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http://www.iaeme.com/IJCIET/index.
International Journal of Civil Engineering and Technology (IJCIET)Volume 8, Issue 5, May 2017, pp.
Available online at http://www.iaeme.com/IJCIET/issues.
ISSN Print: 0976-6308 and ISSN Online: 0976
© IAEME Publication
ANALYSIS AND
Final year B.Tech, Department of Civil Engineering K L University,
Final year B.Tech, Department of Civil Engineering K L University,
Final year B.Tech, Department of Civil Engineering K L University,
Assistant Professor, Department of Civil Engineering K L University, A.P., India
ABSTRACT
This paper presents (G+4)
considered 23.39m * 8.72m
earthquake using ETABS, Software used for analyse auditorium, residential and
industrial structure and this
the building at the seismic zone
Shear force, Max, Min Bending moments, Max, Min storey displacements.
Key words: Seismic analysis
Cite this Article: S.Venugopal, K.Dileep Kumar, Shubham Singh and
N.Lingeshwaran Analysis and Design of A (G+4) Building
Civil Engineering and Technology
http://www.iaeme.com/IJCIET/issues.asp?JType=IJCIET&VType=8&IType=5
1. PROJECT DETAILS
1. Type of the building: Residential
2. Shape of the building: Regular (
3. No. of stories: (G+4)
4. Type of wall: Brick wall
5. Height of stories: 3m
2. INTRODUCTION
Due to increasing in the population constructing number of stories in present dec
leads to the structure analysed as wind and earthquake
IJCIET/index.asp 260 [email protected]
International Journal of Civil Engineering and Technology (IJCIET) 2017, pp.260–266, Article ID: IJCIET_08_05_029
http://www.iaeme.com/IJCIET/issues.asp?JType=IJCIET&VType=8&IType=5
6308 and ISSN Online: 0976-6316
Scopus Indexed
ANALYSIS AND DESIGN OF A (G+4) BUILDI
S.Venugopal
.Tech, Department of Civil Engineering K L University,
K.Dileep Kumar
.Tech, Department of Civil Engineering K L University,
Shubham Singh
.Tech, Department of Civil Engineering K L University,
N.Lingeshwaran
Assistant Professor, Department of Civil Engineering K L University, A.P., India
presents (G+4) Storey RCC Moment resist Framed building,
considered 23.39m * 8.72m analysed and designed with lateral loading effect of
ABS, Software used for analyse auditorium, residential and
his live project is mainly deals with structural behaviours of
seismic zone IV and medium soil condition, To find the
Shear force, Max, Min Bending moments, Max, Min storey displacements.
eismic analysis, Plan Complexity, Structural designing and d
S.Venugopal, K.Dileep Kumar, Shubham Singh and
N.Lingeshwaran Analysis and Design of A (G+4) Building. International
Civil Engineering and Technology, 8(5), 2017, pp. 260–266.
http://www.iaeme.com/IJCIET/issues.asp?JType=IJCIET&VType=8&IType=5
PROJECT DETAILS
esidential
egular (rectangular)
Due to increasing in the population constructing number of stories in present dec
analysed as wind and earthquake is need in present scenario, the
asp?JType=IJCIET&VType=8&IType=5
BUILDING
.Tech, Department of Civil Engineering K L University, A.P., India.
.Tech, Department of Civil Engineering K L University, A.P., India.
.Tech, Department of Civil Engineering K L University, A.P., India.
Assistant Professor, Department of Civil Engineering K L University, A.P., India
Framed building,
analysed and designed with lateral loading effect of
ABS, Software used for analyse auditorium, residential and
mainly deals with structural behaviours of
o find the Max, Min
Shear force, Max, Min Bending moments, Max, Min storey displacements.
designing and detailing.
S.Venugopal, K.Dileep Kumar, Shubham Singh and
International Journal of
http://www.iaeme.com/IJCIET/issues.asp?JType=IJCIET&VType=8&IType=5
Due to increasing in the population constructing number of stories in present decades which
is need in present scenario, the
http://www.iaeme.com/IJCIET/index.
detailing the beam, column, footing as per IS 456:2000 and compare the res
manually and excel sheets. Structure
directions due to the ground motions and the analyses parts to find the basic needs of SFD
and BMD and to resists the earthquake
3. ARCHITECTURAL LAYOUT
4. GENERAL CONDITIONS O
• Area: Karnataka
• Soil type: Medium stiff
• Temperature: 29ºC
• Humidity: 18-22%
• Topography: 600 –
• Zone: IV
• Zone factor: 0.24
• Response Reduction Factor, R: 3.0 (Ordinary RC moment
• A four-floor Residential building of symmetrical plan.
Analysis and Design of A (G+4) Building
IJCIET/index.asp 261 [email protected]
tailing the beam, column, footing as per IS 456:2000 and compare the res
manually and excel sheets. Structure behaviours means lateral displacement in X, Y, Z
directions due to the ground motions and the analyses parts to find the basic needs of SFD
resists the earthquake resistant design of structures. This project
ARCHITECTURAL LAYOUT
Figure 1 Plan
GENERAL CONDITIONS OF AREA OF CONSTRUCTI
Medium stiff soil
29ºC
22%
– 900 Meters
Response Reduction Factor, R: 3.0 (Ordinary RC moment-resisting frame)
floor Residential building of symmetrical plan.
tailing the beam, column, footing as per IS 456:2000 and compare the results with
behaviours means lateral displacement in X, Y, Z
directions due to the ground motions and the analyses parts to find the basic needs of SFD
ctures. This project
F AREA OF CONSTRUCTION
resisting frame)
S.Venugopal, K.Dileep Kumar, Shubham Singh and N.Lingeshwaran
http://www.iaeme.com/IJCIET/index.asp 262 [email protected]
5. DESIGN PROCEDURE IN ETABS
5.1. Material properties
To carry out the work in ETABS software the properties of the materials such as concrete and
steel should be defined and the loads such as live load, dead load, Earthquake loads & wind
loads.
• Grade of concrete: M20
• Grade of steel: Fe 415N/mm2
• Live loads: 2kN/m2
• SDL (floor finish): 1.5kN/m2
• SDL (wall loads inner and outer respectively): 6.21kN/m2 and 12.45kN/m
2
• Beam size: 230 x 450 mm
• Column size: 230 x 450 mm
Enter Grid data and Story Data Define Material Properties
Define Frame Sections Define Slab Sections
Define Load Cases Draw Columns
Draw beams (Frame Members) Draw Slab Sections
Assign Restrains Assign Live Loads and Floor Finish to slabs
Assign Diaphragm Assign Wall Loads
Assign Earth quake loads Run the Analysis
Perform Concrete Frame Design
http://www.iaeme.com/IJCIET/index.
5.2. Centre line diagram
5.3. Description of loads
• All moving loads come under live
Live load (on floors): 2
Live load (on roof): 1kN/m
• Floor finishes are the super imposed dead loads.
Floor Finishes (on floors): 1.5
Floor Finishes (on roof):
• Wall loads are the loads of bricks used in construction.
For 9” wall (outer wall):
brick = 0.23*3*18)
For 4.5” wall (inner wall):
brick = 0.115*3*18)
• Earthquake loads are given so that the building shall be earthquake resistant.
Zone: IV (According to the present zoning map, Zone 5 expects the highest level of
seismicity whereas Zone 2 is associated with the lowest level of seismicity.)
Zone factor: 0.24
Soil type: II (medium stiff soil)
Importance factor I =
ordinary moment resisting frame
Analysis and Design of A (G+4) Building
IJCIET/index.asp 263 [email protected]
Figure 2 line diagram
under live loads.
: 2kN/m2, (IS 875:2002)
kN/m2, (IS 875:2002)
Floor finishes are the super imposed dead loads.
Floor Finishes (on floors): 1.5kN/m2
Floor Finishes (on roof): 2kN/m2
are the loads of bricks used in construction.
For 9” wall (outer wall): 12.45kN/m2 (wall thickness*height of the floor*density of
For 4.5” wall (inner wall): 6.21kN/m2 (wall thickness*height of the floor*density of
Earthquake loads are given so that the building shall be earthquake resistant.
According to the present zoning map, Zone 5 expects the highest level of
seismicity whereas Zone 2 is associated with the lowest level of seismicity.)
Soil type: II (medium stiff soil)
Importance factor I = 1.0 (as residential building the building is proposed to have
moment resisting frame.
(wall thickness*height of the floor*density of
(wall thickness*height of the floor*density of
Earthquake loads are given so that the building shall be earthquake resistant.
According to the present zoning map, Zone 5 expects the highest level of
seismicity whereas Zone 2 is associated with the lowest level of seismicity.)
g is proposed to have
S.Venugopal, K.Dileep Ku
http://www.iaeme.com/IJCIET/index.
6. RESULTS
Initially the plan was analysed as
columns were failed after the analysis.
the failures. The failure was gradually reduced as the
Later at the section C230x750 and with the change o
found safe with no failures. (1
and also their local axes was changed from 90
S.Venugopal, K.Dileep Kumar, Shubham Singh and N.Lingeshwaran
IJCIET/index.asp 264 [email protected]
Figure 3 Assigning of loads
analysed as it is given by the architect but it was
columns were failed after the analysis. Then the trial and error method was followed to rectify
the failures. The failure was gradually reduced as the depth of the column was increased.
Later at the section C230x750 and with the change of orientation of column the structure was
(1-A and 1-D columns were changed from 230x450 to 230x750
and also their local axes was changed from 900 to 0
0)
Figure 4 Deflection details
mar, Shubham Singh and N.Lingeshwaran
observed that two
Then the trial and error method was followed to rectify
of the column was increased.
f orientation of column the structure was
D columns were changed from 230x450 to 230x750
http://www.iaeme.com/IJCIET/index.
Analysis and Design of A (G+4) Building
IJCIET/index.asp 265 [email protected]
Figure 5 Shear force details
Figure 6 Bending moment details
S.Venugopal, K.Dileep Kumar, Shubham Singh and N.Lingeshwaran
http://www.iaeme.com/IJCIET/index.asp 266 [email protected]
Figure 7 Diaphgram details
8. CONCLUSIONS
Our project deals with provision of earthquake resistant structure which is also economic. The
load was increased gradually from top floor to bottom floor. Minimum sizes of the beams and
columns were provided and after analysis only the failed column axes and dimensions were
changed so that the building would be economic.
REFERENCES
[1] Poonam, Anil Kumar and A. K. Gupta, “Study of Response of Structural Irregular
Building Frames to Seismic Excitations,” International Journal of Civil, Structural,
Environmental and Infrastructure Engineering Research and Development, Vol.2, Issue 2
(2012) 25-31.
[2] B. K. Sanghani and P. G. Patel, “Behaviour of Building Component in Various Zones,”
International Journal of Advances in Engineering Sciences, Vol. 1, Issue 1(Jan. 2011).
[3] P. Prashanth, S. Anshuman, R.K. Pandey, Herbert Arpan, “Comparison of design results
of a Structure designed using STAAD and ETABS Software,” INTERNATIONAL
JOURNAL OF CIVIL AND STRUCTURAL ENGINEERING, Volume 2, No 3, 2012.
[4] Salahuddin Hammad, Habib Saqib, Rehman Talha , “Comparison of design of a building
using ETABS V 9.5 & STAAD PRO,” 2005.
[5] Bureau of Indian Standards: IS-875, part 1 (1987), Dead Loads on Buildings and
Structures, New Delhi, India.
[6] IS: 875-1987. ‘Indian Standard Code of Practice for Design Loads (other than
Earthquakes) for Buildings an Structures, (2nd revision).’ Bureau of Indian Standard,
New Delhi.
[7] IS: 456-2000. ‘Indian Standard Code of Practice for Design of reinforced concrete”,
Bureau of Indian Standard, New Delhi.
[8] Design of Reinforced concrete structures by S. Ramamrutham and R. Narayanan, 17 th
edition Dhanpat Rai Publishing Company.
[9] User manual for E tabs.
[10] A Sathawane R.S Deotale 'Analysis and design of flat and grid slab and their comparision,
international journal of engineering Research and their applications vol 1. Issue.3.PP 837-
848.