
This STAAD Pro course teaches you how to create and analyze building structures using STAAD PRO Connect Edition software. You'll learn to create a model, apply different loads (Dead load, Live Load, Seismic load and wind load), check designs with building codes, and understand the results. It's perfect for civil engineering students and professionals anyone who wants to work in structural design.
The STAAD Pro CONNECT Edition has a user-friendly Graphical User Interface (GUI) that helps users easily build and analyze structural models.
Create a continuous beam in Staad Pro by defining three nodes at (0,0,0), (5,0,0), and (8,0,0) and adding beams between node1-node2 and node2-node3, for five and three meter spans.
Explore types of supports in structural engineering: roller, pin/hinge, fixed, and simple supports, and learn loading patterns such as point, uniformly distributed, triangular or uniformly varying, trapezoidal, and point moment.
Apply a rectangular cross section with a 0.3 m depth and 0.2 m width to a 5 m beam in staad pro using the default concrete property.
Assign Property to 2 Beams Using "Assign to Selected Beams" in STAAD Pro:
Go to the Property tab → Click Define, choose the beam section (e.g., ISMB 250) → Click Add.
Select the two beams in the structure using the Beam Cursor tool.
In the Property window, click the defined section → Choose Assign to Selected Beams → Click Assign.
A message will confirm that the property has been assigned to the selected beams.
Assign beam and column properties in a portal frame by creating two properties: beams 0.3m by 0.2m and columns 0.4m by 0.3m, then apply them to selected beams.
Learn how to assign pin and fixed supports to beams in Staad.pro, using node-based assignments, with practical steps for creating beams, viewing geometry, and applying supports.
Learn to apply an eccentric concentrated load on a beam in Staad.pro, using d1=3 m from the start and d2 offset from the cross-section center, with a -12 kN load.
Apply a uniformly distributed load and a point load on a two-beam model in STAAD PRO Connect Edition, defining geometry, properties, supports, and load cases.
Apply a uniformly distributed load on a partial beam using start and end distances (d1 and d2). Combine with an eccentric point load in a single load case.
Apply trapezoidal, uniformly varying, or linearly varying loads on a beam in staad.pro connect edition, with 6 to 8 kN, define geometry, assign properties, and set fixed and roller supports.
Learn to use the add beam command in STAAD PRO Connect Edition, connecting beams via node to node, midpoint to midpoint, and perpendicular intersection for flexible beam layouts.
Practice four assigning methods in Staad.pro: assign to selected beam, use cursor to assign, assign to edit list, and assign to view, while creating geometry and applying properties to beams.
Learn to use the copy command in Staad.pro to duplicate beams, columns, and nodes using the beam or node cursor, specify direction with UCS, and paste with Ctrl+C and Ctrl+V.
Apply load combinations for dead and live loads per as 456 2000 and as 875 part five, using design and serviceability limits with 1.5 multipliers.
Use the merge beam command to select collinear beams and merge them into a single beam, and apply the break beam command to divide a beam at a node.
Learn how to apply the mirror command in Staad.pro by creating a mirror plane between an original object and its mirrored copy, then use move or copy to finalize.
Learn to use the move command in STAAD.Pro to reposition beams in the x or y direction using cut and paste, and move nodes with the move node option.
Practice translational repeat in STAAD Pro Connect Edition by duplicating bays in x, y, and z directions, adjusting steps and spacings, and using renumber bay and link step.
Analyze a five-meter simply supported beam in Staad.pro to obtain support reactions, shear force, bending moment, and displacement diagrams. Use post-processing to view beam results and generate a pdf report.
Explore post-processing results for a simply supported beam in Staad.pro: visualize displacement, read beam and node displacements in x, y, z, and determine pin and roller support reactions.
View and interpret shear force, bending moment, and stress values for a simply supported beam via post-processing beam results, with fx, fy, fz, mx, my, mz diagrams and tables.
Animate displacement and annotate the values of force, bending moment, and displacement on the force, bending moment, and displacement diagrams, then generate a report with selected parameters and pictures.
Model a continuous beam in Staad.pro, assign fixed, roller, and pin supports, apply six kilonewton concentrated load and a uniformly distributed load, examine displacement, reactions, shear force, bending moment.
Analyze portal frame results, including reactions, shear forces, bending moments, and displacements, for a 4 m by 5 m frame with a 5 kN horizontal and 7.5 kN vertical load.
Create a 3d frame geometry in staad.pro by drawing a top view plan, copying nodes along x and z, translating in y, forming a g+1 frame with 1.5 m foundation.
Assign cross sections to the 3D ground plus one floor frame by applying 0.3m by 0.3m columns and 0.3m by 0.2m beams, then set fixed supports at the bottom nodes.
Assign loads in a 3D portal frame by applying dead loads and uniform forces to outer and inner beams, including parapet and wall weights, using the selected objects view.
Create dead and live load cases and apply floor loads as area loads in kilonewtons per square meter across 3D portal frame from plinth to roof beams.
design a concrete RCC beam and column using Staad.pro, determine top, bottom, and shear reinforcement, and input fc, fy main, and fy secondary parameters.
Analyze and design a G+1 building in Staad.pro by constructing geometry from column layouts, applying properties, supports, and loads, including seismic is 1893, and calculating self-weight for concrete and steel.
Apply dead loads in Staad pro by calculating self-weight of beams and columns, wall and parapet loads, using brick unit weight from 875 part one for accurate beam design.
Apply live or imposed loads in Staad.pro per is 875 part two, assigning room-specific values from 2 to 3 kn/m2 for residential, corridors, stores, and roofs.
Create load combinations for limit state design and limit state of serviceability by pairing dead load with live load, applying 1.5 for design and 1.0 for serviceability, in STAAD Pro.
Learn to generate beam results and schedules in staad pro, detailing two legged stirrups at 95 mm center to center and continuous bottom reinforcement for 200 by 300 mm beams.
Learn to determine column reinforcement in STAAD Pro by selecting columns, choosing maximum reinforcement, and detailing bar sizes, spacing, and column schedules using AutoCAD and design outputs.
Design a two-way slab using an Excel template instead of Staad.pro, input a 2 kn/m2 live load, set clear spans and continuous edge conditions, and verify deflection and shear checks.
Learn to design an isolated foundation using Staad Foundation Advance Connect Edition, covering job setup, load inclusion, material and soil data, footing geometry, and generating detailed drawings and schedules.
.STD File of residential building
Define seismic load in a Staad.pro building by setting seismic definitions, code 1893-2016, city or zone, damping, soil, and apply horizontal loads in x and z before other loads.
Analyze and design a building under seismic load in STAAD Pro Connect Edition, applying dead and live loads, running analysis, and examining beam and column results and reinforcement changes.
Calculate wind load using the 875 part three 2015 code with vb basic wind speed and k1, k2, k3, k4 to determine vz for high-rise buildings, towers, and bridges.
Explore steel structures, their high strength-to-weight ratio and fast construction, using common sections such as t-bar, angle, hollow square/rectangular, wide flange, i-beam, channel, and Staad.pro for design.
A simple truss is a statically determinate pin-jointed structure built from straight two-force members (only axial tension/compression). It’s formed by starting with a triangle and adding triangles one by one.
A simple truss is a statically determinate pin-jointed structure built from straight two-force members (only axial tension/compression). It’s formed by starting with a triangle and adding triangles one by one.
A simple truss is a statically determinate pin-jointed structure built from straight two-force members (only axial tension/compression). It’s formed by starting with a triangle and adding triangles one by one.
A roof truss is a triangulated framework of steel or timber members designed to support roof loads efficiently. It transfers dead loads, live loads, wind, and snow loads safely to the supports.
A roof truss is a triangulated framework of steel or timber members designed to support roof loads efficiently.
This comprehensive course on STAAD Pro CONNECT Edition is designed for civil and structural engineering students, graduates, and professionals who want to master the software from basic modeling to advanced structural analysis and design. The course begins with an introduction to the user interface, coordinate systems, and geometry creation, followed by step-by-step modeling of beams, columns, slabs, and multi-storey structures. ou’ll learn how to assign supports, apply various loads (dead, live, wind, seismic), define load combinations as per IS 875 and IS 1893, and carry out complete analysis.
The course covers design with is 456 2000 and , with real-life examples and exercises. It also includes hands-on practice in assigning material properties, using member specifications, interpreting results, and generating reports.
Advanced topics include design of beams and columns, seismic and wind load application, 3D frame modeling, load cases, and animation of displacement. The course is fully project-based, helping learners gain job-ready skills.
By the end of this course, you’ll confidently use STAAD Pro to design safe, efficient, and code-compliant structures. This course prepares you for job roles in design consultancies, construction firms, and government projects, making you industry-ready with practical and theoretical knowledge. Perfect for beginners as well as those looking to upgrade their structural design skills.