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STAAD Command

The document outlines a step-by-step process for modeling a structural frame and bridge analysis using specific dimensions and load cases. It includes instructions for defining materials, applying loads, and running analyses, along with details on concrete and rebar specifications. Additionally, it provides commands for bridge modeling, including load cases and member forces.

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miggimalana
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0% found this document useful (0 votes)
57 views6 pages

STAAD Command

The document outlines a step-by-step process for modeling a structural frame and bridge analysis using specific dimensions and load cases. It includes instructions for defining materials, applying loads, and running analyses, along with details on concrete and rebar specifications. Additionally, it provides commands for bridge modeling, including load cases and member forces.

Uploaded by

miggimalana
Copyright
© © All Rights Reserved
We take content rights seriously. If you suspect this is your content, claim it here.
Available Formats
Download as PDF, TXT or read online on Scribd
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1. Open 11.

Select Load & Definition


 Space
 Add Beam
2. Select Geometry
 Run Structural Wizard
 Select Frame Model
 Choose Bay Frame:
Length – 25
Height – 4.5
Width – 20
No. of Bays length– 5
No. of Bays height – 1
No. of Bays Width – 4 12. Click Ctrl + G
3. Apply  Click Floor
4. Transfer Model
 Add
5. Shift E to check
6. Select General
7. Define
8. Rectangular – Concrete:
Add 1: X
YD – 0.5
ZD – 0.5
Add 2: Y
YD – 0.5
ZD – 0.4
Add 3: Z
YD – 0.45
ZD – 0.35
9. Right Click 3D
10. In Assigning, Click Select on the Main Bar
 Beams Parallel To – X, Y, Z
13. Click the beam of each load and click Associate
14. Click DL in load cases
 Select Floor Load
 Group: 21. For WL +X & -X Type: Add x and -x
CRLOAD = -2.66 22. For WL +Z & -Z Type: Add z and –z
OFFICE LOAD = -1.98 23. Add seismic definitions
15. Click Assign:  UBC 1997
 UNI GY -7. 56 = outer
 UNI GY – 1.98 = interior
16. Click LL in load cases (same process)
17. Ctrl + A
18. Click Geometry
 Translational Repeat

24. para maassign tanang loading sa whole structure, Click CTRL+G


25. Click Select
 Beams Parallel to X and Z
 Highlight then,
 Click Associate
19. Self-weight – assign to view 25. Click View Whole Structure
20. Click Wind Definition 26. Run Analysis
(add picture)  If naay error or warning, Type Perform Analysis sa ubos
 250 kmph 27. Click Foundation Design
 67.5 m  Available load cases highlight all and CLICK Include All
 For windward and
leeward X – 25, 20
 For windward and
leeward Z – 20, 25
 Run to STAAD Foundation
28. Job Set-up
 Create new job
 Highlight available load
cases and click arrow down
 Click create job and the OK
 Input Job Name
29. Concrete and Rebar
 Unit weight of concrete –
23.544 kn/m3
 Bar spacing – 50 mm
 Max bar spacing – 500 mm
 Strength of concrete – 21 kn/m3
 Yield strength of steel – 275.6
 Bar size min. 12 and max. 40
30. Cover and Soil
 Bottom clear over =75 mm
 Unit weight of soil = 18 kn/m
BRIDGE
-bridge analysis
-moving loads
-to make the moment to be maximum will be model only one length
-model only girder

Superimposed Dead Load – total load sa tanang dead load sa ibabaw sa bridge
Sidewalk live load
Design lane load – Ex. Mga graba na nakabutang

Command:

 4 SPAN @ 30m
 Pinned support
 Property: concrete – 1m x 1m
 Loading type of DESIGN LANE LOAD - none
 Assign to view all load
 ADD NEW LOAD CASES  Analysis print: no print
 INPUT  Post print
1. 111 3. 118  Define commands
2. 111 4. 872
5. 87

 CLICK tagsa2 ADD then > with Force input 20


 Click napd tagsa2
pabalik (same
process)
 Sunod kay usahon
silag add sa pikas
with force again
 LOAD List = 7 all
 Add
 Define napd section displacement
 Member forces
 Add all
 Assign to view all

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