Robot Structural Analysis (Steel Structure)

Define the project's code region and unit system in Autodesk Robot Structural Analysis, choose the American steel code, set language and print options, and switch to metric units.

Define a steel material in robot structural analysis by creating a custom description with elastic modulus and unit weight, then save it to the steel database and reference american standard.

Define grids for a steel structure in robot structural analysis by setting metric dimensions, origin, 16 grid lines in x and y directions with 5 m spacing and 15 m elevation.

Draw anchor columns in the robot steel structure model by selecting wide flange or i-section under the american code, then auto-choose the best section, draw, copy, and group columns.

Learn to model and draw rafters and beams in Robot Structural Analysis, choosing American or European section shapes, and manage columns and trusses with color legend.

Define a 25 m span, 3 m high truss in the hangar by selecting columns, setting moment releases, choosing sections, and dividing the bottom chord into parts.

Define the support for a steel structure in robot steel structures, selecting supports and assigning fixed supports for columns and trusses to resist moments from loads.

Draw rails and top beams for a steel structure, define a new axis, rotate sections, and replicate edits to build a complete structural model.

Learn to draw top c-shaped beams for steel structures using robot structural analysis, create 2-meter nodes, define the c-section, rotate to align perpendicular to the bar, and group members.

Draw a wind-resisting column and connect it to beams in a structural model, define wind directions and axis settings, group elements, and finalize beam connections.

Draw bracing by selecting bracing sections, assigning tension and compression properties to members, and continuing with cladding and preparing for loads, analysis, and design.

Define gladding for a steel structure by choosing one-way or two-way gladding, set the blue axis perpendicular to beams, and emphasize the Z direction for uniform loads.

Identify load types in a steel structure course, listing snow load, roof live load, industrial load, and concentrated loads, and show how they are superimposed on the structure.

Define wind loads in the software by setting wind directions, inputting velocity from the wind speed map, and running a wind loads simulation to review exposure on all elements.

Define load combinations for robot structural analysis (steel structure) using manual and automatic options, and apply wind, snow, live, and other loads to perform analysis and design of structural members.

Learn to define and apply dead and snow loads to a steel structure in robot structural analysis, select surfaces and exclude glazing, then run the calculation for analysis and design.

Learn to create and interpret forces diagrams for steel structures. Review diagram formats and edit the map and diagram descriptions for the view as applied, guiding the design phase.

Define design code parameters for each member—columns, beams, braces, and wind columns—in the robot structural analysis software, then apply buckling and lateral load checks on the Y and Z axes.

Design a group for a site by selecting a section from the database, assigning steel material, and letting the robot calculate and verify the best section combinations.

Design columns in the Robot Structural Analysis (Steel Structure) course by applying the method used for other members, defining the column group and section, and extending to connections and foundations.

Design trusses in robot structural analysis software by selecting groups, choosing top chords, applying sections, running calculations, and evaluating stability before connecting elements.

Design and evaluate steel structure connections using Robot Structural Analysis, manually or automatically, adjusting foundations, plates, bolts, and perimeters to meet codes.

design the concrete foundation for the project, set footing dimensions, input gravity loads, and compute reinforcement to finalize the square foundation design.