accessing the terrain model file
Using the properties panel to enable override templates
Exploring different terrain element templates like boundaries, contours, and triangles
Visualizing terrain with major and minor contours
Switching between templates to compare terrain representations
Saving changes to the terrain model file
Practical value for terrain modeling and visualization
Gaining control over terrain visualization techniques using templates
Improving terrain analysis by choosing appropriate element template views
Simplifying terrain model presentations for clearer communication
Saving terrain models with customized visualization settings
By the end of this lecture, you will understand how to apply and manipulate different element templates to enhance the visual interpretation of terrain models. This skill will help you present terrain data more effectively and customize views based on project needs.
In this lesson, you will learn how to effectively label terrain contours in Bentley Open Roads Designer by working with a previously saved terrain file. This practical step is essential for clear visualization and documentation of terrain data in any civil or infrastructure project.
We will begin by loading the terrain model and identifying existing labels before moving on to the contour labeling procedure. The labeling process involves selecting the terrain, choosing annotation options, and applying text alignment settings to contour labels.
You will also explore how to draw lines to define contour label placement, allowing precise control of where labels appear along the terrain contours. This hands-on approach ensures you can adapt the labeling to suit varied project needs.
Key topics covered in this lecture:
Loading and accessing terrain files for labeling
Selecting terrain models for contour labeling
Choosing annotation options: labeling all contours or specific measures
Setting text alignment preferences for contour labels
Using the follow line method to position contour labels accurately
Exploring dimension styles and using default terrain contour styles
Practical value for terrain modeling and design:
Enhance the clarity and communication of terrain data in design projects
Increase efficiency in terrain annotation with straightforward procedures
Gain flexibility in label placement to meet diverse project requirements
Improve final project presentation with professional terrain contour labels
By the end of this session, you will understand how to label terrain contours clearly and effectively, improving your ability to present and analyze terrain models within your infrastructure design workflows.
This lecture focuses on the different edge methods used in terrain modeling within Bentley Open Roads Designer. You will explore how to refine terrain boundaries by applying specific edge methods to enhance your terrain's appearance and functionality.
The session begins by revisiting a previous terrain model and accessing its properties to modify the feature definition and edge methods. You'll observe the effects of selecting different edge methods—specifically the Silver method and the Maximum Triangle Length method—and how these impact the triangulation and boundary of the terrain.
By adjusting these settings, you can control unnecessary lines and triangles in your terrain mesh, optimizing the model according to your project's needs. The lecture also explains the importance of adapting the maximum edge length value based on specific terrain and project requirements.
Key topics covered in this lecture:
Accessing terrain properties and feature definitions
Using the Silver edge method to clean up terrain boundaries
Applying Maximum Triangle Length edge method with adjustable parameters
Comparing effects of different edge methods on terrain triangulation
Customizing edge length based on project needs
Practical applications in terrain modeling:
Improving terrain model accuracy and visual quality
Reducing unnecessary mesh complexity for better performance
Tailoring terrain edges to project-specific requirements
By the end of this lesson, you will understand how to apply and adjust edge methods to refine your terrain models effectively, making them cleaner and better suited for your design and analysis tasks.
This lecture focuses on how to analyze points within terrain models using Bentley OpenRoads Designer. It starts by accessing a prepared file to practice point analysis techniques.
We explore the terrain tab’s analysis options, learning how to measure and interpret the relationship between two points including their elevations, slope, distance, and angle. The process is demonstrated step-by-step to ensure clarity.
Additionally, the lecture covers analyzing individual points, showing how to mark a point to reveal parameters like elevation, slope, and aspect. Various display options for contours, slopes, and triangles help visualize and better understand the terrain features dynamically.
Key topics covered in this lecture:
Accessing and loading terrain files for analysis
Analyzing between two points for elevations and slopes
Using display options for contours, slopes, and triangle visualization
Detailed point analysis with highlight and measurement tools
Adjusting drawing scales for better slope representation
Deleting unwanted elements from the terrain model
Understanding dynamic updates during point selection
Practical value in terrain modeling:
Improves accuracy in interpreting terrain elevations and slopes
Enhances visualization of terrain data for better decision-making
Supports detailed analysis for site planning and design considerations
Facilitates efficient editing and cleanup of terrain elements
By the end of this lesson, learners will be able to confidently analyze individual and paired points within terrain models, interpret their spatial and elevation relationships, and customize visual settings to support precise terrain understanding and project needs.
In this lesson, you will explore the variety of display styles available for terrain visualization within Bentley OpenRoads Designer. Building on previous knowledge about terrain creation, editing, labeling, and point analysis, this session focuses specifically on how to manipulate the visual presentation of terrain data to suit different project needs.
The workflow includes accessing terrain properties and toggling features such as major and minor contours, triangles, and directional arrows. You will also learn to switch between 2D and 3D views to better understand terrain representation. The session then covers the View Attributes panel where the Presentation tab offers multiple display styles to enhance the visual analysis of terrains.
You will see demonstrations of various display options including hidden line, modeling, realistic rendering, sky sphere, illustration modes with and without lighting, smooth shading, shadows, monochrome views, and thematic coloring based on height or slope. Each style provides a unique way to interpret terrain features, with options like hillshade, slope display, transparency, and wireframe modes.
Key topics covered in this lecture:
Accessing terrain properties to customize display elements
Switching between 2D and 3D terrain views
Using the Presentation tab to select display styles
Understanding different terrain visualization modes (hidden line, modeling, illustration)
Working with shadows, sky sphere, monochrome, and thematic color coding
Applying height and slope color coding for terrain analysis
Experimenting with wireframe and transparency settings
Practical value for terrain modeling and analysis:
Enhances terrain visualization by adapting display styles to project requirements
Improves interpretation of terrain features such as contours, slopes, and elevations
Enables better communication of terrain data through thematic and realistic renderings
Supports decision-making by providing multiple perspectives on terrain characteristics
After completing this lesson, you will be able to confidently select and customize the most appropriate display style for your terrain models, improving both the analysis process and presentation quality in your civil infrastructure projects.
This lecture focuses on editing terrain models within Bentley Open Roads Designer. Using the terrain file provided in the supporting materials, you will learn practical techniques to manipulate and refine your terrain data effectively.
Starting from the Terrain tab, you will explore various editing tools that allow you to delete, insert, move, and swap vertices and edges. The interface provides visual aids such as highlighted vertices and lines to ensure precision and ease of use during editing.
Each method lets you directly interact with the terrain's mesh elements—whether it is removing unwanted vertices, adjusting edges, or deleting triangles through specific selections.
Key topics covered in this lesson:
Deleting vertices and edges from the terrain
Swapping lines within the terrain mesh
Inserting new vertices to refine terrain shape
Moving vertices to adjust terrain contours
Deleting triangles by drawing imaginary lines
Utilizing visual cues to confirm edits
Undoing changes for safe experimentation
Practical value for terrain modeling in Open Roads Designer:
Enhancing terrain accuracy by manual mesh adjustments
Improving terrain surface quality for further analysis and modeling
Gaining hands-on skills for efficient terrain editing workflows
Ensuring confidence in making changes with visual feedback and undo capabilities
After completing this lesson, you will be able to confidently edit and refine your terrain models using a variety of tools and techniques, improving the quality and usability of your terrain data in your projects.
This lesson focuses on editing terrain models within Bentley OpenRoads Designer. Using a preloaded terrain file as a reference, you'll learn to access the editing tools and navigate the Terrain tab effectively.
The terrain editing workflow includes several interactive methods to modify vertices, edges, and triangles directly on the model. You'll get hands-on instruction on selecting and deleting specific terrain vertices and edges, as well as learning how to swap edge lines to refine the terrain mesh.
Additional editing capabilities include inserting and moving vertices to reshape surface detail, alongside options to delete triangles using line selection for broader modifications. These editing actions include visual aids, such as highlighted lines and dots, to guide you through each step clearly.
Key topics covered in this lecture:
Accessing the Terrain tab and selecting the Edit Model option
Deleting vertices and edges on the terrain surface
Swapping edges to adjust terrain triangles
Inserting and moving vertices for terrain reshaping
Deleting terrain triangles by drawing lines
Screen fit and session saving techniques
Practical value for terrain modeling:
Enhance precision in terrain surface editing for civil design projects
Utilize multiple terrain modification methods to optimize model accuracy
Understand visual feedback tools that assist in editing actions
Maintain control over terrain adjustment while preserving overall model integrity
By completing this lecture, learners will be able to confidently edit terrain models by manipulating vertices, edges, and triangles using the full suite of editing tools available in Bentley OpenRoads Designer. This foundational skill supports advanced terrain design and preparation for real-world infrastructure modeling.
In this lecture, you will explore the importance of the geographic coordinate system in terrain modeling. Understanding and correctly assigning a geographic coordinate system is crucial for integrating terrains with other design elements like horizontal and vertical geometries or corridors in Bentley Open Roads Designer.
The session begins by demonstrating how to access and verify the coordinate system of a terrain model. You will learn to navigate the Reality Modeling interface to locate the geographic coordinate system settings. The lecture uses a practical example with a terrain file from North Carolina to illustrate this process.
You will also discover how to select and apply coordinate systems from a comprehensive library organized by continents and countries. The process includes using the search feature to find specific codes such as EPSG 3404 for North Carolina, and how to save frequently used coordinate systems to your favorites for easy access in future projects.
Key topics covered in this lecture:
Accessing geographic coordinate system settings in Reality Modeling
Understanding coordinate system metadata including name, description, and source
Navigating the coordinate system library by region and country
Using the search function to find specific geographic codes (e.g., EPSG 3404)
Adding coordinate systems to favorites for project efficiency
Importance of assigning correct geographic coordinate system for terrain alignment
Practical value for terrain and infrastructure design:
Ensures accurate location referencing of terrain data within civil engineering projects
Facilitates seamless integration of terrain with geometries and corridor models
Simplifies managing multiple coordinate systems through favorites for repeated use
Supports precise reality modeling workflows vital for detailed design and analysis
After completing this session, you will understand how to correctly assign and manage geographic coordinate systems in terrain models. This foundational skill will help you maintain spatial accuracy and enhance the quality of terrain integration in your infrastructure design projects.
In this lesson, you will learn the step-by-step process to create a basic corridor using Bentley OpenRoads Designer. Starting with a supporting file containing simple vertical and horizontal geometries, we will guide you through accessing the corridors tab and initiating a new corridor creation.
The workflow includes selecting the appropriate profile element, assigning feature definitions, and naming the corridor baseline. You will then proceed to choose a template from various options including ramps, rural, tunnels, and urban designs, and define the start and end points along with setting intervals to build the corridor.
This introductory tutorial lays the foundation for corridor modeling by explaining how to use key interface elements such as the contextual toolbar and properties panel to view and modify feature definitions and template settings.
Key topics covered in this lecture:
Accessing the corridors tab and creating a new corridor
Locating and defining profile elements and feature definitions
Selecting and applying corridor templates from available categories
Setting corridor start, end points, and intervals
Using the contextual toolbar for corridor and template properties
Saving your completed corridor file
Practical value for infrastructure design professionals:
Learn efficient corridor creation based on existing geometries
Understand template selection to suit different corridor environments
Gain familiarity with corridor editing and property management tools
Establish a workflow for further corridor customization in future lessons
By the end of this lecture, you will be able to confidently create a basic corridor model using design geometries and templates, preparing you for more advanced corridor and template editing techniques covered in subsequent lessons.
This lecture guides you through accessing the dynamic sections of a corridor and reviewing cross section views effectively. Using a file from the previous session or a provided supporting file, you will navigate through the necessary interface options in Bentley OpenRoads Designer.
You will learn how to use the Corridors tab and open the Dynamic Sections pull-down menu to locate the cross section views feature. The workflow includes placing cross section views within any available view box, with a focus on view box number three for demonstration purposes.
After generating the cross section views, the lesson covers how to navigate through different stations along the corridor. Using navigational buttons, you can move step-by-step forward or backward to observe changes in cross sections, visualized by a moving cyan (blue) line indicating the current station.
Key topics covered in this lecture:
Accessing dynamic sections within the corridor.
Opening and placing cross section views in view boxes.
Locating the corridor and selecting view boxes.
Navigating through stations with forward and backward buttons.
Understanding the visual cues for station positions in cross sections.
Practical value for corridor design and analysis:
Enhances ability to visually inspect corridor cross sections.
Enables detailed review at different stations along the corridor.
Supports file management by using saved or provided project files.
Improves understanding of corridor geometry progression.
By the end of this lesson, learners will be able to open and review dynamic cross section views within a corridor, navigate through various stations along the corridor, and interpret visual indicators that represent station positions. This foundational skill is critical for detailed corridor inspection and design refinement workflows in Bentley OpenRoads Designer.
In this lecture, learners will be introduced to the concept of parametric constraints within the context of corridor modeling using Bentley OpenRoads Designer Connect Edition. The focus is on making precise, minor edits to corridor models without the need to alter the original templates or recreate the corridor from scratch. This offers an efficient workflow for refining corridor designs.
The session starts by revisiting a previously saved corridor file and navigating to the corridor editing tools where parametric constraints are located. Learners are guided through the software interface, including loading the corridor sections, cross section views, and the 3D model simultaneously to get a comprehensive visual understanding of the corridor structure from multiple perspectives.
Key technical actions include selecting the corridor section range to apply constraints from start to end stations, choosing specific types of parametric constraints such as pavement depths, and modifying start and stop values to adjust corridor elements. This process demonstrates real-time updates reflected both in the 3D view and the cross section view, helping learners visually confirm their edits immediately.
The instructor emphasizes the practical advantage of using parametric constraints for targeted modifications within specific station ranges, which is invaluable for detailed corridor customization without overhauling the entire model. The lecture lays the groundwork for upcoming practice exercises that will enable learners to apply these editing techniques practically to remove or alter corridor components.
Throughout the session, a methodical approach to adjusting depth values in pavement layers is shown, illustrating how small parameter changes in the editing dialog impact the corridor geometry. This not only advances technical skills but also deepens understanding of how corridor elements correspond to design specifications.
By integrating multiple views—2D, 3D, and cross section—the lecture provides a holistic visualization experience that fosters greater confidence in making precise corridor adjustments using parametric constraints. This approach encourages efficient project workflows and better design accuracy within the Bentley OpenRoads Designer environment.
Key topics covered:
Understanding parametric constraints in corridor editing
Accessing corridor editing tools and interface navigation
Working with 2D, 3D, and cross section views simultaneously
Selecting station ranges for targeted corridor edits
Applying and modifying parametric constraints for pavement depths
Real-time visualization of edits in multiple views
Practical setup for upcoming exercises using parametric constraints
Practical value in civil infrastructure modeling:
Enables precise minor adjustments to corridors without rebuilding
Speeds up design revisions and workflow efficiency
Improves accuracy by direct parameter manipulation
Visual validation through synchronized 2D, 3D, and cross section views
Supports targeted design changes at specific station ranges
Reduces need for template recreations, saving time and effort
Prepares learners for practical corridor design tasks and exercises
After completing this lecture, learners will be able to confidently apply parametric constraints to efficiently modify corridor models in Bentley OpenRoads Designer, leveraging multiple views for better visualization and control. This knowledge equips them to make focused edits that maintain overall corridor integrity, enhancing their corridor design capabilities within infrastructure projects.
This lecture continues the exploration of parametric constraints within Bentley Open Roads Designer, building on concepts introduced in previous sessions. Parametric constraints are essential for controlling design elements dynamically within corridor models, enabling precision and flexibility in civil infrastructure projects. In this lesson, the focus shifts to modifying existing parametric constraints using a dedicated tool known as the Corridor Objects Edit feature.
The session begins by loading a previously saved project file, ensuring learners have access to a practical example reflecting prior work. This continuity facilitates understanding by connecting theory to an actual workflow environment. The supporting file is made available for learners, allowing them to follow along step-by-step as the instructor demonstrates.
Upon opening the file, attention is directed to the Corridors tab where the Corridor Objects tool is located alongside the Edits option. This interface element provides access to the management of parametric constraints bound to corridor features, allowing modifications without rebuilding the entire model. This is a significant productivity enhancement, especially in complex designs requiring iterative adjustments.
Within this tool, the left panel lists all parametric constraints available in the project. For example, specific pavement layers previously defined with starting and stopping depth values can be edited here. The instructor demonstrates changing the depth of 'Pavement 2' back to a value of 0.5 and highlights how these changes immediately update in the cross-section and 3D view. This real-time visual feedback confirms the dynamic nature of these constraints.
On the right side, additional contextual information such as starting and ending station values is displayed, affording the user detailed control over where in the corridor these constraints apply. This granularity is critical for tailoring design elements to specific segments of a road or infrastructure project, ensuring precision in execution.
By the end of this lesson, learners understand that the Corridor Objects tool enhances the efficiency of editing parametric constraints by providing a centralized and interactive interface. It empowers users to refine designs quickly while maintaining alignment with the established corridor framework.
Key topics covered in this lecture:
Review of parametric constraints in corridor models
Loading and working with previously saved corridor files
Accessing the Corridor Objects tool within the Corridors tab
Navigating the dialog box for parameter selection and editing
Editing pavement layer depths using parametric constraints
Real-time updates in cross-sectional and 3D views after edits
Understanding start and end station parameters for constraints
Practical use of Corridor Objects for efficient corridor editing
Practical value in civil design using Open Roads Designer:
Enables dynamic editing of corridor features without complete model rebuild
Facilitates precision design adjustments in pavement and infrastructure layers
Improves workflow efficiency by centralizing constraint edits
Provides immediate visual feedback to validate design changes
Supports detailed control over corridor segments through station parameters
Enhances ability to manage complex corridor geometries parametrically
Reduces risk of errors by maintaining consistent parametric relationships
After completing this lecture, learners will be able to confidently use the Corridor Objects tool to modify parametric constraint edits within their corridor projects, improving their design adaptability and workflow efficiency in Bentley Open Roads Designer.
In this lesson, you will learn the comprehensive process of creating and calculating superelevation sections in Bentley OpenRoads Designer. Superelevation is a critical aspect of road design, involving the banking of a roadway at curves to help vehicles maintain traction and safety. We'll begin by accessing a previously saved design file, providing continuity from the last session and practical application of prior knowledge.
The course guides you through the initial steps of superelevation creation, such as setting up a new superelevation section with a custom name and linking it to alignment by locating it interactively with the mouse. You will specify the starting and ending stations to define the segment of the road under consideration. Locking options for both start and end stations are also demonstrated to ensure precise control over the design limits.
Next, the tutorial explains the rationale behind setting a high minimum tangent length to focus the calculation on a single superelevation section, and it walks you through the decision to defer template assignment until after template exploration. This approach helps in understanding the function and application of templates prior to implementation.
The template creation section unveils the variety of available road templates categorized by different settings such as rural or divided roads. You will see how to select a specific template, such as a two-lane rural road with concrete pavement and an asphalt shoulder, and apply it to create a superelevation lane. Visual markers and color fill options help in identifying lane edges and shoulders, aiding in the intuitive adjustment of these elements.
Following template application, the lesson dives into lane parameter modifications. You will learn how to name lanes, specify lane sides (left or right), set offsets, and adjust widths and slopes dynamically. This detailed manipulation ensures that each lane meets design requirements for safety and comfort.
The calculation of the superelevation is then addressed. The lesson explores the different superelevation rules files, such as the Emax method and runoff length method aligned with AASHTO standards. It encourages using default standards unless you have specific knowledge to customize rules and tables. The interactive interface allows for editing or creating new rate and position tables and managing key parameters like equations, transitions, curve overlap adjustments, and runtime variables.
Once the settings are confirmed, you proceed to calculate the superelevation, review the subtle color variations indicating changes, and fine-tune the slopes and station positions using dynamic inputs and toolbar access. The instructor demonstrates how to undo changes and inspect detailed lane properties for thorough design control. Finally, the lesson concludes with saving the file and closing the modeling session, preparing you for subsequent lessons.
Key topics covered:
Creating a superelevation section and linking it to alignment
Setting start and end stations with locking options
Exploring and applying road templates for superelevation lanes
Editing lane parameters: names, offsets, widths, and slopes
Understanding and choosing superelevation rules files and calculation methods
Customizing rate and position tables, equations, and transitions
Calculating superelevation and interpreting color-coded results
Adjusting slopes and stations with dynamic input tools
Using undo functions and inspecting lane properties for quality control
Saving and closing the workspace after superelevation design
Practical value in the course domain:
Enable precise bank angle design for road curves ensuring vehicle stability
Apply industry-standard superelevation calculation methods aligned with AASHTO
Customize superelevation lanes to meet varied road types and specifications
Use dynamic input and interactive tools to adjust road design parameters efficiently
Gain competence in integrating templates into realistic corridor scenarios
Interpret design feedback visually through color-coded superelevation outputs
Manage and edit superelevation rules to tailor designs for complex projects
Build foundational skills for advanced corridor engineering and road safety modeling
By the end of this lesson, you will fully understand how to create, modify, and calculate superelevation sections within Bentley OpenRoads Designer. You will be capable of applying standard and custom rule sets, managing lane details dynamically, and producing accurate superelevation outputs customized for various road types. This knowledge provides essential expertise for effectively designing safe and functional road corridors.
Open and review the super elevation model alongside the corridor, select elements, and modify left and right lane parameters using dynamic inputs or anchor points for precise adjustments.
In this lecture, we explore the process of generating a comprehensive Superelevation section report using a previously saved file from earlier sessions where the Superelevation section was created, calculated, and reviewed. The file used in this demonstration is attached alongside this video tutorial for your convenience, ensuring you can follow along with the workflow precisely.
After loading the saved file into the software, you will learn how to select the Superelevation element. By carefully positioning the mouse cursor over the Superelevation section, you gain immediate access to the Superelevation report, which plays a crucial role in understanding the design parameters and precise measurements involved in road corridor projects.
The Superelevation data report displays detailed information, starting with station points, cross slopes, point types, and transition types specifically for the left lane. It then progresses to show critical data for the center line at the left edge of pavement, followed by corresponding information for the right lane and finally the center line at the right edge of pavement. This structured report provides a clear breakdown of all the essential elements needed for superelevation analysis.
An important aspect covered in this lesson is the ability to save the generated report in various formats suitable for documentation and further analysis. Formats such as XML, HTML, and Excel are available, and the lecture demonstrates how to select your preferred format, assign a file name, and save the report to a chosen destination on your system.
Additionally, the lecture highlights alternative access to the Superelevation report through the Corridor tab in the software interface. This pathway ensures users have multiple convenient methods to access and retrieve the same detailed superelevation results within their design workflow. Once reviewed, the report can be saved or closed, followed by final saving of the project before ending the session.
This lecture emphasizes practical report generation skills essential for managing and documenting the superelevation components of road corridor designs. The ability to generate, review, and export these reports is fundamental for maintaining accurate engineering records and facilitating project communications.
Key topics covered in this lesson include:
Loading and accessing previously saved superelevation project files
Selecting the superelevation element within the design interface
Generating detailed Superelevation section reports
Interpreting report data: stations, cross slopes, point types, transition types for lanes and pavements
Saving reports in multiple formats such as XML, HTML, and Excel
Accessing reports through the Corridor tab alternative method
Managing report files and project session closure
Practical value for road design and corridor modeling:
Equips learners with techniques to generate essential superelevation documentation
Enables effective review and verification of superelevation parameters
Supports export and sharing of data in widely used digital formats for stakeholder communication
Integrates seamlessly with corridor design workflows enhancing project management
Improves accuracy and reliability in the presentation of design calculations
Aids in compliance with engineering standards through proper documentation
By the end of this lecture, learners will confidently understand how to create and manage superelevation section reports within Bentley OpenRoads Designer. This knowledge empowers users to produce reliable documentation that supports design validation, reporting needs, and collaborative engineering efforts in road corridor projects.
In this lecture, you will learn how to create a custom corridor template from scratch using Bentley OpenRoads Designer. The process begins by setting up a supporting file with a specific workspace, which serves as the foundation for template creation. This approach ensures you work within a consistent environment tailored for imperial units and example data.
The workflow shows how to start with a basic two-lane template, which can then be scaled or modified to more complex projects, such as four-lane roads. The instructor highlights the flexibility of this method, empowering you to adapt the steps to suit different corridor requirements.
To construct the template, you will access the corridor templates panel and initiate a new custom template. Naming and descriptive details help keep your templates organized and easily identifiable. You will learn to manage components effectively by displaying all parts and naming each point relevantly, such as "centerline" or "edge of pavement," which improves clarity when building and editing the template.
The lecture details adding components like surface courses, including asphalt and concrete wearing, specifying thickness, slope, and width. Mirroring components to both sides of the corridor is demonstrated to ensure symmetry in your design. Additionally, key flags like superelevation are introduced but initially left unassigned, keeping the template adaptable for various scenarios.
For enhancing your template, the instructor shows how to include curved components such as gutters, sidewalks with or without buffers, and shoulders, explaining how to position and mirror these elements. This modular component approach allows for quicker construction and easier adjustments. The importance of end conditions, such as cut and fill slopes with specific ratios, is also covered to handle corridor terminations realistically during modeling.
The session further explores adding subsurface layers like subbase using aggregate materials. You will practice chaining points and looping through these components to build continuous layer sections underneath the surface course.
Finally, the lecture covers template validation and troubleshooting. Conflicts such as priority issues between cut and fill slopes are identified and corrected by adjusting priority values, which controls the order of slope applications. Testing your template with different surface slope percentages demonstrates how cut and fill operations behave in actual terrain conditions, offering practical insights for refining your templates.
Key topics covered in this lecture:
Practical value in civil infrastructure design using Microstation OpenRoads:
After completing this session, you will be able to confidently create, customize, and troubleshoot your own corridor templates within Bentley OpenRoads Designer, enhancing your corridor design workflow with precision and efficiency.
This lecture covers the process of clipping corridors in Bentley OpenRoads Designer, a crucial technique for managing overlapping elements in complex infrastructure projects. You will learn how to efficiently access and work with corridor files, focusing on practical file management to ensure smooth workflow.
Starting with a quick overview of opening the relevant supporting files, you will explore both 2D and 3D views to better visualize the corridor and its components, including bridges. The lesson demonstrates how corridor and bridge intersections can be identified and resolved through clipping to avoid conflicts and maintain design clarity.
The step-by-step tutorial guides you through selecting the corridor, identifying the clipping reference, and applying the clipping command. After the clipping is applied, you will verify the changes in 3D view for accuracy and visual confirmation. This approach emphasizes control and precision when adjusting overlapping infrastructure elements.
Key topics covered in this lecture
Accessing and loading corridor files and supporting data
Using 2D and 3D views to analyze corridors and bridges
Selecting corridors and defining clipping references
Applying corridor clipping to resolve overlaps
Visual verification of corridor adjustments in 3D
Saving and closing files appropriately after modifications
Practical value for civil design and infrastructure modeling
Improves management of corridor and bridge overlaps
Enhances clarity of 3D corridor visualizations
Ensures precise edits to complex corridor models
Supports efficient workflow by reducing errors in design
By the end of this lesson, you will confidently perform corridor clipping to manage intersections and overlaps within your projects, improving both design quality and visual presentation. This foundational skill supports more advanced corridor editing and modeling tasks in Bentley OpenRoads Designer.
Welcome to the final project session of the Bentley Open Roads Designer Connect Edition Module 2. This comprehensive practice exercise consolidates all the corridor creation, editing, and advanced design techniques covered so far, providing a hands-on real-world application to enhance your foundational skills in corridor modeling.
In this lesson, you’ll dive deep into the workflow of creating a complete corridor using Bentley Open Roads Designer. Starting with the selection of corridor baselines and defining feature definitions, you will explore how to use template drops to define rural and urban road types, including concrete 2-lane roads with turn lanes. The exercise guides you step-by-step through applying multiple template drops along a corridor alignment, adjusting intervals, and snapping to precise stations to accurately represent complex roadway geometries.
The session also introduces corridor referencing, where you will learn to integrate intersecting roads into the corridor model. This involves adding corridor references at critical intersection points and ramps, which ensures smooth transitions and accurate grading at complex junctions. Techniques for clearing slope and grading conflicts through corridor references and template drop edits are covered, emphasizing the flexibility Bentley Open Roads offers in modeling real-world roadway features.
Parametric constraints play a pivotal role in this practice exercise, enabling dynamic control over corridor design properties such as lane widths, ditch bottoms, and shoulder slopes. You will create parametric constraints by specifying starting and ending stations and assigning changing values that reflect design transitions in the corridor. By observing these changes live in 3D and cross-section views, you gain an integrated understanding of how parametric constraints influence the road design dynamically.
The exercise concludes with exploring corridor reports, where you will access and interpret comprehensive design documentation including component quantities, design input setups, result reports, and superelevation data. These reports are key for project verification, quantity takeoffs, and providing stakeholders with detailed engineering information. Finally, you will experience a virtual 3D drive-through of the corridor using Bentley's advanced visualization tools. This interactive walkthrough allows you to visually assess design elements such as ramps, intersections, and superelevation effects, bringing your project to life.
Throughout this final practice exercise, multiple workflows and technical decisions are demonstrated, showcasing the power and versatility of Bentley Open Roads Designer in managing sophisticated civil infrastructure design challenges. The session reflects on Open Roads' integration of BIM advancements, dynamic modeling, and multi-disciplinary collaboration capabilities, underpinning the software’s role as a leading solution in modern road design projects.
Key Topics Covered:
Corridor creation from baseline and feature definitions
Applying and managing multiple template drops (rural and urban road types)
Using corridor references to integrate intersections and ramps
Editing template drops for slope and grading adjustments
Creating and applying parametric constraints dynamically
Generating detailed corridor reports (quantities, design input, results, superelevation)
Virtual 3D drive-through visualization and camera controls
Project file organization and best practices in Bentley Open Roads
Practical Value in Civil Infrastructure Design:
Develop skills to construct accurate and complex road corridors compliant with engineering standards
Understand how to manage intersecting roads and ramps within a corridor model
Leverage parametric constraints to automate design transitions and ensure consistency
Gain competence in producing comprehensive corridor reports essential for project management
Enhance visualization capabilities for design review and stakeholder communication
Apply best practices in file management and project referencing for efficient workflows
Build confidence to handle real-world roadway projects using Bentley Open Roads Designer
By the end of this practice exercise, learners will have the competence to create a fully featured, dynamic corridor model encompassing all core aspects of road design and visualization. This hands-on session not only solidifies conceptual understanding but also equips you with practical skills to confidently apply Bentley Open Roads Designer in professional civil infrastructure projects.
In this lecture, we explore the key differences between Bentley Open Roads Designer and Autodesk Civil 3D, focusing on their workflows and functionalities. Understanding these distinctions helps users choose the best tool for their civil design projects.
The lesson highlights how Open Roads separates 2D horizontal geometry from 3D components effectively by utilizing external references, making project management smoother compared to Civil 3D’s data shortcut system.
We also cover graphical editing capabilities, dependency creation between profiles and geometries, and how corridor processing varies between the two software. Practical navigation between commands and ease of modifying profiles are emphasized to improve user efficiency.
Key topics covered in this lecture:
Separation of horizontal and vertical geometry in Open Roads vs Civil 3D
Use of external references in Open Roads compared to Civil 3D data shortcuts
Graphical editing and dynamic dependencies between alignments and profiles
Cyclical selection and entity highlighting differences
Corridor creation, modification, and template clipping methods
Preview capabilities when entering command values
Drive-through viewer differences and 3D model handling
Practical value for civil design workflows:
Improved project organization by separating geometry layers and references
More flexible profile and alignment management for design alternatives
Simplified corridor editing and visualization for accurate design review
Enhanced user interface navigation and preview for faster iterations
By the end of this session, learners will better understand how Bentley Open Roads and Autodesk Civil 3D compare in core features and workflow efficiencies, enabling them to leverage Open Roads’ advantages for streamlined infrastructure design projects.
Welcome to this session of Bentley Open Roads where you will learn about the keyboard shortcuts available in the software. This session builds on the previous startup introduction and focuses specifically on how to access and navigate the keyboard shortcut settings through the main interface.
By exploring the keyboard shortcuts, you'll uncover a range of commands mapped from A to Z that enhance your navigation and operation efficiency within Bentley Open Roads. The lesson encourages familiarizing yourself with these shortcuts gradually, highlighting the development of muscle memory over time to boost your workflow speed and precision.
This practical approach makes using the software more intuitive and helps you work more effectively by reducing dependency on mouse clicks and menu searches.
Key topics covered in this lesson:
Accessing keyboard shortcuts via the main ribbon and settings menu
Exploring shortcut categories beginning with letters A through Z
Understanding how expanded shortcuts provide additional command options
Tips on gradual practice instead of memorizing all shortcuts at once
Benefits of using keyboard shortcuts to improve efficiency and accuracy
Practical value for Bentley Open Roads users:
Enhances navigation speed within the Open Roads environment
Reduces repetitive mouse actions, enabling smoother project workflows
Improves precision by enabling quick access to key commands
Supports learning and usage adaptability through muscle memory development
After completing this session, learners will understand how to access, explore, and practice using keyboard shortcuts in Bentley Open Roads, facilitating a more efficient and fluid design process.
This lecture offers a quick overview of Bentley Lumen RT, a powerful real-time visualization software that enables you to bring your design models to life with high-impact, photorealistic visuals. You will get introduced to the basic interface, navigation controls, and essential features to help beginners start creating compelling visualizations.
You will learn how to integrate Bentley Lumen RT with other popular design and CAD software, including MicroStation, Autodesk, Revit, Open Roads, and Open Bridge. The lesson guides you through key workflows such as adding and manipulating 3D objects, adjusting lighting and environmental settings, and using terrain modification tools to enhance your scenes.
Additionally, the lecture covers practical tools for creating animations and videos by capturing multiple viewpoints, helping you communicate your project ideas effectively to stakeholders.
Key topics covered in this lesson:
Introduction to Bentley Lumen RT's user interface and presets
Navigation using mouse buttons and keyboard shortcuts
Lighting, sun position, weather, and atmosphere settings
Terrain editing tools: raising, digging, flattening, and painting
Importing, placing, scaling, rotating, and adjusting 3D objects
Animation and video capture using photo and movie editor
Integration with Bentley software like Open Bridge and Open Roads
Practical value in design visualization:
Create photorealistic and animated visualizations to showcase infrastructure projects
Enhance presentation quality for clients and stakeholders with realistic environments
Use terrain and object editing tools to customize detailed scenes
Import and manipulate existing 3D models for seamless workflow integration
Produce and share compelling videos to illustrate project progress or design concepts
By the end of this lecture, you will understand how to operate Bentley Lumen RT's core features, navigate the interface, customize landscapes, add dynamic elements, and create impactful visual presentations that complement your civil engineering and infrastructure design projects.
This comprehensive course offers an in-depth exploration of Bentley OpenRoads Designer CONNECT Edition, a powerful civil infrastructure design software that integrates legacy products such as InRoads, GEOPAK, and MX. Designed for professionals and learners seeking practical expertise, the course guides you through a structured, hands-on workflow—from fundamental setup and geometry creation to advanced terrain modeling and corridor design.
Beginning with the essentials of interface navigation and aerial data integration, you will learn how to synchronize street maps and aerial views, manage project files, and configure the workspace for efficient civil design. This foundational knowledge prepares you for creating and editing both horizontal and vertical geometries using advanced techniques and practical exercises that simulate real-world civil engineering tasks.
The course deepens your skills by progressing into terrain modeling methods including importing ASCII files, working with corridors, utilizing point cloud data, and manipulating terrain elements. You will acquire competency in modifying contours, labeling terrain data, and applying visualization tools to analyze and refine surface models.
Mastering corridor creation and management is emphasized through detailed demonstrations of parametric constraints, super elevation calculations, custom template design, and corridor clipping. The curriculum culminates in a thorough project integrating all these elements to reinforce your understanding and prepare you for professional application.
Additionally, the course includes practical insights into key differences between Bentley OpenRoads Designer and Autodesk Civil 3D, enhancing your perspective on industry-standard tools. A dedicated segment on Bentley Lumen RT introduces visualization capabilities, teaching you how to navigate scenes, import and manipulate 3D objects, and integrate models for impactful project presentations.
The teaching approach balances theoretical background with actionable workflows, ensuring you gain confidence in using each tool for civil design efficiently. Multiple practice exercises embed learning by doing, making this course ideal for civil engineers, CAD designers, surveyors, and infrastructure planners committed to leveraging Bentley’s ecosystem.
Learning Objectives
By the end of this course, you will be able to:
Create, edit, and analyze horizontal and vertical geometries within Bentley OpenRoads Designer.
Understand and utilize various terrain modeling techniques including ASCII imports and point cloud data.
Build and modify advanced corridors using parametric constraints and custom templates.
Apply super elevation modeling and generate corresponding reports.
Navigate and synchronize aerial and street map views to enhance project visualization.
Employ Bentley Lumen RT for realistic 3D visualization and scene management.
Distinguish the features and workflows of Bentley OpenRoads compared to Autodesk Civil 3D.
Perform editing and labeling of terrain contours and analyze terrain features effectively.
Execute practical exercises covering offset geometries, cul-de-sac, end tapers, driveways, and curb returns.
Who Should Take This Course
Civil engineers engaged in infrastructure design and planning.
CAD designers specializing in civil and road projects.
Surveyors involved in terrain and geometry modeling.
Civil works designers aiming to improve workflows and 3D modeling skills.
Professionals transitioning from other civil design software seeking Bentley OpenRoads expertise.
Construction and infrastructure consultants requiring corridor and terrain modeling knowledge.
Students and professionals interested in modern civil engineering visualization techniques.
Course Structure
Section 1: Getting Started
Introduce Bentley Open Roads Designer basics including map synchronization, manual aerial image attachment, and setting up for geometry work.
Section 2: Horizontal and Vertical Geometry - Advanced
Learn to create, review, edit, and practice horizontal and vertical geometries with practical exercises on geometry editing and complex alignment creation.
Section 3: Terrain - Advanced
Understand terrain creation, editing, and analysis through methods like ASCII files, corridors, point cloud data, and elements with labeling and visualization techniques.
Section 4: CORRIDOR - Advanced
Master corridor creation, editing with parametric constraints, super elevation, custom templates, clipping, and a comprehensive final exercise.
Section 5: Extra Lessons
Explore Bentley Open Roads vs Autodesk Civil 3D, learn keyboard shortcuts, and get an overview of Bentley Lumen RT visualization.
Why Take This Course
This course provides practical, industry-relevant skills essential for efficient civil infrastructure design using Bentley OpenRoads Designer. Understanding advanced geometry creation, terrain modeling, and corridor workflows enhances your ability to produce precise and optimized designs.
By learning terrain import and editing methods alongside corridor parametric constraints and super elevation modeling, you gain comprehensive control over complex projects. The integration of Lumen RT visualization enables you to effectively communicate design intent and improve stakeholder engagement through compelling 3D presentations.
Furthermore, the comparative insights between Bentley OpenRoads and Autodesk Civil 3D empower you with informed software selection knowledge and adaptable workflows suited to diverse project requirements.
Professional Context
In the field of civil engineering and infrastructure development, mastering powerful tools like Bentley OpenRoads Designer connects you with cutting-edge industry practices. This course equips professionals with the capabilities to handle sophisticated road design, terrain analysis, and project visualization, thereby enhancing project quality and efficiency.
With civil infrastructure projects demanding accuracy, efficiency, and clear communication, proficiency in OpenRoads Designer and Lumen RT builds your technical profile and expands your opportunities in engineering firms, design consultancies, and public works departments. This course provides a solid foundation and practical expertise to thrive in such roles.