OpenRoads Designer

CAD Training

Bentley Products

CONNECT CAD Basics

OpenRoads Designer

OpenBridge Modeler

Drainage and Utilities

OpenRoads Designer Learning Path

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  [Bentley Learn]

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  [Bentley Learn]

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  [Bentley Learn]

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Course Overviews

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   Microstation Part 1

Course Overview

Part 1 of the Microstation Connect Edition learning path is a self-paced Bentley Learn course that is available to all MDOT CADD users.

This course is a pre-requisite for all other MDOT learning paths

This self-paced Bentley Learn course covers foundational knowledge for use basic Microstation tools as a civil designer. For consultant designers with access to Bentley Learn, this learning path is very similar to the MicroStation CONNECT Edition Learning Path for Civil Designers which is available to all Bentley Learn subscribers. Topics covered include:

1. Introduction to MicroStation Connect Edition
2. Controlling the Display of Designs for Civil Designers
3. Using General Tools in MicroStation Connect Edition for Civil Designers
4. Drawing with MicroStation for Civil Designers
5. Additional Drawing Tools
6. Manipulating and Modifying Elements for Civil Designers
7. Working with Cells for Civil Designers
8. Annotating Designs for Civil Designers

Course Pre-Requisites: This course assumes no previous knowledge of Microstation. There are no pre-requisites for this course. This course is a pre-requisite for all other MDOT learning paths.

Estimated Time to Complete: 32 Hours

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   OpenRoads Designer Part 1

Course Overview

Part 1 of the OpenRoads Designer learning path is a self-paced Bentley Learn course that is available to all MDOT CADD users.

This self-paced Bentley Learn course covers foundational knowledge for how to model a road using the OpenRoads tools. For consultant designers with access to Bentley Learn, this learning path is very similar to 00 – OpenRoads Designer – Roadway Design & Modeling Fundamentals learning path available to all Bentley Learn subscribers. Topics covered include:

1. QuickStart – Navigating the Interface
2. QuickStart for Terrain Display
3. QuickStart for OpenRoads Designer Geometry
4. Using and Editing Templates
5. QuickStart for OpenRoads Designer Corridor Modeling

Course Pre-Requisites: This course assumes a working knowledge of basic Microstation functions. Users should review and complete the following courses prior to taking this course:

1. Microstation Connect Edition Part 1 (Available to MDOT Employees via Bentley Learn)

Estimated Time to Complete: 10 Hours

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   OpenRoads Designer Part 2

Course Dataset: OpenRoads Designer Part 2

Course Overview

Part 2 of the OpenRoads Designer is an MDOT developed course that can be completed either self-paced, or in-person as classes are offered by MDOT. This course is compatible with the versions of OpenRoads Designer and the MDOT Connect Workspace that are currently in production at MDOT.

This 2-day course covers foundational knowledge that is required to complete a roadway model on a MDOT design project. The course is broken down into 5 sections covering the following concepts:

1. Survey Files
2. Horizontal Geometry
3. Vertical Geometry
4. Corridor Modeling
5. Superelevation

Course Pre-Requisites: This course assumes a working knowledge of basic Microstation and OpenRoads Designer functions. Users should review and complete the following courses prior to taking this course:

1. Microstation Connect Edition Part 1 (Available to MDOT Employees via Bentley Learn)
2. OpenRoads Designer Part 1 (Available to all MDOT Employees via Bentley Learn)

Estimated Time to Complete: 14 Hours

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   OpenRoads Designer Part 3

Course Overview

Part 3 of the OpenRoads Designer learning path is a self-paced Bentley Learn course that is available to all MDOT CADD users.

This self-paced Bentley Learn course expands on the foundational knowledge that was learned in part 1 of the MDOT OpenRoads Designer learning path. For consultant designers with access to Bentley Learn, this learning path is very similar to the 01 – OpenRoads Designer – Roadway Design & Modeling – Intermediate learning path available to all Bentley Learn subscribers. Topics covered include:

1. Intersection Design – Horizontal and Vertical Geometry
2. Intersection Design – 3D Model Detailing
3. Defining Template Components and Constraints
4. Defining Template End Conditions
5. Template Triggers and Switches

Course Pre-Requisites: This course assumes a working knowledge of basic Microstation and OpenRoads Designer functions. Users should review and complete the following courses prior to taking this course:

1. Microstation Connect Edition Part 1 (Available to MDOT Employees via Bentley Learn)
2. OpenRoads Designer Part 1 (Available to MDOT Employees via Bentley Learn)

Estimated Time to Complete: 10 Hours

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   OpenRoads Designer Part 4

Course Dataset: Openroads Designer Part 4

Course Overview

Part 4 of the OpenRoads Designer is an MDOT developed course that can be completed either self-paced, or in-person as classes are offered by MDOT. This course is compatible with the current version of OpenRoads Designer in production at MDOT and well as the current version of the MDOT Connect Workspace.

This 2-day course covers intermediate roadway modeling concepts that are required to complete more complex roadway models on a MDOT design project. The course is broken down into 5 sections covering the following concepts:

1. Template Design
2. Model Detailing
3. Modeling Existing Conditions
4. Earthwork and Reporting
5. RID File Creation

Course Pre-Requisites: This course assumes an intermediate knowledge of basic Microstation and OpenRoads Designer functions. Users should review and complete the following courses prior to taking this course:

1. Microstation Connect Edition Part 1 (Available to MDOT Employees via Bentley Learn)
2. OpenRoads Designer Part 1 (Available to MDOT Employees via Bentley Learn)
3. OpenRoads Designer Part 3 (Available to MDOT Employees via Bentley Learn)

Estimated Time to Complete: 14 Hours

Survey Files

Section 1 shows how to use the existing information from the survey RID files.

1.01 Terrain Model Display

1.02 Survey Decorators

1.03 2D Survey File

Horizontal Geometry

Section 2 covers horizontal geometry.

2.01 Importing and Annotating Geometry

2.02 Design NB Alignment

2.03 Add Stationing and Equation

2.04 Designing the Ramp D Alignment

2.05 Designing the Loop Ramp

2.06 Editing Geometry

Vertical Geometry

Section 3 covers vertical geometry.

3.01 Designing the SB Profile

3.02 Create 3D Cut

3.03 Designing the Ramp D Profile

3.04 Using the Table Editor

Corridor Modeling

Section 4 covers Corridor Modeling

4.0 Understanding the Corridor

4.01 Creating the Backbone Corridors

4.02 Viewing the Corridors

4.03 Adding the Right Side Corridors

4.04 Adding the Median Corridor

4.05 Adding Constraints

4.06 Creating the Ramp D Corridor

4.07 Adding Constraints and Key Stations

4.08 End Condition Cleanup

Superelevation

Section 5 covers Superelevation

5.01 Creating Superelevation Sections

5.02 Creating Superelevation Lanes

5.03 Calculating Superelevation - Software Method

5.04 Viewing and Editing Superelevation

5.05 Using the Superelevation Spreadsheet

5.06 Adding Superelevation Manually

5.07 Adding Superelevation to the Corridor

Templates

Section 6 covers Templates

6.01 Creating a New Template Library

6.02 Using the Template Library Organizer

6.03 Editing an Existing Template

6.04 Creating a Mainline Template

6.05 Creating a Ramp Template

6.06 Creating a Median Ditch Template

6.07 Creating a Display Rule

6.08 Active Template Tips

Non-Corridor Modeling

Section 7 covers modeling non linear items such as driveways, ramp terminals and gores

7.01 Gore Modeling

7.02 Edit and Place a Ramp Terminal Civil Cell

7.03 Edit and Place a Driveway Civil Cell

Modeling Existing Materials

Section 8 covers modeling existing materials

8.01 Existing Materials Setup

8.02 Creating Clipped Surfaces

8.03 Creating Existing Materials Templates

8.04 Applying a Surface Template

8.05 Understanding Volume Options

Earthwork and Reporting

Section 9 covers earthwork and reporting

9.01 Creating Cut Fill Volumes

9.02 Earthwork Reporting

9.03 Reviewing the Earthwork in Cross Section

OpenRoads Designer Best Practices

File Federation

It is extremely important to protect the data that we are designing. All CONNECT edition data lives in a DGN and can no longer be recovered from an external source such as a GPK file. Federating files allow allows for maximum efficiency when working with a large design team since there is less risk of two designers needing to access the same file.

In General

• Each alignment should have it's own DGN
• Each alignment should have it's own Superelevation DGN (if required)
• Each corridor should have it's own DGN
• Each designer should work in their own template library

While this does create a lot of DGN files on a large project, container files can be created for each type of file to make accessing or reviewing other data more streamlined.

Corridor Processing Order

Understanding what a corridor is doing it is processing is important because the techniques that are used to create the corridor can have a large impact on processing speed. In general, the corridor is processed in the following order:

1. The template is dropped, and points are placed in their default location as they are currently saved in the template library
2. Parametric constraints are applied; Points are recalculated
3. Horizontal Feature Constraints are applied; Points are recalculated
4. Point Controls are applied; Points are recalculated
5. Display rules are computed
6. End conditions are solved

Some important notes on the above processing order

• You can think of the order of processing as a priority for that specific constraint. For example, if a point control and a parametric constraint are placed on the same point over the same station range, the point control will win. This is because point controls are calculated after parametric constraints.

• The locations of the points are calculated and updated multiple times. Display rules are not calculated until after the location of the points have been established. A complex template with many display rules will process much slower than a simple template because the locations of template points are calculated multiple times even if the component is not visible.

Corridor Modeling Techniques

There are many different effective approaches to corridor modeling. In general, the modeling approach will fall into one of three categories

1. Super Template: One template is used for each corridor. The corridor is manipulated and changed using a series of complex display rules.
2. Simple Templates: Multiple full width templates are created for each typical cross section.
3. Multi-Corridor: Each major component of the corridor is broken into separate corridors. For example, a backbone corridor for the lanes and pavement section, and left and right side corridors for shoulders, curb and gutter, side slopes, and ditches.

It is important to decide the method that will be used to model the project early in the modeling process, as it can be difficult to change gears after a substantial part of the modeling has been completed. The table below has been created to compare the different modeling approaches

Criteria	Super Template	Simple Templates	Multi-Corridor
Number of Design Files	Least	Least	Most
Number of Templates	Least	Most	Middle
Ease of Modifying Templates	Difficult	Easy	Moderate
Corridor Processing	Slowest	Middle	Fastest
Supports Multiple Modelers	No	No	Yes

Items to take into consideration are:

• How many designers will be working on modeling related tasks
• How important is corridor processing speed
  • On a small project, processing speed may not be a consideration as all of the above methods will process fast
• Skill level of the design team
  • While super templates can be difficult to modify, an experienced user may find this easier than managing many templates and corridors
  • How comfortable is the design team with managing many files