
Prepare the Revit file by separating ground and first-floor elements, aligning origin, and repositioning components to ensure correct level ordering for import and saving.
Create a new Revit file with the metric structure template for robot structural analysis. Set project units to metric and verify wall thickness is 200 mm using AutoCAD.
Set and rename levels in revit, adjust the distance between levels, and offset lines to add or modify levels from ground to foundation.
Import AutoCAD files into Revit via insert > import, set the origin to internal, and preserve color and layers. Place on the ground floor and verify in 3d view.
Learn to create and modify grid lines in Autodesk Revit by using the architecture tab, snapping to midpoints, grouping grids (like abc), and adjusting elbows for a clean grid layout.
Learn to turn off grid, layers, and annotations from an imported AutoCAD plan, adjusting ground floor and ground level views to produce a clearer plan.
Explore configuring 3d visualization in revit: hide unnecessary IDs and annotations, show dimensions, and align ground level and control room views while troubleshooting grid origin issues.
Set the ground level base rule, then use the align command to align columns, beams, and slabs, and lock the result for precise alignment.
Model a concrete column in Revit by selecting structure, choosing a concrete column type, duplicating it, and placing the column; set the base level to foundation or ground floor.
Learn to model a concrete beam in Revit by selecting structure, choosing concrete, duplicating a type, editing to 200 and 300, and placing it in plan and 3D view.
Model the beam at ground level in Revit, adjust views with visual effects, and verify the analytical model shows all elements connected for seamless import to Robot Structural Analysis.
Define the concrete slab by going to structure, selecting the generic option, duplicating the type, naming it lab, and selecting the material from the material window.
Model a ground floor slab in Revit by selecting corners, using the rectangular tool or picking points, finishing the slab, and previewing a realistic view.
Model the staircase collapse and create slabs in two regions, adjusting slab thickness to 200 mm, then add beams and align heights to simulate the staircase structure.
learn to fix overlapping between slabs in Revit by selecting the affected slab or the larger slab, adjusting endpoints or edges, and verifying in plan and analytical views.
Instantiate and slope the staircase slab in Revit by defining ground level start and end points, applying a slope, and offsetting the head height by minus 1700 mm.
Identify gaps in the analytical model not visible in the 3d view, extend magenta lines to join elements, and verify proper load transfer for a correct model.
Rename the base level analytical, the ground level analytical, and the roof analytical names to match the model's levels in the Revit project.
Learn to replicate architectural elements in Revit by selecting the exact components, filtering with view levels and layers, and copying them to the ground level using align to selected levels.
Model a mumty wall in Revit by adding levels, aligning top of stairs, placing columns, and creating slabs and supports, then validate with an analytical view.
Apply boundary conditions by selecting lines in the analyze tab, switch to the analytical model, and apply the support conditions, then remove unused elements and export to global destruction analysis.
Export your model from Revit to Robot for analysis via the analyze tab, using the report structural analysis link and the direct integration with Autodesk for global structure analysis.
Explore basic commands in Robot Structural Analysis to navigate the model, adjust the view with the mouse and scroll wheel, display beams and columns, view panel thickness, and extrude slabs.
Define and manage loads in RSA by adding, deleting, and modifying load cases; create a superimposed load, set its type to dead, adjust, and close.
Apply loads in the RSA by selecting slabs, panels, and beams, defining directions with negative signs, and applying superimposed loads to analyze the structure.
Select the design code and set up meshing to enable load transmission from slabs to beams and columns, then run analysis with the default option to distribute loads across panels.
Define design parameters for beams and columns, apply reinforcement standards, and set calculation parameters in Autodesk Revit and Robot Structural Analysis to prepare for analysis.
Run the analysis by clicking the calculation button or selecting analysis and calculation; view results and confirm the model is free of warnings.
Learn to check the required reinforcement of RC beams and columns by using design > required reinforcement, selecting all members. Inspect bottom reinforcement, distribution type, and column reinforcement results.
Open the result diagram from the results menu, set the parameters to text, and view the bending moment along the building, noting the maximum and minimum values.
Learn to check the provided reinforcement of a concrete column by selecting the column, configuring design parameters, and reviewing calculation results, codes, and column reinforcement details.
Learn to design a reinforced concrete beam in the software by selecting the beam, enabling bars, configuring reinforcement, and running calculations to view beam, shear force, and deflection diagrams.
Select the RC slab panels in Autodesk Revit, open design calculations, and apply the required reinforcement. Check the calculation window for bar count and spacing to finalize reinforcement.
Learn to create and edit load combinations in Autodesk Revit and Robot Structural Analysis using the combination table to design building footing and check punching shear.
Learn to design footings in Robot Structural Analysis by selecting the foundation elements, adjusting slab thickness, applying reinforcement, running automatic calculations, and reviewing results for the footing design.
Explore the outcomes of the voting design for a rectangular foundation, refine geometry and reinforcement using calculation options, and set concrete, longitudinal bars, and soil definition for optimal design.
Learn how to solve the reinforcement problem and fix calculation errors in Robot Structural Analysis, and view the reinforcement arrangement and foundation in the model.
Welcome to this Revit & Robot Structural Analysis Course!
Let's see what we are going to cover in this course:
First of all, we will modify an AutoCAD plan to make it ready for import into Revit. After that, we'll import the AutoCAD file into Revit and focus on the modeling of Reinforced Concrete Elements like Columns, Beams, and Slabs.
We will also delve into advanced modeling of stairs, which is a crucial aspect of structural design.
Following that, we'll export the model to Robot Structural Analysis for further tasks such as Analysis and Design. In Autodesk Robot Structural Analysis, we will analyze and design Beams, Columns, and Slabs using both the Required Reinforcement Method and Provided Reinforcement Method.
We'll also design Slabs and Footings in Robot Structural Analysis, all from a Structural Analysis point of view.
In short: AutoCAD to Revit, and then Revit to Robot Structural Analysis.
All the content in this course is well-organized and presented in a step-by-step manner, making it easy to follow with comprehensive explanations. For example, I've explained the proper settings for the AutoCAD file before exporting it to Revit, ensuring you won't encounter issues in the future. I've also discussed common problems that may arise in Revit during advanced modeling, such as with stairs, and how to solve them efficiently.
I've also addressed issues that you might encounter in Robot Structural Analysis Professional, particularly while designing foundations.
Hope you will enjoy this course!