Staad pro connect edition & RCDC to design a RCC Building

Name: Staad pro connect edition & RCDC to design a RCC Building
Rating: 4.5 (29 reviews)

Created bySTRUCTDIVE Technology

Last updated 8/2024

English

English [Auto],

What you'll learn

Design of RCC structure
Design of G+5 RCC structure
Understand staad GUI
How to scheme a building

Course content

7 sections • 44 lectures • 4h 55m total length

Introduction to staad pro connect user interface6:18
Explore the Staad Pro Connect edition user interface, create a new job, set model info, choose analytical, physical, or building models, and progress from structure setup to analysis and design.
Day 2 understanding the grid system in staad3:40
Understand the grid system in Staad by using the beam grid tool to define x y and x z planes, set origin and units, and apply skew or edits.
Day 3 How to model beams8:16
Model beams in STAAD Pro by defining geometry, setting length and spans, and using beam grids, nodes, and add beam options to create and connect members.
Day 4 How to Assign properties4:19
Learn to set up a frame structure in the structure wizard, define materials and concrete shapes, and apply diverse property assignments to beams using edit lists, view, and console methods.
Day 5 Analysis of a simply supported beam5:53
Day 6 Analysis of a Continuous beam3:11
Analyze a three-span continuous beam in Staad pro connect edition, model geometry, apply pinned support and negative gravity loads, run analysis, and review deflection, reactions, bending moments, and shear forces.
Day 7 Analysis of a simply supported slab7:27
Model a simply supported RCC slab in STAAD.Pro connect edition, mesh with quadrilateral elements, assign thickness, apply load, run analysis, and interpret displacement and stress to plan reinforcement.

Day 8 scheming of ground floor5:59
Model the ground floor of an RCC building in Staad Pro Connect Edition, place expansion joints, and design a frame with continuous beams and cantilevers along grid lines.
Day 9 scheming of ground floor7:11
Place and copy ground-floor columns, adjust from 230 by 450 to 30 by 40 if needed, incorporate a shear wall, align beams, and rotate columns toward maximum moment.
Day 10 scheming of first- fifth floor part 1.8:46
Offset grid lines by 1.15, place and trim structural beams, and use center-point copying to create vertical and horizontal members for the first floor, including a cantilever.
Day 11 scheming of first- fifth floor part 24:44
Place columns on the first to fifth floors, join shear walls, copy columns with a reference point, and create a red layer with 0.5 column thickness while adjusting grid lines.
Day 12 checking columns alignment4:17
Use Staad pro connect edition and RCDC to check column alignment on ground and first fifth floors, copy and reposition columns, adjust window conflicts, and create or delete grid lines.
Day 13 first to 5th floor layout9:05
Design the first floor layout in Staad Pro Connect Edition by copying ground floor, aligning columns to cantilever beams, shifting grid lines, and acknowledging centroid paths to minimize slab punching.
Day 14 Roof layout layout.2:05
Copy the second floor to locate water tank, designate roof areas as reinforced concrete slabs, and identify cantilever sections and parapet walls; preview modeling in the next proconnect edition video.

Day 15 staad Ground floor modelling11:02
Model G+5 building in Staad Pro Connect Edition using node-based gridlines, set origin, repeats, and beam sections, place shear walls, and plan pile foundation with a suspended ground floor slab.
Day 16 staad Ground floor modelling8:09
Model the floor in staad pro by drawing slabs, placing beams, and rendering in 3d; apply span-to-depth heuristics to decide two-way versus one-way slabs and set thickness and column properties.
Day 17 staad first floor modelling1.7:04
Model the first floor in staad pro connect edition by copying ground-floor columns, setting a 3.15 m height, deleting extra members, and assigning circular column properties and beam orientation.
Day 18 staad first floor modelling25:07
Copy ground floor beams to the first floor in staad pro, define beam depth 0.45 and width 0.23, and model cantilever and overhanging beams using translational repeat and node translation.
floor load vs plate load.2:26
Compare plate load and floor load, showing plate load distributes via stiffness and discretization, while floor load distributes along lines and dumps loads on beams.
Day 20 staad first floor modelling310:41
Model a first floor in Staad pro connect edition, placing plate loads and modeling slabs and beams, including overhanging cantilever slabs, for a RCC building.
Day 21 2nd floor column.18:44
Model the second floor of a RCC building in Staad pro connect edition, creating continuous and floating columns, applying properties and beta angles, and visualizing the structure in 3D.

Day 22 2nd floor beams11:53
Learn to model RCC beams in Staad Pro Connect Edition by creating and joining beams along grid lines, duplicating and translating them, and preparing a 3D view before slab design.
Day 23 2nd floor beams part 25:12
Design and model beams for a multi-floor RCC frame in Staad Pro Connect Edition, including cantilever slabs, copying and mirroring beams, and coordinating plan and view projections.
Day 24 2nd floor creation.2:21
Draw plates in staad pro connect edition using geometry tab and top view, ensure clockwise orientation and correct node selection, then set plate reference point and copy to final level.
Day 25 3rd-5th floor creation floor creation1:46
Transfer the second floor to the third through fifth floors using a new view, apply translational repeat in the Y direction, assign thickness, and remove slabs on the fourth floor.
Day 26 roof floor creation2:23
Place and refine the roof slab in STAAD.Pro by deleting unused slabs, creating a full axis-aligned slab, removing duplicates, and previewing in 3d before modeling the shear wall.
Day 27 shear wall creation6:39
Model a shear wall in STAAD Pro Connect Edition by creating and copying nodes, applying parametric wall models, and merging meshes to render the 3D structure.
Day 28 shear wall creation part23:21
Learn to assign shear wall thickness in staad pro connect edition using property thickness, and select walls with parallel x, y, or z in 3d rendering.

Day 29 creating supports.1:59
Assign supports in staad pro connect and compare fixed and other support types. Transfer moments to the foundation pin while adjusting load, foundation stiffness, and spring behavior.
Day 30 dead loads5:24
Apply and assign dead loads in staad pro connect for a RCC building, including self weight, partitions, plate loads, and tile finishes, while following eurocode guidance.
Day 31 live load8:46
Apply Eurocode live load for ground floor car park in Staad Pro Connect Edition, using category F with UK national annex value 2.5 and residential values for upper floors.
Day 32 roof live load3:03
Learn to estimate roof live load in staad pro connect by modeling a water-filled roof, calculating 16.7 live load from 25/1.5, and adjusting for architect loads.
Day 33 block wall load.7:35
Calculate block wall load for a RCC building using Staad pro connect edition; derive a 9.32 line load from block density, dimensions, and headroom, and assign dead loads to beams.
Day 34 missing slabs5:53
Explore adding missing slabs in Staad pro connect edition for an RCC building, including geometry selection, mesh generation, load assignment, and preparing for load combinations.
Day 35 meshing slabs3:43
Learn to mesh slabs in staad pro connect edition by generating a split, ten-division quadrilateral mesh and then assign loads to the structure for a 3d rendering view.

Day 36 Loading combo.5:32
Generate euro code load combinations in Staad Pro connect edition by adjusting default factors and using the code load combination generator to assess gravity, wind, and overturning effects.
Day 37 specifications3:22
Review how signing property transfers material to specifications and release moments, shear, and axial loads; adjust offset, reduction factors, and moment of inertia for cantilever torsion.
Day 38 Reorienting beams.3:00
Reorient your beam design workflow by using the advanced concrete designer to model a continuous beam, realign ends to the origin, and adjust beam incidences for proper continuity.
Day 39 analysis and post processing13:00
Perform analysis and post-processing in staad pro connect edition, examining service and ultimate loads, deflections, axial and shear forces, torsional and bending moments, and safe design implications.
Day 40 analysis and post processing part 2.1:38
Perform day 40 analysis and post processing for a cantilever, review results, and adjust slab thickness and reinforcement to manage high stresses before transitioning to advanced concrete designer.

Day 41 ground floor beam design9:57
Day 42 1st floor beam design21:11
Design the first floor beam for an rc building using staad pro connect and rcdc, adjusting beam depth and width, reinforcement, and floating columns to satisfy shear and cantilever requirements.
Day 43 column design.8:58
Design RCC building columns with STAAD.Pro connect edition and RCDC, selecting concrete grade c 3637, cover, and ductile design; analyze and redesign sections to pass.
Day 44 pile cap design14:50
Design the pile foundation and pile cap from soil data, select diameters, apply a safety factor of 3, configure reinforcement and spacing, and input service loads for design summaries.

Requirements

Basic Understanding of structural analysis

Description

STAAD Pro is a sophisticated software program used in civil and structural engineering to analyze and design structures. It is widely used in the design and analysis of various types of structures such as buildings, bridges, towers, tunnels, stadiums, and industrial structures.

The software provides a comprehensive and integrated environment for the modeling, analysis, and design of structural systems. It supports various types of analysis including linear and nonlinear static, dynamic, and modal analysis. It also supports different design codes and standards from around the world.

STAAD Pro allows engineers to create 3D models of structures using various elements such as beams, columns, plates, walls, and shells. The software provides a wide range of tools for modeling and editing these elements, including graphical user interfaces and advanced scripting capabilities. Engineers can also import 3D models from other CAD software and convert them into STAAD Pro models.

One of the key features of STAAD Pro is its ability to automatically generate loads and load combinations based on different design codes and standards. This saves engineers time and effort in the design process, and ensures that the structure is designed to meet the necessary safety and performance requirements.

The software can also perform advanced analysis techniques such as time history analysis, response spectrum analysis, and nonlinear analysis. These techniques are particularly useful in the design of structures that are subject to dynamic loads such as earthquakes, wind, and vibrations.

STAAD Pro provides a range of design checks to ensure that the structure is safe and meets the necessary design requirements. These checks include member sizing, reinforcement detailing, and material optimization. The software can also generate detailed reports that summarize the analysis and design results, providing engineers with a clear and concise overview of the project.

Overall, STAAD Pro is a powerful tool for engineers to analyze and design complex structures efficiently and accurately. Its advanced modeling and analysis capabilities, combined with its comprehensive design checks and reporting features, make it an essential tool for any civil or structural engineering project.

Who this course is for:

Beginners structural engineers

Staad pro connect edition & RCDC to design a RCC Building

What you'll learn

Explore related topics

Course content

Introduction7 lectures • 39min

Scheming of building7 lectures • 42min

Modelling on STAAD pro CE7 lectures • 1hr 3min

Modelling on staad part 27 lectures • 34min

LOADING7 lectures • 36min

Analysis and Post processing5 lectures • 27min

Design of structural elements4 lectures • 55min

Requirements

Description

Who this course is for: