
Explore Civil 3D advanced assemblies and subassemblies, starting with a chord set style, using default subassemblies to solve challenges for those with Civil 3D essentials knowledge, including dual carriageways assemblies.
Learn how to locate, extract, and organize training data for Civil 3D advanced roads, including final drawings, source files, templates, and alignment data.
Create a test drawing from a template, import surface and vertical data, generate a profile from surface with a road design view, and set up sample lines and cross sections.
Explore subassembly codes in civil 3d, build assemblies, and use coding diagrams to label points, links, and shapes. Apply code set styles to control labeling for road design.
Modify assembly code set styles by editing point, link, and shape codes in assembly properties and tool space settings, including magenta cross and hatch adjustments.
Modify corridor appearance in plan with code set styles by configuring corridor properties and feature line styles, then switch between plan and 3d view and manage links.
Modify corridor visuals in cross sections with code set styles to control plan, cross-section, and 3d view display, including points, links, labels, scale, and section labeling.
Learn how to add assembly labels in Civil 3D using fields and objects, select the assembly center line and name, adjust justification and text height, and regenerate to update labels.
Transfer assemblies between drawings using a new tool palette labeled transfer, drag the assembly centerline into the palette, and reuse it in a drawing created from a civil 3d template.
Import a PKT subassembly into the tool palette, choose link or unlink, and set the ETB with a cross gutter on the right side.
Learn to use the generic pavement structure subassembly, link subassemblies to read and transfer parameters, and set width, shift width, slope, and codes to create multi-layer pavements.
Learn to use generic pavement subassemblies to mirror components, create a corridor, manage superelevation and cross slopes, and refine top and datum surfaces with boundaries.
Create a subassembly from a polyline in civil 3d by sketching a polar line, assigning codes for edges, links, and shapes, and rebuilding the corridor for accurate cross sections.
Create a conditional cut or fill subassembly in Civil 3D, adding shallow and deep cuts, low and high fills, sidewalks, shoulders, drains, and guardrails aligned to a target surface.
Specify testing points for conditional cut or fill subassemblies in Civil 3D, offset from the hinge point, and adjust slope, link codes, and daylight boundaries for accurate cross sections.
Explore how to use the stripping pavement subassembly for topsoil stripping in Civil 3D, test cut and fill conditions, set stripping depth, and compute quantities from the stripping surface.
Learn to model parking in a Civil 3D advanced roads corridor with a conditional horizontal target subassembly, creating parking and curb on left and right sides.
Master conditional horizontal targets for parking, using shoulder sub elevation and superelevation, part two, to match cross slopes with the center line and road edge.
Explore building a channel using generic link subassemblies and elevation targets in Civil 3D, including setting link width and slope, V channel details, and corridor targeting for accurate cross sections.
Create road reserve automatically with the link offset on surface subassembly in a corridor, set left and right offsets and point codes, then adjust sample lines and update section views.
Use daylight max width subassembly and daylight max offset subassembly to keep the tow line within the road reserve, adjust the left offset, and rebuild the corridor.
Learn how the lane elevation AOR subassembly uses axis of rotation and pivot points inside or outside the curve to control superelevation in a road corridor.
Extend road widening using the overlay widen match slope one subassembly to match existing cross slope. Build a corridor with sample lines, targets, and section views, then troubleshoot audit issues.
Learn to model a dual carriageway in Civil 3D by configuring lanes with superelevation pivots at the inside edges, using divided planar roads, subassemblies, and median-based elevation testing.
Modify dual carriageway assemblies to place superelevation pivots at lane centerlines, adjust lane inside and outside attachments, and rebuild the corridor to apply planar or crowned elevations.
Explore lane outside super varying width subassembly shortcomings, including layer code gaps when more than four layers, inside vs outside shift widths, and options with subassembly composer or custom programming.
Explore using the generic pavement structure subassembly for dual carriageways, configuring multiple layers with widths and cross slopes driven by the upper layer, including inside/outside superelevation.
Design a median with shoulders and channel in Civil 3D by adjusting sub elevation and superelevation across the alignment, then attach marked points and median subassemblies.
Explore creating a paved median with curves in Civil 3D advanced roads by configuring centerline, mark points, and link to mark point subassemblies, while adjusting width and slope.
Set median and lane widening in Civil 3D using offset alignments and MTW codes, apply targets, and rebuild the corridor to verify plan and section elevations.
Create and compare standard and offset assemblies within a Civil 3D corridor, defining offset alignments, widening, and cross slopes perpendicular to offset alignments to model precise road geometry.
Discover when to use standard subassemblies, Subassembly Composer, or programmatic development in Civil 3D roads, and explore creating point link shapes, advanced geometries, and flowchart sequences.
Discover new tips and tricks for Autodesk Civil 3D advanced roads and apply them to real projects, easing your Civil 3D journey.
In this course, we will dive deeper into Civil 3D assemblies and subassemblies, building on essentials knowledge to elevate your skills.
We’ll start by exploring subassembly codes, a key concept for understanding subassemblies in depth. From there, we’ll modify code set styles to customize subassembly appearance in the assembly mode. We will also use code set styles to adjust corridor appearance in both plan views and cross-sections.
Understanding how to label assemblies or copy them between drawings is another valuable skill we’ll cover. Additionally, we’ll address how to import subassemblies in PKT file format into Toolpalettes, enabling you to incorporate external subassemblies seamlessly into your projects.
The course then transitions to real-world design challenges, where you’ll learn practical solutions using specific subassemblies. Key topics include:
Linking subassembly parameters to other subassemblies
Creating subassemblies from polylines
Using conditional cut or fill subassemblies
Leveraging horizontal target subassemblies for advanced corridor modeling, such as designing parking along a roadway
Exploring various methods to model channels using generic links and comparing outcomes (e.g., holding slope & adjusting width vs. adjusting slope & holding width)
Efficiently displaying dynamic road reserves in cross-sections
Extending layerworks and calculating the cross slope of existing roads
We’ll also examine dual carriageway assemblies with different median types and explore various superelevation options, including a detailed explanation of the superelevation axis of rotation (AOR).
The course also addresses corridor widening and the challenges related to measuring road width and slope perpendicularly to the road centerline. A potential solution using the assembly offset feature is explored and presented.
This course is designed for those who are already familiar with the essentials of Civil 3D and are looking to deepen their expertise. To round things out, we’ll share numerous tips and tricks throughout the course to streamline your workflows and make working with Civil 3D easier and more efficient.