Robot Structural analysis (Steel structure)

Define and position structural axes in the software by setting x, y, and z coordinates with specific distances, assign axis labels A, B, C, and apply the new axis arrangement.

rotate, zoom, and pan dynamic 3d views of steel structure models using the mouse and view cube, and adjust projections and rotations about x, y, and z axes.

Define steel column sections, set their dimensions and section types, and copy and place multiple columns in a 3d frame to create 18 columns and 36 nodes.

Draw rafters, apply a section shape, copy and repeat bars, and organize them into a named rafters group using copy, select, and rename commands.

Define and draw side rails for robot structural analysis in steel structures, manipulate bar sections in 3D, copy, mirror, rotate by gamma angles, and adjust geometry properties for correct orientation.

Explore creating and configuring wind columns within a Robot Structural Analysis workflow by defining column sections, adjusting positions, rotations, and organizing columns into groups.

Learn to sketch side rails for a steel structure by drawing columns first, placing bars, rotating elements to match 90 and minus 90 degrees, and creating grouped components.

Explore how to model eave beams in robot structural analysis by selecting, editing, and copying beam coordinates, and organizing sections for steel structures.

Learn how to model purlins in a steel structure by creating segments, defining distances, rotating and editing bar positions, and calculating the section angle for proper alignment.

Explore display options in robot structural analysis to visualize wall supports, posts, sections, and materials, adjust colors by member type, and view loads, calculation points, and axes.

Explore bracing concepts in steel structure analysis by defining sections and angles, and manipulating braces and groups for viewing and renaming components.

Explore cladding load distribution in a steel structure and learn how one-way X direction governs load flow across columns and panels.

Define load types, including self weight of all members and snow loads; assign snow and projected loads to each member and adjust values as needed.

Define wind load directions in x positive and y positive, choose velocity or pressure by region, run wind load simulation at 30 m/s, and assign W_X and W_Y to members.

Release elements such as braces, beams, and columns, select braces and side rails, adjust geometry, and click apply and close.

Examine how braces resist loads and distribute them across a panel and beams, using triangular methods to optimize load transfer in steel structures.

Learn how to assign supports to a steel structure model by selecting nodes, applying fixed or other supports, and evaluating stability to avoid instability in the project.

Build a structural analysis model, run the analysis calculation, and read results diagrams for wx, wy, mz, fz, and fx, including displacements and stresses.

the lecture demonstrates generating a group for purlins, opening a new window to view results for four bars and forces, and handling X and Y values during model formation.

Generate and manage load combinations in robot structural analysis using automatic, manual, and simplified options; edit, copy, and apply coefficients to self-weight and other load cases in the combination table.

Design side rails in steel structures by evaluating lateral buckling, restricting flange movement, and verifying member and group designs through combinations and calculations.

Explore bracing design for steel structures by selecting sections, applying buckling checks, and organizing members into groups for roof bracing, with copy design workflows.

Design purlins for steel structures using Poland's section options and design parameters, perform buckling checks of upper and lower flanges, and apply group design and combinations for ultimate service.

Design eave beams for a steel-structure model by selecting sections, performing ultimate and service calculations, and checking buckling of the upper and lower flanges.

Analyze wind columns design by building and modifying a structural model, adjusting bracing sections, and applying steel member design options, while evaluating buckling and section capacity.

Learn practical rafter design for steel structures, choosing design options, assessing lateral buckling, and selecting bracing and IPE sections (such as 330 and 360) through step-by-step calculations.

Design steel columns and members using design options, section selection, and buckling coefficient checks. Compute lambda values and Z values, verify stability, and save the calculations.

Master 2-rafter design in steel structures using Robot Structural Analysis. Model columns and rafters, compute axial forces and k factors, and perform steel member design with software calculations.

Design a beam-beam connection using plates, bolts, and brackets, detailing plate sizes and spacing. Verify bending and compression resistance through structural calculations and export results to excel.

Design and configure a beam-to-column connection in a steel structure model by selecting plates, bolts, brackets, and welds, and compute connection resistance and stiffness to ensure compliance.

Design the base connection between a column and foundation, detailing plate stiffening, welds, dimensions, anchorage, and foundation calculations to finalize a safe structural interface.

Design a food warehouse using a truss and perform axis-based load analysis to set distances and coordinates, then apply the results.

Select and manipulate columns in Robot Structural Analysis software, rotate columns by 180 degrees, edit, copy, and group columns to organize the steel structure model.

Define a truss and identify its upper and lower sections, inserting points and applying angles to assemble the structure.

Group truss members by lower chord, upper chord, posts, and diagonals, assign steel S275, and use edit, move, copy, and naming steps to organize the model.

Learn to model side rails in a steel structure by defining bar sections, setting point coordinates, applying repetitions, adding vertical mirror plate locations, and configuring local axes.

Model purlins in a steel structure by editing section shapes, setting lengths and angles, applying vertical mirroring, adjusting bar directions, and organizing components.

Explore wind columns by selecting, rotating (270 degrees), copying, and grouping bars and side rails, then applying geometry properties.

Define the IP section for eave beams, including selecting and grouping IPs, refreshing selections, and applying basic edits in the steel structure analysis workflow.

Explore bracing design in steel structures with hands-on steps to define the section ce 120x8, move and align members, and group bracing components for structural analysis.

Explore cladding design for a steel structure by drawing cladding rectangles at elevations, managing one-way and two-way load distribution, editing positions, and copying elements to connect elevations.

Define loads in the robot structural analysis for steel structures by setting uniform loads, snow loads, and projected loads. Apply self-weight to all members and check the corrected load tables.

Simulate wind loads at 40 meters per second on a steel frame, generate loads, run the analysis software, and adjust the W and Y parameters to refine the results.

Explore release and supports in robot structural analysis for steel structures, focusing on bracing, fixed and applied supports, and the handling of forces and thrust angles.

Explore structural analysis calculations and stability assessment by modeling member releases, releasing and removing members, and running calculations to observe effects.

Analyze and view the results of calculations for steel structural elements, switch between load combinations, and generate manual combinations to inspect wind, compression, and tension values.

Design purlins and side rails in steel structures by exploring design options, parameters, and calculations for beams, rafters, and related sections. Assess buckling, service conditions, and group design configurations.

Design and verify steel structure components by selecting and applying beam, bracing, and column designs, adjusting options and parameters, and checking buckling and edge conditions.

Design upper and lower chords in steel structures, evaluating buckling, bracing, joints, and member checks to ensure stability and safe deflection under loads.

Design posts and diagonals for steel-frame structures; apply group designs and section angles, perform buckling calculations, and use interpolation analysis to determine member lengths.

Design columns using options and parameters within the software, checking sway and bracing in the column model. Assess total buckling, critical loads, and service displacement to validate steel column designs.

Explore how to assess displacements and perform verification for group 9 in a steel structure, selecting column sections and applying design checks to satisfy ratio and placement criteria.

Designing the base connection for a steel structure, detailing plates, stiffening, and material choices, performing calculations, and exporting the final connection to AutoCAD.