
Explore installing and setting up Autodesk Robot Structural Analysis Professional, creating a new project, selecting project types (building design, concrete, framed 3D, trusses), and navigating the interface.
Set up your Robot Structural Analysis environment by configuring language, desktop settings, and regional preferences, then tailor unit systems, dimensions, materials, design codes, and load options, saving your defaults.
Model a simply supported beam in robot structural analysis by defining axes, creating a 2d frame, applying self weight and external loads, and interpreting end moments, shear, and deflections.
Model a continuous beam, define axis and supports, apply uniform loads to bars, run calculations, and interpret results such as moment diagrams, reactions, and self-weight effects.
Explore a hands-on example in robot structural analysis software, modeling a beam with supports, applying uniform loads, and reviewing reactions and moments through result diagrams.
Analyze various loads in structural analysis: self weight, uniform loads, and trapezoidal loads. Compare global and local coordinate definitions, and understand load directions, projections, and how bar forces respond.
Learn to model an RC frame in software by defining RC columns and bar sections, drawing the frame, applying self-weight and live loads, and analyzing axial loads and moments.
Learn to model a steel frame, assign steel sections from a library, apply supports and uniform loads, and analyze axial forces and frame results.
Explore frame analysis through practical frame examples, calculating supports, axial forces, and reactions. Visualize shear force and bending moment diagrams for frames and joints.
Learn to select structural elements using rectangle selection, bar and number-based picks, and add or remove items with plus and minus controls, then apply special section shapes.
Learn to control the display of the structural view, rotate and zoom the model, and customize bars and section names, legends by colors, and templates, then tile views in windows.
Model a 2d truss in the software, define upper and lower chords with diagonals, apply loads and fixed supports, and review member forces and reactions.
Practice a truss example in robot structural analysis to determine member forces, set supports, apply loads, and read the analysis results and bar forces for each element.
Define the material for the structural model by setting concrete grade c twenty five and detailing reinforcing bars, including diameters 6, 8, and 10 mm, with stirrups and longitudinal bars.
Model and design a reinforced concrete column in Robot Structural Analysis, defining column geometry and loads, selecting concrete and reinforcement properties, and calculating longitudinal and transverse reinforcement and buckling checks.
Discover typical reinforcement for columns, including selecting bar diameters and materials, configuring dowels and stirrups, setting cover and distribution, and performing and verifying column reinforcement calculations.
Model and design an rc circular column in Robot Structural Analysis by selecting geometry, detailing longitudinal and transverse reinforcement, applying design loads, and reviewing results.
In this L column lecture, learn to create a new column, set geometry and loads, run calculations, view results, and review reinforcement and column drawings.
Model, analyze, and design reinforced concrete RC beams using spans, supports, cross sections, and reinforcement patterns; define loads and view moment and shear diagrams.
Learn to add reinforcement, verify typical reinforcement geometry, configure stirrups and reinforcement bars, set distributions across supports, and run calculations in robot structural analysis.
This RC beam example walks through modeling a rectangular reinforced concrete beam in robot structural analysis, selecting dimensions, spans, concrete grade, applying loads, and determining the required reinforcement area.
Learn to model, design, and optimize an isolated footing, set 2 m by 2 m dimensions, apply loads, select reinforcement (14 and 16), and check soil bearing and punching shear.
Explore modeling, analyzing, and designing a combined footing for a two-column arrangement, including setting foundation dimensions, applying loads, and configuring reinforcement and geometry in the software.
Master solid slab analysis with Robot Structural Analysis: model slab geometry, define materials and sections, apply loads, mesh the model, and read moment results from result maps.
Designs the required reinforcement for slabs, selecting shell and solid reinforcement types, and configuring directions and layout. Calculates deflections, spacing, and bar counts to meet code parameters and project limits.
Design provided reinforcement for rc elements by configuring bars, spacing, and reinforcement parameters in a solid slab, including D12 bars and 25 cm spacing.
Explore beams design in robot structural analysis by determining RC reinforcement, calculating moments and shear, and configuring beam geometry, spans, and support conditions for effective reinforcement patterns.
Explore flat slab analysis, with or without drop panels, addressing punching resistance, interior versus exterior panel behavior, and determine required RC slab reinforcement and deflection under loads.
Perform reduction of forces and moments by modeling supports, fixed connections, and a rectangular 60x60 column in a two-story frame, inputting material parameters and observing reduction values.
Model a flat slab, define column sections and concrete grade c25, apply self weight and live loads, generate load combinations, and review results for column force reductions.
Apply punching analysis in robot structural analysis by defining reinforcement for beams and columns, following design steps, and performing calculations to ensure safe punching areas.
Apply beam and joist design methods in robot structural analysis by calculating depths for solid and continuous spans, assessing spacing, reinforcement, and hollow block topping.
Model and analyze a robot structure using axis definitions, beam sections, materials, and loads; generate analysis models, run load combinations, and interpret moment and shear results in results maps.
Learn curved beam analysis in a 3d frames workflow, set geometry points and parameters, create arcs and bars, define cb 25 50 sections, apply loads, and review results.
Create and adjust a rigid link in a 3d building design, using beams, geometry attributes, and calculations to connect two points.
Compare frames with one beam versus multiple beams in robot structural analysis, define columns and beams, run calculations, and find no difference between one beam and many beams.
In this course,you will learn how to model and analyse many elements in ROBOT STRUCTURAL ANALYSIS PROFFESIONAL
Firstly we will set preferences and job preferences (Design code,combinations,materials)
You will learn how to analyse simply supported beam,continuous beam,frames and truss...
You will learn how to design many reinforced concrete elements(Columns,beam,isolated footing,combined footing)
You will learn how to design reinforced concrete slabs (Solid slab,flat slab and Ribbed slab)