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Tan Sheau Hui 0319235
1 | P a g e
Tan Sheau Hui
0319235
Tan Sheau Hui 0319235
2 | P a g e
Beam
Calculation
Tan Sheau Hui 0319235
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Beam Calculation
1. Beam B2/3-4 (Ground Floor)
Ground floor plan Structural plan
Basic information
Slab thickness : 0.15m
Wall thickness: 0.15m
Wall height : 3m
Beam size : Primary beam : 0.2m x 0.4m
: Secondary beam: 0.2m x 0.3m
Column size : 0.3m x 0.4m x 3m
Brick wall : 19kN/m2
RC : 24kN/m3
Live Load : Living area : 1.5kN/m2
: Bedroom : 1.5kN/m2
: Bathroom : 2.0kN/m2
: Kitchen : 3.0kN/m2
Tan Sheau Hui 0319235
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Dead Load
Slab self-weight
= 0.15m × 24kN/m3
= 3.6kN/m2
Dead load on slab B-B2/3-4
= 3.6kN/m2
× (2m/2)
= 3.6kN/m
Dead load on slab B2-c/3-4
= 3.6kN/m2
× (2.35m/2)
= 4.23kN/m
Brick wall weight
= 3m × 0.15m × 19kN/m2
Beam self-weight
= 0.2m × 0.3m × 24kN/m2
= 1.44kN/m
Total Dead Load
For 1-2
= 3.6kN/m + 4.23kN/m + 8.55kN/m + 1.44kN/m
= 17.82kN/m
Live Load
Live load on slab B-B2/3-4
= 2kN/m2
× (2m/2)
= 2kN/m
Live load on slab B2-C/3-4
= 1.5kN/m2
× (2.35m/2)
= 1.7625kN/m
Total Live Load
For 3-4
= 2kN/m + 1.7625kN/m
= 3.7625kN/m
Tan Sheau Hui 0319235
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Ultimate Load
Ultimate dead load 3-4
= 17.82kN/m × 1.4
= 24.948kN/m
Ultimate live load 3-4
= 3.7625kN/m × 1.6
= 6.02kN/m
Total ultimate load 3-4
= 24.948kN/m + 6.02kN/m
= 30.968kN/m
Ultimate Load Diagram
∑ƒy=0
R3 = R4
(30.968kN/m × 3.925m)/2
= 60.7747kN/m
(Point load on beam B-C/4)
Positive area
= 1/2 (60.77) (1.9625)
= 59.63 ~ 60
Negative area
= 1/2 (60.77) (1.9625)
= 59.63 ~ 60
Tan Sheau Hui 0319235
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Beam Calculation
2. Beam B-C/4 (Ground Floor)
Ground floor plan Structural plan
Basic information
Slab thickness : 0.15m
Wall thickness: 0.15m
Wall height : 3m
Beam size : Primary beam : 0.2m x 0.4m
: Secondary beam: 0.2m x 0.3m
Column size : 0.3m x 0.4m x 3m
Brick wall : 19kN/m2
RC : 24kN/m3
Live Load : Living area : 1.5kN/m2
: Bedroom : 1.5kN/m2
: Bathroom : 2.0kN/m2
: Kitchen : 3.0kN/m2
Tan Sheau Hui 0319235
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Dead Load
Slab self-weight
= 0.15m × 24kN/m3
= 3.6kN/m2
Dead load on slab B-B2/3-4
= 3.6kN/m2
× (2m/2) × 2/3
= 2.4kN/m
Dead load on slab B2-C/3-4
= 3.6kN/m2
× (2.35m/2) × 2/3
= 2.82kN/m
Dead load on slab B-C/4-5
= 3.6kN/m2
× (3.925m/2)
= 7.065kN/m
Brick wall weight
= 3m × 0.15m × 19kN/m2
= 8.55kN/m
Beam self-weight
= 0.2m × 0.4m × 24kN/m2
= 1.92kN/m
Total Dead Load
For B-B2
= 2.4 + 2.82 + 7.065 + 9.55 + 1.92
= 22.755kN/m
For B2-C
= 2.4 + 2.82 + 7.065 + 1.92
= 14.205kN/m
Tan Sheau Hui 0319235
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Live Load
Live load on slab B-B2/3-4
= 2kN/m2
× (2m/2) × 2/3
= 1.3333kN/m
Live load on slab B2-C/3-4
= 1.5kN/m2
× (3.925/2)
= 5.8875kN/m
Total Live Load
For B-C
= 1.3333 + 1.175 + 5.8875
= 8.3958kN/m
Ultimate Load
Ultimate dead load B-B2
= 22.755kN/m × 1.4
= 31.857kN/m
Ultimate dead load B2-C
= 14.205kN/m × 1.4
= 19.887kN/m
Ultimate live load B-B2
= 7.2208kN/m × 1.6
= 11.5533kN/m
Ultimate live load B2-C
= 7.0625kN/m × 1.6
= 11.3kN/m
Total ultimate load B-B2
= 31.857kN/m + 11.5533kN/m
= 43.4103kN/m
Total ultimate load B2-C
= 19.887kN/m + 11.3kN/m
= 31.187kN/m
Tan Sheau Hui 0319235
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Ultimate Load Diagram
Point load 60.77kN/m taken from 1. Beam B2/3-4
∑mA=0
0 = RcY(4.35) – 86.8206(1) – 60.7747(2)
– 73.2895(3.175)
= 4.35RcY – 96.8206 – 121.5494
– 232.6942
RcY = 103.6929
∑ƒy=0
0 = RbY + 103.6929 – 86.8206 – 60.7747 –
73.2895
RbY = 117.1919
Positive area
1/2 (117.2 + 30.38) × 2
= 147.58
~ 150
Negative area
1/2 (30.39 + 103.7) × 2.35
= 147.56
~ 150
150 - 150 = 0
Tan Sheau Hui 0319235
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Beam Calculation
3. Beam A1/2-3 (First Floor)
First floor plan Structural plan
Basic information
Slab thickness : 0.15m
Wall thickness: 0.15m
Wall height : 3m
Beam size : Primary beam : 0.2m x 0.4m
: Secondary beam: 0.2m x 0.3m
Column size : 0.3m x 0.4m x 3m
Brick wall : 19kN/m2
RC : 24kN/m3
Live Load : Living area : 1.5kN/m2
: Bedroom : 1.5kN/m2
: Bathroom : 2.0kN/m2
: Kitchen : 3.0kN/m2
Tan Sheau Hui 0319235
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Dead Load
Slab self-weight
= 0.15m × 24kN/m3
= 3.6kN/m2
Dead load on slab A-A1/2.1-2.2
= 3.6kN/m2
× (1.95m/2) ×2/3
= 2.34kN/m
Dead load on slab A1-B/2-2.1
= 1.29kN/m
Dead load on slab A1-B/2.1-3
= 3.6kN/m2
× (1.5m/2)
= 2.7kN/m
Brick wall weight
= 3m × 0.15m × 19kN/m2
= 8.55kN/m
Beam self-weight
= 0.2m × 0.3m × 24kN/m2
= 1.44kN/m
Total Dead Load
For 2-2.1
= 1.29 + 8.55 +1.44
= 11.28kN/m
For 2.1-2.2
= 2.34 + 2.7 + 8.55 + 1.44
= 15.03kN/m
For 2.2-3
= 2.7 + 8.55 + 1.44
= 12.69kN/m
Tan Sheau Hui 0319235
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Live Load
Live load on slab A1-B/2-2.1
= 1.5kN/m2
× (1.075m/2) × 2/3
= 0.5375kN/m
Live load on slab A-A1/2.1-2.2
= 2.0kN/m2
× (1.95m/2) × 2/3
= 1.3kN/m
Live load on slab A1-B/2.1-3
= 1.5kN/m2
× (1.5m/2)
= 1.125kN/m
Total Live Load
For 2-2.1
= 0.5375kN/m
For 2.1-2.2
= 1.3 + 1.125
= 2.425kN/m
For 2.2-3
= 1.125kN/m
Tan Sheau Hui 0319235
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Ultimate Load
Ultimate dead load 2-2.1
= 11.28kN/m × 1.4
= 15.792kN/m
Ultimate dead load 2.1-2.2
= 15.03kN/m × 1.4
= 21.042kN/m
Ultimate dead load 2.2-3
= 12.69kN/m × 1.4
= 17.766kN/m
Ultimate live load 2-2.1
= 0.5375kN/m × 1.6
= 0.86kN/m
Ultimate live load 2.1-2.2
= 2.425kN/m × 1.6
= 3.88kN/m
Ultimate live load 2.2-3
= 1.125kN/m × 1.6
= 1.8kN/m
Total ultimate load 2-2.1
= 15.792 + 0.86
= 16.652kN/m
Total ultimate load 2.1-2.2
= 21.042 + 3.88
= 24.922kN/m
Total ultimate load 2.2-3
= 17.766 + 1.8
= 19.566kN/m
Tan Sheau Hui 0319235
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Ultimate Load Diagram
∑mA=0
0 = R3Y(4.075) – 17.9009(0.5375)
– 48.5979(2.05) – 20.5443(3.55)
= 4.075R3Y – 9.6217 – 99.6257 – 71.905
R3Y = 44.4546 ~ 44.45
∑ƒy=0
0 = R2Y + 44.45 – 17.9009 – 48.5979
– 20.5443
R2Y = 42.5918 ~ 42.59
(Point load on beam A-B/2)
x/y = 42.59/44.45 --- 1
x + y = 1.95 --- 2
x/(1.95-x) = 42.59/44.45
44.45x = 83.0505 – 42.59x
87.04x = 83.0505
x = 0.9542
y = 1.95 – 0.942
= 0.9958
Positive area
= [1/2 (42.59 + 24.6891)] + [1/2 (24.6891) (0.9542)]
= 36.1625 + 11.7792
= 47.9417 ~ 48
Negative area
= [1/2 (23.9088) (0.9958)] + [1/2 (23.9088 + 44.45) (1.05)]
= 11.9042 + 35.8884
= 47.7926 ~ 48
Tan Sheau Hui 0319235
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Beam Calculation
4. Beam A-B/2 (First Floor)
First floor plan Structural plan
Basic information
Slab thickness : 0.15m
Wall thickness: 0.15m
Wall height : 3m
Beam size : Primary beam : 0.2m x 0.4m
: Secondary beam: 0.2m x 0.3m
Column size : 0.3m x 0.4m x 3m
Brick wall : 19kN/m2
RC : 24kN/m3
Live Load : Living area : 1.5kN/m2
: Bedroom : 1.5kN/m2
: Bathroom : 2.0kN/m2
: Kitchen : 3.0kN/m2
Tan Sheau Hui 0319235
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Dead Load
Slab self-weight
= 0.15m × 24kN/m3
= 3.6kN/m
Dead load on slab A-B/1-2
= 3.6kN/m2
× (3.925m/2)
= 7.065kN/m
Dead load on slab A-A1/2-2.1
= 3.6kN/m2
× (1.075m/2)
= 1.935kN/m
Dead load on slab A1-B/2-2.1
= 3.6kN/m2
× (1.075m/2)
= 1.935kN/m
Brick wall weight
= 3m × 0.15m × 19kN/m2
= 8.55kN/m
Beam self weight
= 0.2m × 0.4m × 24kN/m2
= 1.92kN/m
Total Dead Load
For A-A1
= 7.065 + 1.935 + 8.55 + 1.92
= 19.47kN/m
For A1-B
= 7.065 + 1.935 + 8.55 + 1.92
= 19.47kN/m
Live Load
Live load on slab A-B/1-2
= 1.5kN/m2
× (3.925m/2)
= 2.9438kN/m
Live load on slab A-A1/2-2.1
Tan Sheau Hui 0319235
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= 1.5kN/m2
× (1.075m/2)
= 0.8063kN/m
Live load on slab A1-B/2-2.1
= 1.5kN/m2
× (1.075m/2)
= 0.8063kN/m
Total Live Load
For A-A1
= 2.9438 + 0.8063
= 3.7501kN/m
For A1-B
= 2.9438 + 0.8063
= 3.7501kN/m
Ultimate Load
Ultimate dead load A-A1
= 19.47kN/m × 1.4
= 27.258kN/m
Ultimate dead load A1-B
= 19.47kN/m × 1.4
= 27.258kN/m
Ultimate live load A-A1
= 3.7501kN/m × 1.6
= 6.0002kN/m
Ultimate live load A1-B
= 3.7501kN/m × 1.6
6.0002kN/m
Total ultimate load A-A1
= 27.258 + 6.0002
= 33.2582kN/m
Total ultimate load A1-B
= 27.258 + 6.0002
= 33.2582kN/m
Tan Sheau Hui 0319235
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Ultimate Load Diagram
Point load 47.59kN/m taken from 3. Beam A1/2-3
∑mA=0
0 = RbY(5) – 116.4037(1.75) – 42.59(3.5)
– 49.8873(4.25)
= 5RbY – 203.7065 - 149.065 – 212.021
RbY = 112.9585 ~ 112.96
∑ƒy=0
0 = RaY + 112.96 – 116.4037 – 42.59
– 49.8873
RaY = 95.921 ~ 95.92
x/y = 95.92/20.4837 --- 1
x + y = 3.5 --- 2
x/(3.5-x) = 95.92/20.4837
20.4837x = 335.72 – 95.92x
x = 2.8841
y = 3.5 – 2.8841
= 0.6159
Positive area
= 1/2 (95.92) (2.8841)
= 138.3647 ~ 138
Negative area
= [1/2 (1.5) (63.0737+ 112.96)]
+ [1/2 (0.6159) (20.4837)]
= 132.0253 + 6.308
= 138.3333 ~ 138
x = 1/2 × 20.4837 × 0.6159
= 6.308
Tan Sheau Hui 0319235
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Beam Calculation
5. Beam D-E1/4.1 (First Floor)
First floor plan Structural plan
Basic information
Slab thickness : 0.15m
Wall thickness: 0.15m
Wall height : 3m
Beam size : Primary beam : 0.2m × 0.4m
: Secondary beam: 0.2m × 0.3m
Column size : 0.3m x 0.4m x 3m
Brick wall : 19kN/m2
RC : 24kN/m3
Live Load : Living area : 1.5kN/m2
: Bedroom : 1.5kN/m2
: Bathroom : 2.0kN/m2
: Kitchen : 3.0kN/m2
Tan Sheau Hui 0319235
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Dead Load
Slab self-weight
= 0.15m × 24kN/m2
= 3.6kN/m2
Dead load on slab D-E/4-4.1
= 3.6kN/m2
× (1.025m/2)
= 1.845kN/m
Dead load on slab E-E1/4-4.1
= 3.6kN/m2
× (0.85m/2) × 2/3
= 1.02kN/m
Brick wall weight
= 3m × 0.15m × 19kN/m2
= 8.55kN/m
Beam self-weight
= 0.2m × 0.3m × 24kN/m2
= 1.44kN/m
Total Dead Load
For D-E
= 1.845 + 8.55 + 1.44
= 11.835kN/m
For E-E1
= 1.02 + 8.55 + 1.44
= 11.01kN/m
Tan Sheau Hui 0319235
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Live Load
Live load on slab D-E/4-4.1
= 1.5kN/m2
× (1.025m/2)
= 0.7688kN/m
Live load on slab E-E1/4-4.1
= 1.5kN/m2
× (0.85m/2) × 2/3
= 0.425kN/m
Total Live Load
For D-E
= 0.7688kN/m
For E-E1
= 0.425kN/m
Ultimate Load
Ultimate dead load D-E
= 11.835kN/m × 1.4
= 16.597kN/m
Ultimate dead load E-E1
= 11.01kN/m × 1.4
= 15.414kN/m
Ultimate live load D-E
= 0.7688kN/m × 1.6
= 1.23kN/m
Ultimate live load E-E1
= 0.425kN/m × 1.6
= 0.68kN/m
Total ultimate load D-E
= 16.597kN/m + 1.23kN/m
= 17.827kN/m
Total ultimate load E-E1
= 15.414kN/m + 0.68kN/m
= 16.094kN/m
Tan Sheau Hui 0319235
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Ultimate Load Diagram
∑mA=0
0 = ReY(4) – 71.308(2) – 13.6799(4.425)
4ReY = 142.616 + 60.5336
ReY = 50.79
(Point load on beam E/3-4.1)
∑ƒy=0
0 = RdY + 50.79 – 71.308 – 13.6799
RdY = 34.2
x/(4 – x) = 37.108/34.2
34.2x = 148.432 – 34.2
x = 2.08
Positive area
= [1/2 (34.2) (4.208)] + [1/2 (0.85) (13.682)]
= 32.832 + 5.815
= 38.647 ~ 39
Negative area
= 1/2 (2.08) (37.108)
= 38.59 ~ 39
Tan Sheau Hui 0319235
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Beam Calculation
6. Beam E/3-4.1 (First Floor)
Ground floor plan Structural plan
Basic information
Slab thickness : 0.15m
Wall thickness: 0.15m
Wall height : 3m
Beam size : Primary beam : 0.2m × 0.4m
: Secondary beam: 0.2m × 0.3m
Column size : 0.3m x 0.4m x 3m
Brick wall : 19kN/m2
RC : 24kN/m3
Live Load : Living area : 1.5kN/m2
: Bedroom : 1.5kN/m2
: Bathroom : 2.0kN/m2
: Kitchen : 3.0kN/m2
Tan Sheau Hui 0319235
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Dead Load
Slab self-weight
= 0.15m × 24kN/m3
= 3.6kN/m2
Dead load on slab D-E/3-4
= 3.6kN/m2
× (3.95m/2) × 2/3
= 4.71kN/m
Dead load on slab E-E1/3-4
= 3.6kN/m2
× (0.85m/2)
= 1.53kN/m
Dead load on slab E-E1/4-4.1
= 3.6kN/m2
× (0.85m/2)
= 1.53kN/m
Beam self-weight
= 0.2m × 0.4m × 24kN/m2
= 1.92kN/m
Total Dead Load
For 3-4
= 4.71 + 1.53 + 1.92
= 8.16kN/m
For 4-4.1
= 1.53 + 1.92
= 3.45kN/m
Tan Sheau Hui 0319235
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Live Load
Live load on slab D-E/3-4
= 1.5kN/m2
× (3.925m × 2) × 2/3
= 1.9625kN/m
Live load on slab E-E1/3-4
= 1.5kN/m2
× (0.85m/2)
= 0.6375kN/m
Live load on slab E-E1/4-4.1
= 1.5kN/m2
× (0.85m/2)
= 0.6375kN/m
Total Live Load
For 3-4
= 1.9625 + 0.6375
= 2.6kN/m
For 4-4.1
= 0.6375kN/m
Ultimate Load
Ultimate dead load 3-4
= 8.16kN/m × 1.4
= 11.424kN/m
Ultimate dead load 4-4.1
= 3.45kN/m × 1.4
= 4.83kN/m
Ultimate live load 3-4
= 2.6kN/m × 1.6
= 4.16kN/m
Ultimate live load 4-4.1
= 0.6375kN/m × 1.6
= 1.02kN/m
Tan Sheau Hui 0319235
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Total ultimate load 3-4
= 11.424 + 4.16
= 15.584kN/m
Total ultimate load 4-4.1
= 4.83 + 1.02
= 5.85kN/m
Ultimate Load Diagram
Point load 50.79kN/m taken from 5. Beam D-E1/4.1
∑mA=0
0 = R4Y(3.925) – 61.1672(1.9625) – 5.9963(4.4375)
– 50.79(4.95)
3.925R4Y = 120.0406 + 26.6086 + 251.4105
R4Y = 101.4165
∑ƒy=0
0 = R3Y + 101.4165 – 61.1672 – 5.9963 – 50.79
R3Y = 16.537
x/(3.925 – x) = 44.6302/16.537
16.537x = 175.17 – 44.6302x
x = 2.86
Positive area
= [1/2 (16.537) (3.925 – 2.86)] +
[1/2 (56.7863 + 50.79) (1.025)]
= 8.806 + 55.1329
= 63.9 ~ 64
Negative area
= 1/2 (44.6302) (2.86)
= 63.8212 ~ 64
Tan Sheau Hui 0319235
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Column
Calculation
Tan Sheau Hui 0319235
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Column Calculation
1. Column B4
Ground floor plan First floor plan
Ground floor roof plan First floor roof plan
(Column B4 does not touch
ground floor roof structure)
Tan Sheau Hui 0319235
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Ground floor structural plan First floor structural plan
First floor structural plan
Basic information
Height of the floors : 3m
Brick wall thickness : 150mm
Dead Load= 3m × 0.15m × 19 kN/m3
= 8.55kN/m
Beam size : Primary beam : 0.2m × 0.4m
Dead Load= 0.2 m × 0.4 m × 24 kN/m3
= 1.92kN/m
: Secondary beam: 0.2m × 0.3m
Dead Load= 0.2 m × 0.3 m × 24 kN/m3
= 1.44kN/m
Slab thickness : 150mm,
Dead Load= 0.15m × 24 kN/m3
= 3.6 kN/m2
Column size : 0.3m × 0.4m × 3m
Tan Sheau Hui 0319235
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Dead Load= 0.3m × 0.4m × 3m × 24 kN/m3 = 8.64 kN
Live Load : Living area : 1.5kN/m2
: Bedroom : 1.5kN/m2
: Bathroom : 2.0kN/m2
: Kitchen : 3.0kN/m2
First Floor Roof Level
Total slab area = (1.926m + 1.025m) (2.5m + 2.175m)
= 2.9875m × 4.675m
= 13.97m2
Total beam length = 2.5m + 1.9625m + 2.175m + 1.025m
= 7.66m
Dead Load
Slab = 13.97m2
× 3.6kN/m2
= 50.292kN
Roof beam = 7.66m × 1.08kN/m
= 8.2728kN
Total dead load = 50.292kN + 8.2728kN
= 58.5648kN
First Floor
Total slab area = (1.9625m + 1.025m) (2.5m + 2.175m)
= 2.9875m × 4.675m
= 13.97m2
Total beam length
Primary = 2.5m + 1.9625m + 2.175m + 1.025m
= 7.66m
Secondary = 1.9625m + 1.025m + 2.5m + 2.175m
= 7.66m
Tan Sheau Hui 0319235
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Dead Load
Walls (none)
Slabs = 13.97m2
× 3.6kN/m2
= 50.292kN
Beams
Primary = 7.66m × 1.92kN/m
= 14.7072kN
Secondary = 7.66m × 1.44kN/m
= 11.03m
Column = 8.64kN
Total dead load = 50.292kN +14.7072kN + 11.03m + 8.64kN
= 84.6692kN
Ground Floor
Total slab area = 1.9625m × 2.175m
= 4.14m2
Total beam length
Primary beam= 1.9625m + 1.9625m + 2.175m
= 6.1m
Secondary beam= 1.9625m
Total beam = 6.1m + 1.9625m
= 8.0625m
Total wall length = 8.0625m
Dead Load
Walls = 8.0625m × 8.55kN/m
= 68.934kN
Slabs = 4.14m2
× 3.6kN/m2
= 14.904kN
Beams
Primary = 6.1m × 1.92kN/m
= 11.712kN
Secondary = 1.9625m × 1.44kN/m
Tan Sheau Hui 0319235
32 | P a g e
= 2.826kN
Column = 8.64kN
Total dead load = 68.934kN + 14.904kN + 11.712kN + 2.826kN + 8.64kN
= 107.016kN
Live Load
First floor
Bedroom = (2.9875m × 4.675m) (1.5kN/m2
)
= 20.95kN
Ground Floor
Toilet = (1.9625m × 2.175m) (2kN/m2
)
= 8.54kN
Kitchen = (1.9625m × 2.175m) (3kN/m2
)
= 12.81kN
Total Dead Load
= 58.5648kN + 84.6692kN + 107.016kN
= 250.25kN
Total Live Load
= 20.59kN + 8.54kN + 12.81kN
= 42.3kN
Tan Sheau Hui 0319235
33 | P a g e
Ultimate load on column B4
Ultimate dead load = 250.25kN × 1.4
= 350.35kN
Ultimate live load = 42.3kN × 1.6
= 67.68kN
Total ultimate load = 350.35kN + 67.68kN
= 418.03kN
N = 0.4fcuAc + 0.8 fyAsc
N = capacity of concrete
Fcu = concrete strength (N/mm2)
Ac = cross section of concrete column
fcu = yield strength of steel (N/mm2)
Asc = steel content in a column
Given that fcu = 30N/mm2 and fy = 460N/mm2.
Assuming percentage of steel reinforcement in a rectangular concrete column is 2%,
determine the capacity of the column.
Ac = 300 × 400 = 120,000
Asc = 2 % × 120,000 = 2,400
N = 0.4fcuAc + 0.8 fyAsc
= 0.4(30)(120000) + 0.8(460)(2400)
= 1440,000 + 883,200
= 2323200 N = 2323.2kN
Thus, this column can sustain any ultimate load below 2323.2 kN.
Tan Sheau Hui 0319235
34 | P a g e
Column Calculation
2. Column E3
Ground floor plan First floor plan
Ground floor roof plan First floor roof plan
Tan Sheau Hui 0319235
35 | P a g e
Ground floor structural plan First floor structural plan
Ground floor structural plan First floor structural plan
Basic information
Height of the floors : 3m
Brick wall thickness : 150mm
Dead Load= 3m x 0.15m x 19 kN/m3
= 8.55kN/m
Beam size : Primary beam : 0.2m x 0.4m
Dead Load= 0.2 m x 0.4 m x 24 kN/m3
= 1.92kN/m
: Secondary beam: 0.2m x 0.3m
Dead Load= 0.2 m x 0.3 m x 24 kN/m3
= 1.44kN/m
Slab thickness : 150mm,
Dead Load= 0.15m x 24 kN/m3
= 3.6 kN/m2
Column size : 0.3m x 0.4m x 3m
Tan Sheau Hui 0319235
36 | P a g e
Dead Load= 0.3m x 0.4m x 3m x 24 kN/m3 = 8.64 kN
Live Load : Living area : 1.5kN/m2
: Bedroom : 1.5kN/m2
: Bathroom : 2.0kN/m2
: Kitchen : 3.0kN/m2
First Floor Roof Level
Total slab area = (2.0375m + 1.9625m) (2m + 0.85m)
= 4m × 2.85m
= 11.4m2
Total beam length = 2.0375m + 1.9625m + 2m + 0.85m
= 6.85m
Dead Load
Slab = 11.4m2
× 3.6kN/m2
= 41.04kN
Roof beam = 6.85m × 1.92kN/m
= 13.152kN
Total dead load = 41.04kN + 13.152kN
= 54.192kN
First Floor
Total slab area = (2.0375m + 1.9625m) (2m + 0.85m)
= 4m × 2.85m
= 11.4m2
Total beam length
Primary = 2.0375m + 1.9625m + 2m + 0.85m
= 6.85m
Secondary = 2.02375m + 1.9625m
= 4m
Total wall length = 2m + 0.85m
= 2.85m
Tan Sheau Hui 0319235
37 | P a g e
Dead Load
Walls = 2.85m × 8.55kN/m
= 24.3675kN
Slabs = 11.4m2
× 3.6kN/m2
= 41.04kN
Beams
Primary = 6.85m × 1.92kN/m
= 13.152kN
Secondary = 4m × 1.44kN/m
= 5.76kN
Column = 8.64kN
Total dead load = 24.3675kN + 41.04kN + 13.152kN + 5.76kN + 8.64kN
= 92.96kN
Ground Floor Roof Level
Total slab area = (2.0375m × 5.075m) + (1.9625m × 3.075m)
= 10.3403m2
+ 6.0347m2
= 16.375m2
Total beam length = 2.0375m + 1.9625m + 2m + 3.075m
= 9.075m
Dead Load
Slab = 16.375m2
× 3.6kN/m2
= 58.95kN
Roof beam = 9.075m × 1.92kN/m
= 17.424kN
Total dead load = 58.95kN + 17.424kN
= 76.374kN
Ground Floor
Total slab area = (1.9625m) (2m + 1.5375m)
= 1.9625m × 3.5375m
= 6.9423m2
Tan Sheau Hui 0319235
38 | P a g e
Total beam length = 1.9625m + 2m + 1.5375m
= 5.5m
Total wall length = 2m + 1.5375m
= 3.5375m
Dead Load
Walls = 3.5375m × 8.55kN/m
= 30.2456kN
Slabs = 6.9423m2
× 3.6kN/m2
= 24.9923kN
Beams = 5.5m × 1.92kN/m
= 10.56kN
Column = 8.64kN
Total dead load = 30.2456kN + 24.9923kN + 10.56kN + 8.64kN
= 74.4379kN
Live Load
First floor
Toilet = (2.85m × 2.0375m) × 2kN/m2
= 11.6138kN
Bedroom = (2.85m × 1.9625m) × 1.5kN/m2
= 8.3897kN
Ground Floor
Living & dining = (1.9625m × 3.5375m) × 1.5kN/m2
= 10.4135kN
Total Dead Load
= 54.192kN + 92.96kN + 76.374kN + 74.4379kN
= 297.905kN
Total Live Load
= 11.6138kN + 8.3897kN + 10.4135kN
= 30.417kN
Tan Sheau Hui 0319235
39 | P a g e
Ultimate load on column E3
Ultimate dead load = 297.905kN × 1.4
= 417.067kN
Ultimate live load = 30.417kN × 1.6
= 48.6672kN
Total ultimate load = 417.067kN + 48.6672kN
= 465.7342kN
N = 0.4fcuAc + 0.8 fyAsc
N = capacity of concrete
Fcu = concrete strength (N/mm2)
Ac = cross section of concrete column
fcu = yield strength of steel (N/mm2)
Asc = steel content in a column
Given that fcu = 30N/mm2 and fy = 460N/mm2.
Assuming percentage of steel reinforcement in a rectangular concrete column is 2%,
determine the capacity of the column.
Ac = 300 x 400 = 120,000
Asc = 2 % x 120,000 = 2,400
N = 0.4fcuAc + 0.8 fyAsc
= 0.4(30)(120000) + 0.8(460)(2400)
= 1440,000 + 883,200
= 2323200 N = 2323.2kN
Thus, this column can sustain any ultimate load below 2323.2 kN.
Tan Sheau Hui 0319235
40 | P a g e
Column Calculation
3. Column E4
Ground floor plan First floor plan
Ground floor roof plan First floor roof plan
Tan Sheau Hui 0319235
41 | P a g e
Ground floor structural plan First floor structural plan
Ground floor structural plan First floor structural plan
Basic information
Height of the floors : 3m
Brick wall thickness : 150mm
Dead Load= 3m x 0.15m x 19 kN/m3
= 8.55kN/m
Beam size : Primary beam : 0.2m x 0.4m
Dead Load= 0.2 m x 0.4 m x 24 kN/m3
= 1.92kN/m
: Secondary beam: 0.2m x 0.3m
Dead Load= 0.2 m x 0.3 m x 24 kN/m3
= 1.44kN/m
Slab thickness : 150mm,
Dead Load= 0.15m x 24 kN/m3
= 3.6 kN/m2
Tan Sheau Hui 0319235
42 | P a g e
Column size : 0.3m x 0.4m x 3m
Dead Load= 0.3m x 0.4m x 3m x 24 kN/m3 = 8.64 kN
Live Load : Living area : 1.5kN/m2
: Bedroom : 1.5kN/m2
: Bathroom : 2.0kN/m2
: Kitchen : 3.0kN/m2
First Floor Roof Level
Total slab area = (2m + 0.85m) (1.9625m + 1.025m)
= 2.85m × 2.9875m
= 8.51m2
Total beam length = 2m + 0.85m + 1.9625m + 1.025m + 1.9625m
= 7.8m
Dead Load
Slab = 8.51m2
× 3.6kN/m2
= 30.636kN
Roof beam = 7.8m × 1.92kN/m
= 14.976kN
Total dead load = 30.636kN + 14.976kN
= 45.612kN
First Floor
Total slab area = (2m + 0.85m) (1.9625m + 1.025m)
= 2.85m × 2.9875m
= 8.5144m2
͌ 8.51m2
Total beam length
Primary = 1.9625m + 1.025m + 2m + 0.85m
= 5.84m
Secondary = 2m + 0.85m + 1.025m + 1.9625m
= 5.84m
Tan Sheau Hui 0319235
43 | P a g e
Dead Load
Walls (none)
Slabs = 8.51m2
× 3.6kN/m2
= 30.636kN
Beams
Primary = 5.84m × 1.92kN/m
= 11.2128kN
Secondary = 5.84m × 1.44kN/m
= 8.41kN
Column = 8.64kN
Total dead load = 30.636kN + 11.2128kN + 8.64kN + 8.41kN
= 58.9kN
Ground Floor Roof Level
Total slab area = 3.925m × 1.5375m
= 6.0347m2
Total beam length = 3.925m + 1.5375m
= 5.4625m
Dead Load
Slab = 6.0347m2
× 3.6kN/m2
= 21.7249kN
Roof beam = 5.4625m × 1.92kN/m
= 10.488kN
Total dead load = 21.7249kN + 10.488kN
= 32.2129kN
Ground Floor
Total slab area = (3.925m) (2m + 3.075m)
= 3.925m × 5.075m
= 19.9194m2
Total beam length = 3.925m + 5.075m
= 9m
Tan Sheau Hui 0319235
44 | P a g e
Dead Load
Walls (none)
Slabs = 19.9194m2
× 3.6kN/m2
= 71.7098kN
Beams = 9m × 1.92kN/m
= 17.28kN
Column = 8.64kN
Total dead load = 71.7098kN + 17.28kN + 8.64kN
= 97.6298kN
Live Load
First floor
Bedroom = 8.51m2
× 1.5kN/m2
= 12.765kN
Ground Floor
Living & dining = 19.9194m2
× 1.5kN/m2
= 29.8791kN
Total Dead Load
= 41.8488kN + 32.2129kN + 58.9kN + 97.6298kN
= 230.59kN
Total Live Load
= 12.765kN + 28.8791kN
= 42.6441kN
Tan Sheau Hui 0319235
45 | P a g e
Ultimate load on column E4
Ultimate dead load = 230.59kN × 1.4
= 322.83kN
Ultimate live load = 42.6441kN × 1.6
= 68.2306kN
Total ultimate load = 322.83kN + 68.2306kN
= 391.06kN
N = 0.4fcuAc + 0.8 fyAsc
N = capacity of concrete
Fcu = concrete strength (N/mm2)
Ac = cross section of concrete column
fcu = yield strength of steel (N/mm2)
Asc = steel content in a column
Given that fcu = 30N/mm2 and fy = 460N/mm2.
Assuming percentage of steel reinforcement in a rectangular concrete column is 2%,
determine the capacity of the column.
Ac = 300 x 400 = 120,000
Asc = 2 % x 120,000 = 2,400
N = 0.4fcuAc + 0.8 fyAsc
= 0.4(30)(120000) + 0.8(460)(2400)
= 1440,000 + 883,200
= 2323200 N = 2323.2kN
Thus, this column can sustain any ultimate load below 2323.2 kN.

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BStructure calculation

  • 1. Tan Sheau Hui 0319235 1 | P a g e Tan Sheau Hui 0319235
  • 2. Tan Sheau Hui 0319235 2 | P a g e Beam Calculation
  • 3. Tan Sheau Hui 0319235 3 | P a g e Beam Calculation 1. Beam B2/3-4 (Ground Floor) Ground floor plan Structural plan Basic information Slab thickness : 0.15m Wall thickness: 0.15m Wall height : 3m Beam size : Primary beam : 0.2m x 0.4m : Secondary beam: 0.2m x 0.3m Column size : 0.3m x 0.4m x 3m Brick wall : 19kN/m2 RC : 24kN/m3 Live Load : Living area : 1.5kN/m2 : Bedroom : 1.5kN/m2 : Bathroom : 2.0kN/m2 : Kitchen : 3.0kN/m2
  • 4. Tan Sheau Hui 0319235 4 | P a g e Dead Load Slab self-weight = 0.15m × 24kN/m3 = 3.6kN/m2 Dead load on slab B-B2/3-4 = 3.6kN/m2 × (2m/2) = 3.6kN/m Dead load on slab B2-c/3-4 = 3.6kN/m2 × (2.35m/2) = 4.23kN/m Brick wall weight = 3m × 0.15m × 19kN/m2 Beam self-weight = 0.2m × 0.3m × 24kN/m2 = 1.44kN/m Total Dead Load For 1-2 = 3.6kN/m + 4.23kN/m + 8.55kN/m + 1.44kN/m = 17.82kN/m Live Load Live load on slab B-B2/3-4 = 2kN/m2 × (2m/2) = 2kN/m Live load on slab B2-C/3-4 = 1.5kN/m2 × (2.35m/2) = 1.7625kN/m Total Live Load For 3-4 = 2kN/m + 1.7625kN/m = 3.7625kN/m
  • 5. Tan Sheau Hui 0319235 5 | P a g e Ultimate Load Ultimate dead load 3-4 = 17.82kN/m × 1.4 = 24.948kN/m Ultimate live load 3-4 = 3.7625kN/m × 1.6 = 6.02kN/m Total ultimate load 3-4 = 24.948kN/m + 6.02kN/m = 30.968kN/m Ultimate Load Diagram ∑ƒy=0 R3 = R4 (30.968kN/m × 3.925m)/2 = 60.7747kN/m (Point load on beam B-C/4) Positive area = 1/2 (60.77) (1.9625) = 59.63 ~ 60 Negative area = 1/2 (60.77) (1.9625) = 59.63 ~ 60
  • 6. Tan Sheau Hui 0319235 6 | P a g e Beam Calculation 2. Beam B-C/4 (Ground Floor) Ground floor plan Structural plan Basic information Slab thickness : 0.15m Wall thickness: 0.15m Wall height : 3m Beam size : Primary beam : 0.2m x 0.4m : Secondary beam: 0.2m x 0.3m Column size : 0.3m x 0.4m x 3m Brick wall : 19kN/m2 RC : 24kN/m3 Live Load : Living area : 1.5kN/m2 : Bedroom : 1.5kN/m2 : Bathroom : 2.0kN/m2 : Kitchen : 3.0kN/m2
  • 7. Tan Sheau Hui 0319235 7 | P a g e Dead Load Slab self-weight = 0.15m × 24kN/m3 = 3.6kN/m2 Dead load on slab B-B2/3-4 = 3.6kN/m2 × (2m/2) × 2/3 = 2.4kN/m Dead load on slab B2-C/3-4 = 3.6kN/m2 × (2.35m/2) × 2/3 = 2.82kN/m Dead load on slab B-C/4-5 = 3.6kN/m2 × (3.925m/2) = 7.065kN/m Brick wall weight = 3m × 0.15m × 19kN/m2 = 8.55kN/m Beam self-weight = 0.2m × 0.4m × 24kN/m2 = 1.92kN/m Total Dead Load For B-B2 = 2.4 + 2.82 + 7.065 + 9.55 + 1.92 = 22.755kN/m For B2-C = 2.4 + 2.82 + 7.065 + 1.92 = 14.205kN/m
  • 8. Tan Sheau Hui 0319235 8 | P a g e Live Load Live load on slab B-B2/3-4 = 2kN/m2 × (2m/2) × 2/3 = 1.3333kN/m Live load on slab B2-C/3-4 = 1.5kN/m2 × (3.925/2) = 5.8875kN/m Total Live Load For B-C = 1.3333 + 1.175 + 5.8875 = 8.3958kN/m Ultimate Load Ultimate dead load B-B2 = 22.755kN/m × 1.4 = 31.857kN/m Ultimate dead load B2-C = 14.205kN/m × 1.4 = 19.887kN/m Ultimate live load B-B2 = 7.2208kN/m × 1.6 = 11.5533kN/m Ultimate live load B2-C = 7.0625kN/m × 1.6 = 11.3kN/m Total ultimate load B-B2 = 31.857kN/m + 11.5533kN/m = 43.4103kN/m Total ultimate load B2-C = 19.887kN/m + 11.3kN/m = 31.187kN/m
  • 9. Tan Sheau Hui 0319235 9 | P a g e Ultimate Load Diagram Point load 60.77kN/m taken from 1. Beam B2/3-4 ∑mA=0 0 = RcY(4.35) – 86.8206(1) – 60.7747(2) – 73.2895(3.175) = 4.35RcY – 96.8206 – 121.5494 – 232.6942 RcY = 103.6929 ∑ƒy=0 0 = RbY + 103.6929 – 86.8206 – 60.7747 – 73.2895 RbY = 117.1919 Positive area 1/2 (117.2 + 30.38) × 2 = 147.58 ~ 150 Negative area 1/2 (30.39 + 103.7) × 2.35 = 147.56 ~ 150 150 - 150 = 0
  • 10. Tan Sheau Hui 0319235 10 | P a g e Beam Calculation 3. Beam A1/2-3 (First Floor) First floor plan Structural plan Basic information Slab thickness : 0.15m Wall thickness: 0.15m Wall height : 3m Beam size : Primary beam : 0.2m x 0.4m : Secondary beam: 0.2m x 0.3m Column size : 0.3m x 0.4m x 3m Brick wall : 19kN/m2 RC : 24kN/m3 Live Load : Living area : 1.5kN/m2 : Bedroom : 1.5kN/m2 : Bathroom : 2.0kN/m2 : Kitchen : 3.0kN/m2
  • 11. Tan Sheau Hui 0319235 11 | P a g e Dead Load Slab self-weight = 0.15m × 24kN/m3 = 3.6kN/m2 Dead load on slab A-A1/2.1-2.2 = 3.6kN/m2 × (1.95m/2) ×2/3 = 2.34kN/m Dead load on slab A1-B/2-2.1 = 1.29kN/m Dead load on slab A1-B/2.1-3 = 3.6kN/m2 × (1.5m/2) = 2.7kN/m Brick wall weight = 3m × 0.15m × 19kN/m2 = 8.55kN/m Beam self-weight = 0.2m × 0.3m × 24kN/m2 = 1.44kN/m Total Dead Load For 2-2.1 = 1.29 + 8.55 +1.44 = 11.28kN/m For 2.1-2.2 = 2.34 + 2.7 + 8.55 + 1.44 = 15.03kN/m For 2.2-3 = 2.7 + 8.55 + 1.44 = 12.69kN/m
  • 12. Tan Sheau Hui 0319235 12 | P a g e Live Load Live load on slab A1-B/2-2.1 = 1.5kN/m2 × (1.075m/2) × 2/3 = 0.5375kN/m Live load on slab A-A1/2.1-2.2 = 2.0kN/m2 × (1.95m/2) × 2/3 = 1.3kN/m Live load on slab A1-B/2.1-3 = 1.5kN/m2 × (1.5m/2) = 1.125kN/m Total Live Load For 2-2.1 = 0.5375kN/m For 2.1-2.2 = 1.3 + 1.125 = 2.425kN/m For 2.2-3 = 1.125kN/m
  • 13. Tan Sheau Hui 0319235 13 | P a g e Ultimate Load Ultimate dead load 2-2.1 = 11.28kN/m × 1.4 = 15.792kN/m Ultimate dead load 2.1-2.2 = 15.03kN/m × 1.4 = 21.042kN/m Ultimate dead load 2.2-3 = 12.69kN/m × 1.4 = 17.766kN/m Ultimate live load 2-2.1 = 0.5375kN/m × 1.6 = 0.86kN/m Ultimate live load 2.1-2.2 = 2.425kN/m × 1.6 = 3.88kN/m Ultimate live load 2.2-3 = 1.125kN/m × 1.6 = 1.8kN/m Total ultimate load 2-2.1 = 15.792 + 0.86 = 16.652kN/m Total ultimate load 2.1-2.2 = 21.042 + 3.88 = 24.922kN/m Total ultimate load 2.2-3 = 17.766 + 1.8 = 19.566kN/m
  • 14. Tan Sheau Hui 0319235 14 | P a g e Ultimate Load Diagram ∑mA=0 0 = R3Y(4.075) – 17.9009(0.5375) – 48.5979(2.05) – 20.5443(3.55) = 4.075R3Y – 9.6217 – 99.6257 – 71.905 R3Y = 44.4546 ~ 44.45 ∑ƒy=0 0 = R2Y + 44.45 – 17.9009 – 48.5979 – 20.5443 R2Y = 42.5918 ~ 42.59 (Point load on beam A-B/2) x/y = 42.59/44.45 --- 1 x + y = 1.95 --- 2 x/(1.95-x) = 42.59/44.45 44.45x = 83.0505 – 42.59x 87.04x = 83.0505 x = 0.9542 y = 1.95 – 0.942 = 0.9958 Positive area = [1/2 (42.59 + 24.6891)] + [1/2 (24.6891) (0.9542)] = 36.1625 + 11.7792 = 47.9417 ~ 48 Negative area = [1/2 (23.9088) (0.9958)] + [1/2 (23.9088 + 44.45) (1.05)] = 11.9042 + 35.8884 = 47.7926 ~ 48
  • 15. Tan Sheau Hui 0319235 15 | P a g e Beam Calculation 4. Beam A-B/2 (First Floor) First floor plan Structural plan Basic information Slab thickness : 0.15m Wall thickness: 0.15m Wall height : 3m Beam size : Primary beam : 0.2m x 0.4m : Secondary beam: 0.2m x 0.3m Column size : 0.3m x 0.4m x 3m Brick wall : 19kN/m2 RC : 24kN/m3 Live Load : Living area : 1.5kN/m2 : Bedroom : 1.5kN/m2 : Bathroom : 2.0kN/m2 : Kitchen : 3.0kN/m2
  • 16. Tan Sheau Hui 0319235 16 | P a g e Dead Load Slab self-weight = 0.15m × 24kN/m3 = 3.6kN/m Dead load on slab A-B/1-2 = 3.6kN/m2 × (3.925m/2) = 7.065kN/m Dead load on slab A-A1/2-2.1 = 3.6kN/m2 × (1.075m/2) = 1.935kN/m Dead load on slab A1-B/2-2.1 = 3.6kN/m2 × (1.075m/2) = 1.935kN/m Brick wall weight = 3m × 0.15m × 19kN/m2 = 8.55kN/m Beam self weight = 0.2m × 0.4m × 24kN/m2 = 1.92kN/m Total Dead Load For A-A1 = 7.065 + 1.935 + 8.55 + 1.92 = 19.47kN/m For A1-B = 7.065 + 1.935 + 8.55 + 1.92 = 19.47kN/m Live Load Live load on slab A-B/1-2 = 1.5kN/m2 × (3.925m/2) = 2.9438kN/m Live load on slab A-A1/2-2.1
  • 17. Tan Sheau Hui 0319235 17 | P a g e = 1.5kN/m2 × (1.075m/2) = 0.8063kN/m Live load on slab A1-B/2-2.1 = 1.5kN/m2 × (1.075m/2) = 0.8063kN/m Total Live Load For A-A1 = 2.9438 + 0.8063 = 3.7501kN/m For A1-B = 2.9438 + 0.8063 = 3.7501kN/m Ultimate Load Ultimate dead load A-A1 = 19.47kN/m × 1.4 = 27.258kN/m Ultimate dead load A1-B = 19.47kN/m × 1.4 = 27.258kN/m Ultimate live load A-A1 = 3.7501kN/m × 1.6 = 6.0002kN/m Ultimate live load A1-B = 3.7501kN/m × 1.6 6.0002kN/m Total ultimate load A-A1 = 27.258 + 6.0002 = 33.2582kN/m Total ultimate load A1-B = 27.258 + 6.0002 = 33.2582kN/m
  • 18. Tan Sheau Hui 0319235 18 | P a g e Ultimate Load Diagram Point load 47.59kN/m taken from 3. Beam A1/2-3 ∑mA=0 0 = RbY(5) – 116.4037(1.75) – 42.59(3.5) – 49.8873(4.25) = 5RbY – 203.7065 - 149.065 – 212.021 RbY = 112.9585 ~ 112.96 ∑ƒy=0 0 = RaY + 112.96 – 116.4037 – 42.59 – 49.8873 RaY = 95.921 ~ 95.92 x/y = 95.92/20.4837 --- 1 x + y = 3.5 --- 2 x/(3.5-x) = 95.92/20.4837 20.4837x = 335.72 – 95.92x x = 2.8841 y = 3.5 – 2.8841 = 0.6159 Positive area = 1/2 (95.92) (2.8841) = 138.3647 ~ 138 Negative area = [1/2 (1.5) (63.0737+ 112.96)] + [1/2 (0.6159) (20.4837)] = 132.0253 + 6.308 = 138.3333 ~ 138 x = 1/2 × 20.4837 × 0.6159 = 6.308
  • 19. Tan Sheau Hui 0319235 19 | P a g e Beam Calculation 5. Beam D-E1/4.1 (First Floor) First floor plan Structural plan Basic information Slab thickness : 0.15m Wall thickness: 0.15m Wall height : 3m Beam size : Primary beam : 0.2m × 0.4m : Secondary beam: 0.2m × 0.3m Column size : 0.3m x 0.4m x 3m Brick wall : 19kN/m2 RC : 24kN/m3 Live Load : Living area : 1.5kN/m2 : Bedroom : 1.5kN/m2 : Bathroom : 2.0kN/m2 : Kitchen : 3.0kN/m2
  • 20. Tan Sheau Hui 0319235 20 | P a g e Dead Load Slab self-weight = 0.15m × 24kN/m2 = 3.6kN/m2 Dead load on slab D-E/4-4.1 = 3.6kN/m2 × (1.025m/2) = 1.845kN/m Dead load on slab E-E1/4-4.1 = 3.6kN/m2 × (0.85m/2) × 2/3 = 1.02kN/m Brick wall weight = 3m × 0.15m × 19kN/m2 = 8.55kN/m Beam self-weight = 0.2m × 0.3m × 24kN/m2 = 1.44kN/m Total Dead Load For D-E = 1.845 + 8.55 + 1.44 = 11.835kN/m For E-E1 = 1.02 + 8.55 + 1.44 = 11.01kN/m
  • 21. Tan Sheau Hui 0319235 21 | P a g e Live Load Live load on slab D-E/4-4.1 = 1.5kN/m2 × (1.025m/2) = 0.7688kN/m Live load on slab E-E1/4-4.1 = 1.5kN/m2 × (0.85m/2) × 2/3 = 0.425kN/m Total Live Load For D-E = 0.7688kN/m For E-E1 = 0.425kN/m Ultimate Load Ultimate dead load D-E = 11.835kN/m × 1.4 = 16.597kN/m Ultimate dead load E-E1 = 11.01kN/m × 1.4 = 15.414kN/m Ultimate live load D-E = 0.7688kN/m × 1.6 = 1.23kN/m Ultimate live load E-E1 = 0.425kN/m × 1.6 = 0.68kN/m Total ultimate load D-E = 16.597kN/m + 1.23kN/m = 17.827kN/m Total ultimate load E-E1 = 15.414kN/m + 0.68kN/m = 16.094kN/m
  • 22. Tan Sheau Hui 0319235 22 | P a g e Ultimate Load Diagram ∑mA=0 0 = ReY(4) – 71.308(2) – 13.6799(4.425) 4ReY = 142.616 + 60.5336 ReY = 50.79 (Point load on beam E/3-4.1) ∑ƒy=0 0 = RdY + 50.79 – 71.308 – 13.6799 RdY = 34.2 x/(4 – x) = 37.108/34.2 34.2x = 148.432 – 34.2 x = 2.08 Positive area = [1/2 (34.2) (4.208)] + [1/2 (0.85) (13.682)] = 32.832 + 5.815 = 38.647 ~ 39 Negative area = 1/2 (2.08) (37.108) = 38.59 ~ 39
  • 23. Tan Sheau Hui 0319235 23 | P a g e Beam Calculation 6. Beam E/3-4.1 (First Floor) Ground floor plan Structural plan Basic information Slab thickness : 0.15m Wall thickness: 0.15m Wall height : 3m Beam size : Primary beam : 0.2m × 0.4m : Secondary beam: 0.2m × 0.3m Column size : 0.3m x 0.4m x 3m Brick wall : 19kN/m2 RC : 24kN/m3 Live Load : Living area : 1.5kN/m2 : Bedroom : 1.5kN/m2 : Bathroom : 2.0kN/m2 : Kitchen : 3.0kN/m2
  • 24. Tan Sheau Hui 0319235 24 | P a g e Dead Load Slab self-weight = 0.15m × 24kN/m3 = 3.6kN/m2 Dead load on slab D-E/3-4 = 3.6kN/m2 × (3.95m/2) × 2/3 = 4.71kN/m Dead load on slab E-E1/3-4 = 3.6kN/m2 × (0.85m/2) = 1.53kN/m Dead load on slab E-E1/4-4.1 = 3.6kN/m2 × (0.85m/2) = 1.53kN/m Beam self-weight = 0.2m × 0.4m × 24kN/m2 = 1.92kN/m Total Dead Load For 3-4 = 4.71 + 1.53 + 1.92 = 8.16kN/m For 4-4.1 = 1.53 + 1.92 = 3.45kN/m
  • 25. Tan Sheau Hui 0319235 25 | P a g e Live Load Live load on slab D-E/3-4 = 1.5kN/m2 × (3.925m × 2) × 2/3 = 1.9625kN/m Live load on slab E-E1/3-4 = 1.5kN/m2 × (0.85m/2) = 0.6375kN/m Live load on slab E-E1/4-4.1 = 1.5kN/m2 × (0.85m/2) = 0.6375kN/m Total Live Load For 3-4 = 1.9625 + 0.6375 = 2.6kN/m For 4-4.1 = 0.6375kN/m Ultimate Load Ultimate dead load 3-4 = 8.16kN/m × 1.4 = 11.424kN/m Ultimate dead load 4-4.1 = 3.45kN/m × 1.4 = 4.83kN/m Ultimate live load 3-4 = 2.6kN/m × 1.6 = 4.16kN/m Ultimate live load 4-4.1 = 0.6375kN/m × 1.6 = 1.02kN/m
  • 26. Tan Sheau Hui 0319235 26 | P a g e Total ultimate load 3-4 = 11.424 + 4.16 = 15.584kN/m Total ultimate load 4-4.1 = 4.83 + 1.02 = 5.85kN/m Ultimate Load Diagram Point load 50.79kN/m taken from 5. Beam D-E1/4.1 ∑mA=0 0 = R4Y(3.925) – 61.1672(1.9625) – 5.9963(4.4375) – 50.79(4.95) 3.925R4Y = 120.0406 + 26.6086 + 251.4105 R4Y = 101.4165 ∑ƒy=0 0 = R3Y + 101.4165 – 61.1672 – 5.9963 – 50.79 R3Y = 16.537 x/(3.925 – x) = 44.6302/16.537 16.537x = 175.17 – 44.6302x x = 2.86 Positive area = [1/2 (16.537) (3.925 – 2.86)] + [1/2 (56.7863 + 50.79) (1.025)] = 8.806 + 55.1329 = 63.9 ~ 64 Negative area = 1/2 (44.6302) (2.86) = 63.8212 ~ 64
  • 27. Tan Sheau Hui 0319235 27 | P a g e Column Calculation
  • 28. Tan Sheau Hui 0319235 28 | P a g e Column Calculation 1. Column B4 Ground floor plan First floor plan Ground floor roof plan First floor roof plan (Column B4 does not touch ground floor roof structure)
  • 29. Tan Sheau Hui 0319235 29 | P a g e Ground floor structural plan First floor structural plan First floor structural plan Basic information Height of the floors : 3m Brick wall thickness : 150mm Dead Load= 3m × 0.15m × 19 kN/m3 = 8.55kN/m Beam size : Primary beam : 0.2m × 0.4m Dead Load= 0.2 m × 0.4 m × 24 kN/m3 = 1.92kN/m : Secondary beam: 0.2m × 0.3m Dead Load= 0.2 m × 0.3 m × 24 kN/m3 = 1.44kN/m Slab thickness : 150mm, Dead Load= 0.15m × 24 kN/m3 = 3.6 kN/m2 Column size : 0.3m × 0.4m × 3m
  • 30. Tan Sheau Hui 0319235 30 | P a g e Dead Load= 0.3m × 0.4m × 3m × 24 kN/m3 = 8.64 kN Live Load : Living area : 1.5kN/m2 : Bedroom : 1.5kN/m2 : Bathroom : 2.0kN/m2 : Kitchen : 3.0kN/m2 First Floor Roof Level Total slab area = (1.926m + 1.025m) (2.5m + 2.175m) = 2.9875m × 4.675m = 13.97m2 Total beam length = 2.5m + 1.9625m + 2.175m + 1.025m = 7.66m Dead Load Slab = 13.97m2 × 3.6kN/m2 = 50.292kN Roof beam = 7.66m × 1.08kN/m = 8.2728kN Total dead load = 50.292kN + 8.2728kN = 58.5648kN First Floor Total slab area = (1.9625m + 1.025m) (2.5m + 2.175m) = 2.9875m × 4.675m = 13.97m2 Total beam length Primary = 2.5m + 1.9625m + 2.175m + 1.025m = 7.66m Secondary = 1.9625m + 1.025m + 2.5m + 2.175m = 7.66m
  • 31. Tan Sheau Hui 0319235 31 | P a g e Dead Load Walls (none) Slabs = 13.97m2 × 3.6kN/m2 = 50.292kN Beams Primary = 7.66m × 1.92kN/m = 14.7072kN Secondary = 7.66m × 1.44kN/m = 11.03m Column = 8.64kN Total dead load = 50.292kN +14.7072kN + 11.03m + 8.64kN = 84.6692kN Ground Floor Total slab area = 1.9625m × 2.175m = 4.14m2 Total beam length Primary beam= 1.9625m + 1.9625m + 2.175m = 6.1m Secondary beam= 1.9625m Total beam = 6.1m + 1.9625m = 8.0625m Total wall length = 8.0625m Dead Load Walls = 8.0625m × 8.55kN/m = 68.934kN Slabs = 4.14m2 × 3.6kN/m2 = 14.904kN Beams Primary = 6.1m × 1.92kN/m = 11.712kN Secondary = 1.9625m × 1.44kN/m
  • 32. Tan Sheau Hui 0319235 32 | P a g e = 2.826kN Column = 8.64kN Total dead load = 68.934kN + 14.904kN + 11.712kN + 2.826kN + 8.64kN = 107.016kN Live Load First floor Bedroom = (2.9875m × 4.675m) (1.5kN/m2 ) = 20.95kN Ground Floor Toilet = (1.9625m × 2.175m) (2kN/m2 ) = 8.54kN Kitchen = (1.9625m × 2.175m) (3kN/m2 ) = 12.81kN Total Dead Load = 58.5648kN + 84.6692kN + 107.016kN = 250.25kN Total Live Load = 20.59kN + 8.54kN + 12.81kN = 42.3kN
  • 33. Tan Sheau Hui 0319235 33 | P a g e Ultimate load on column B4 Ultimate dead load = 250.25kN × 1.4 = 350.35kN Ultimate live load = 42.3kN × 1.6 = 67.68kN Total ultimate load = 350.35kN + 67.68kN = 418.03kN N = 0.4fcuAc + 0.8 fyAsc N = capacity of concrete Fcu = concrete strength (N/mm2) Ac = cross section of concrete column fcu = yield strength of steel (N/mm2) Asc = steel content in a column Given that fcu = 30N/mm2 and fy = 460N/mm2. Assuming percentage of steel reinforcement in a rectangular concrete column is 2%, determine the capacity of the column. Ac = 300 × 400 = 120,000 Asc = 2 % × 120,000 = 2,400 N = 0.4fcuAc + 0.8 fyAsc = 0.4(30)(120000) + 0.8(460)(2400) = 1440,000 + 883,200 = 2323200 N = 2323.2kN Thus, this column can sustain any ultimate load below 2323.2 kN.
  • 34. Tan Sheau Hui 0319235 34 | P a g e Column Calculation 2. Column E3 Ground floor plan First floor plan Ground floor roof plan First floor roof plan
  • 35. Tan Sheau Hui 0319235 35 | P a g e Ground floor structural plan First floor structural plan Ground floor structural plan First floor structural plan Basic information Height of the floors : 3m Brick wall thickness : 150mm Dead Load= 3m x 0.15m x 19 kN/m3 = 8.55kN/m Beam size : Primary beam : 0.2m x 0.4m Dead Load= 0.2 m x 0.4 m x 24 kN/m3 = 1.92kN/m : Secondary beam: 0.2m x 0.3m Dead Load= 0.2 m x 0.3 m x 24 kN/m3 = 1.44kN/m Slab thickness : 150mm, Dead Load= 0.15m x 24 kN/m3 = 3.6 kN/m2 Column size : 0.3m x 0.4m x 3m
  • 36. Tan Sheau Hui 0319235 36 | P a g e Dead Load= 0.3m x 0.4m x 3m x 24 kN/m3 = 8.64 kN Live Load : Living area : 1.5kN/m2 : Bedroom : 1.5kN/m2 : Bathroom : 2.0kN/m2 : Kitchen : 3.0kN/m2 First Floor Roof Level Total slab area = (2.0375m + 1.9625m) (2m + 0.85m) = 4m × 2.85m = 11.4m2 Total beam length = 2.0375m + 1.9625m + 2m + 0.85m = 6.85m Dead Load Slab = 11.4m2 × 3.6kN/m2 = 41.04kN Roof beam = 6.85m × 1.92kN/m = 13.152kN Total dead load = 41.04kN + 13.152kN = 54.192kN First Floor Total slab area = (2.0375m + 1.9625m) (2m + 0.85m) = 4m × 2.85m = 11.4m2 Total beam length Primary = 2.0375m + 1.9625m + 2m + 0.85m = 6.85m Secondary = 2.02375m + 1.9625m = 4m Total wall length = 2m + 0.85m = 2.85m
  • 37. Tan Sheau Hui 0319235 37 | P a g e Dead Load Walls = 2.85m × 8.55kN/m = 24.3675kN Slabs = 11.4m2 × 3.6kN/m2 = 41.04kN Beams Primary = 6.85m × 1.92kN/m = 13.152kN Secondary = 4m × 1.44kN/m = 5.76kN Column = 8.64kN Total dead load = 24.3675kN + 41.04kN + 13.152kN + 5.76kN + 8.64kN = 92.96kN Ground Floor Roof Level Total slab area = (2.0375m × 5.075m) + (1.9625m × 3.075m) = 10.3403m2 + 6.0347m2 = 16.375m2 Total beam length = 2.0375m + 1.9625m + 2m + 3.075m = 9.075m Dead Load Slab = 16.375m2 × 3.6kN/m2 = 58.95kN Roof beam = 9.075m × 1.92kN/m = 17.424kN Total dead load = 58.95kN + 17.424kN = 76.374kN Ground Floor Total slab area = (1.9625m) (2m + 1.5375m) = 1.9625m × 3.5375m = 6.9423m2
  • 38. Tan Sheau Hui 0319235 38 | P a g e Total beam length = 1.9625m + 2m + 1.5375m = 5.5m Total wall length = 2m + 1.5375m = 3.5375m Dead Load Walls = 3.5375m × 8.55kN/m = 30.2456kN Slabs = 6.9423m2 × 3.6kN/m2 = 24.9923kN Beams = 5.5m × 1.92kN/m = 10.56kN Column = 8.64kN Total dead load = 30.2456kN + 24.9923kN + 10.56kN + 8.64kN = 74.4379kN Live Load First floor Toilet = (2.85m × 2.0375m) × 2kN/m2 = 11.6138kN Bedroom = (2.85m × 1.9625m) × 1.5kN/m2 = 8.3897kN Ground Floor Living & dining = (1.9625m × 3.5375m) × 1.5kN/m2 = 10.4135kN Total Dead Load = 54.192kN + 92.96kN + 76.374kN + 74.4379kN = 297.905kN Total Live Load = 11.6138kN + 8.3897kN + 10.4135kN = 30.417kN
  • 39. Tan Sheau Hui 0319235 39 | P a g e Ultimate load on column E3 Ultimate dead load = 297.905kN × 1.4 = 417.067kN Ultimate live load = 30.417kN × 1.6 = 48.6672kN Total ultimate load = 417.067kN + 48.6672kN = 465.7342kN N = 0.4fcuAc + 0.8 fyAsc N = capacity of concrete Fcu = concrete strength (N/mm2) Ac = cross section of concrete column fcu = yield strength of steel (N/mm2) Asc = steel content in a column Given that fcu = 30N/mm2 and fy = 460N/mm2. Assuming percentage of steel reinforcement in a rectangular concrete column is 2%, determine the capacity of the column. Ac = 300 x 400 = 120,000 Asc = 2 % x 120,000 = 2,400 N = 0.4fcuAc + 0.8 fyAsc = 0.4(30)(120000) + 0.8(460)(2400) = 1440,000 + 883,200 = 2323200 N = 2323.2kN Thus, this column can sustain any ultimate load below 2323.2 kN.
  • 40. Tan Sheau Hui 0319235 40 | P a g e Column Calculation 3. Column E4 Ground floor plan First floor plan Ground floor roof plan First floor roof plan
  • 41. Tan Sheau Hui 0319235 41 | P a g e Ground floor structural plan First floor structural plan Ground floor structural plan First floor structural plan Basic information Height of the floors : 3m Brick wall thickness : 150mm Dead Load= 3m x 0.15m x 19 kN/m3 = 8.55kN/m Beam size : Primary beam : 0.2m x 0.4m Dead Load= 0.2 m x 0.4 m x 24 kN/m3 = 1.92kN/m : Secondary beam: 0.2m x 0.3m Dead Load= 0.2 m x 0.3 m x 24 kN/m3 = 1.44kN/m Slab thickness : 150mm, Dead Load= 0.15m x 24 kN/m3 = 3.6 kN/m2
  • 42. Tan Sheau Hui 0319235 42 | P a g e Column size : 0.3m x 0.4m x 3m Dead Load= 0.3m x 0.4m x 3m x 24 kN/m3 = 8.64 kN Live Load : Living area : 1.5kN/m2 : Bedroom : 1.5kN/m2 : Bathroom : 2.0kN/m2 : Kitchen : 3.0kN/m2 First Floor Roof Level Total slab area = (2m + 0.85m) (1.9625m + 1.025m) = 2.85m × 2.9875m = 8.51m2 Total beam length = 2m + 0.85m + 1.9625m + 1.025m + 1.9625m = 7.8m Dead Load Slab = 8.51m2 × 3.6kN/m2 = 30.636kN Roof beam = 7.8m × 1.92kN/m = 14.976kN Total dead load = 30.636kN + 14.976kN = 45.612kN First Floor Total slab area = (2m + 0.85m) (1.9625m + 1.025m) = 2.85m × 2.9875m = 8.5144m2 ͌ 8.51m2 Total beam length Primary = 1.9625m + 1.025m + 2m + 0.85m = 5.84m Secondary = 2m + 0.85m + 1.025m + 1.9625m = 5.84m
  • 43. Tan Sheau Hui 0319235 43 | P a g e Dead Load Walls (none) Slabs = 8.51m2 × 3.6kN/m2 = 30.636kN Beams Primary = 5.84m × 1.92kN/m = 11.2128kN Secondary = 5.84m × 1.44kN/m = 8.41kN Column = 8.64kN Total dead load = 30.636kN + 11.2128kN + 8.64kN + 8.41kN = 58.9kN Ground Floor Roof Level Total slab area = 3.925m × 1.5375m = 6.0347m2 Total beam length = 3.925m + 1.5375m = 5.4625m Dead Load Slab = 6.0347m2 × 3.6kN/m2 = 21.7249kN Roof beam = 5.4625m × 1.92kN/m = 10.488kN Total dead load = 21.7249kN + 10.488kN = 32.2129kN Ground Floor Total slab area = (3.925m) (2m + 3.075m) = 3.925m × 5.075m = 19.9194m2 Total beam length = 3.925m + 5.075m = 9m
  • 44. Tan Sheau Hui 0319235 44 | P a g e Dead Load Walls (none) Slabs = 19.9194m2 × 3.6kN/m2 = 71.7098kN Beams = 9m × 1.92kN/m = 17.28kN Column = 8.64kN Total dead load = 71.7098kN + 17.28kN + 8.64kN = 97.6298kN Live Load First floor Bedroom = 8.51m2 × 1.5kN/m2 = 12.765kN Ground Floor Living & dining = 19.9194m2 × 1.5kN/m2 = 29.8791kN Total Dead Load = 41.8488kN + 32.2129kN + 58.9kN + 97.6298kN = 230.59kN Total Live Load = 12.765kN + 28.8791kN = 42.6441kN
  • 45. Tan Sheau Hui 0319235 45 | P a g e Ultimate load on column E4 Ultimate dead load = 230.59kN × 1.4 = 322.83kN Ultimate live load = 42.6441kN × 1.6 = 68.2306kN Total ultimate load = 322.83kN + 68.2306kN = 391.06kN N = 0.4fcuAc + 0.8 fyAsc N = capacity of concrete Fcu = concrete strength (N/mm2) Ac = cross section of concrete column fcu = yield strength of steel (N/mm2) Asc = steel content in a column Given that fcu = 30N/mm2 and fy = 460N/mm2. Assuming percentage of steel reinforcement in a rectangular concrete column is 2%, determine the capacity of the column. Ac = 300 x 400 = 120,000 Asc = 2 % x 120,000 = 2,400 N = 0.4fcuAc + 0.8 fyAsc = 0.4(30)(120000) + 0.8(460)(2400) = 1440,000 + 883,200 = 2323200 N = 2323.2kN Thus, this column can sustain any ultimate load below 2323.2 kN.