SlideShare a Scribd company logo
1 of 46
Download to read offline
BUILDING STRUCTURE (BLD60703)
STRUCTURAL ANALYSIS ON BUNGALOW
TUTOR: MR. ADIB RAMLI
CHAI PHEY CHIAT 0334480
HO PEI SAN 0332992
LI CHUN RON 0334555
TABLE OF CONTENTS
1.0 INTRODUCTION
2.0 ARCHITECTURAL PLANS
2.1 GROUND FLOOR PLAN
2.2 FIRST FLOOR PLAN
2.3 ROOF PLAN
3.0 STRUCTURAL BRIEF
4.0 STRUCTURAL PLANS
4.1 GROUND FLOOR STRUCTURAL PLAN
4.2 FIRST FLOOR STRUCTURAL PLAN
4.3 ROOF STRUCTURAL PLAN
5.0 LOAD DISTRIBUTION PLAN
5.1 GROUND FLOOR LOAD DISTRIBUTION PLAN
5.2 FIRST FLOOR LOAD DISTRIBUTION PLAN
6.0 COLUMN TRIBUTARY AREA DIAGRAMS
6.1 GROUND FLOOR COLUMNS TRIBUTARY AREA DIAGRAM
6.2 FIRST FLOOR COLUMNS TRIBUTARY AREA DIAGRAM
7.0 CHAI PHEY CHIAT - BEAM AND COLUMN ANALYSIS
7.1 SELECTED BEAMS AND COLUMNS
7.2 BEAM ANALYSIS
7.2.1 UNIFORM DISTRIBUTED LOAD
7.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD
7.3 COLUMN ANALYSIS
7.3.1 PERIMETER COLUMN
7.3.2 INTERNAL COLUMN
8.0 LI CHUN RON - BEAM AND COLUMN ANALYSIS
8.1 SELECTED BEAMS AND COLUMNS
8.2 BEAM ANALYSIS
8.2.1 UNIFORM DISTRIBUTED LOAD
8.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD
8.3 COLUMN ANALYSIS
8.3.1 PERIMETER COLUMN
8.3.2 INTERNAL COLUMN
9.0 REFERENCES
1.0 INTRODUCTION
The objectives of this project are to introduce us to the basic process of structural design of
a two-storey bungalow to gain a holistic structural design experience including the basic
concepts in structural design, engineering considerations in building structure,
quantification of loads and stresses, as well as the estimation of the sizes of structural
members. Through this assignment, we will be able to apply structural theory in designing
structural elements, analyse loading conditions using simple mathematical calculation and
illustrate the manipulation of loading forces graphically.
The chosen building is a two storey bungalow located on Lot 1404, block 16 at Lorong
Hua Joo Park 8A1, Kuching Sarawak.
The architectural plans were refined and modified leaving only grid lines, dimensions, and
room labels. Then a list of drawings were produced in order to suit the requirements of the
assignment:
1. Ground Floor Structural Plan
2. First Floor Structural Plan
3. Roof Structural Plan
4. Ground Floor Load Distribution Plan
5. First Floor Load Distribution Plan
6. Roof Load Distribution Plan
7. Ground Floor Tributary Area Plan
8. First Floor Tributary Area Plan
9. Roof Tributary Area Plan
Group members were to choose 2 beams and 2 columns in order to conduct the structural
analysis and calculations:
1. One (1) beam with only uniform distributed load
2. One (1) beam with point load and uniform distributed load
3. One (1) perimeter column (from roof to ground level)
4. One (1) internal column (from roof to ground floor)
It is to produce load diagrams, shear forces diagram and bending moment diagram to
clearly illustrates the loads and forces acting on the structure. Also, the column, and the
ultimate load for the column is analysed.
2.0 ARCHITECTURAL PLANS
2.1 GROUND FLOOR PLAN
GROUND FLOOR PLAN
SCALE 1:150
2.0 ARCHITECTURAL PLANS
2.2 FIRST FLOOR PLAN
FIRST FLOOR PLAN
SCALE 1:150
2.0 ARCHITECTURAL PLANS
2.3 ROOF PLAN
ROOF PLAN
SCALE 1:150
3.0 STRUCTURAL BRIEF
Structure Dimension
Type 1 Column 0.3m X 0.3m X 0.3m (Length X Width X Height)
Type 2 Column 0.15m X 0.4m X 0.3m (Length X Width X Height)
Beam 0.15m X 0.3m (Width X Depth)
Slab 0.15m (Thickness)
Wall 0.15m X 3.0m (Thickness X Height)
Dimension of the Structure
Standard Weight of Material (Refer to UBBL Fourth Schedule)
Material Standard Weight (kN/m³)
Reinforced Concrete 24
Brickwork 19
Structure Self-Weight
Structure Calculation Self-Weight
Type 1 Column 0.3m X 0.3m X 3.0m X 24 kN/m³ 6.5 kN
Type 2 Column 0.15m X 0.4m X 3.0m X 24 kN/m³ 4.32 kN
Beam 0.15m X 0.3m X 24 kN/m³ 1.08 kN/m
Slab 0.15m X 24 kN/m³ 3.6 kN/m²
Brick Wall 0.15m X 3.0m X 19 kN/m³ 8.55 kN/m
Roof - 1.0 kN/m²
4.0 STRUCTURAL PLANS
4.1 GROUND FLOOR STRUCTURAL PLAN
GROUND FLOOR STRUCTURAL PLAN
SCALE 1:150
4.0 STRUCTURAL PLANS
4.2 FIRST FLOOR STRUCTURAL PLAN
FIRST FLOOR STRUCTURAL PLAN
SCALE 1:150
4.0 STRUCTURAL PLANS
4.3 ROOF STRUCTURAL PLAN
ROOF STRUCTURAL PLAN
SCALE 1:150
5.0 LOAD DISTRIBUTION PLANS
5.1 GROUND FLOOR LOAD DISTRIBUTION PLAN
GROUND FLOOR LOAD DISTRIBUTION PLAN
SCALE 1:150
5.0 LOAD DISTRIBUTION PLANS
5.2 FIRST FLOOR LOAD DISTRIBUTION PLAN
FIRST FLOOR LOAD DISTRIBUTION PLAN
SCALE 1:150
5.0 LOAD DISTRIBUTION PLANS
5.3 ROOF LOAD DISTRIBUTION PLAN
ROOF LOAD DISTRIBUTION PLAN
SCALE 1:150
6.0 TRIBUTARY AREA PLANS
6.1 GROUND FLOOR TRIBUTARY AREA PLAN
GROUND FLOOR TRIBUTARY AREA PLAN
SCALE 1:150
6.0 TRIBUTARY AREA PLANS
6.2 FIRST FLOOR TRIBUTARY AREA PLAN
FIRST FLOOR TRIBUTARY AREA PLAN
SCALE 1:150
6.0 TRIBUTARY AREA PLANS
6.3 ROOF TRIBUTARY AREA PLAN
ROOF TRIBUTARY AREA PLAN
SCALE 1:150
7.0 CHAI PHEY CHIAT
BEAM AND COLUMN ANALYSIS
7.1 SELECTED BEAMS AND COLUMNS
7.2 BEAM ANALYSIS
7.2.1 UNIFORM DISTRIBUTED LOAD
7.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD
7.3 COLUMN ANALYSIS
7.3.1 PERIMETER COLUMN
7.3.2 INTERIOR COLUMN
7.0 CHAI PHEY CHIAT - BEAM AND COLUMN ANALYSIS
7.1 SELECTED BEAMS AND COLUMNS
Point Load & Uniform Distributed Load
Beam E/1-2
Uniform Distributed Load
Beam 1b/E-D
Perimeter Column
Column E1
Interior Column
Column E2
7.2 BEAM ANALYSIS
7.2.1 UNIFORM DISTRIBUTED LOAD
Ground Floor Beam 1b/E-D
Ground Floor Beam 1b/E-D carries:
● Dead Load from Beam Self Weight: Gridline E-D
● Dead Load from Brick Wall Weight: Gridline E-D
● Dead Load from Slab:
i) Gridline E-D/1-2
ii) Gridline E-D/1b-2
● Live Load from Slab:
i) Gridline E-D/1-2
ii) Gridline E-D/1b-2
Ground Floor Structural Plan Ground Floor Load Distribution Plan
7.2.1 UNIFORM DISTRIBUTED LOAD
Ground Floor Beam 1b/E-D
Beam Self-Weight
= 0.15m X 0.3m X 24kN/m³
= 1.08 kN/m
Dead Load
Brick Wall Weight
= 0.15m X 3m X 19kN/m³
= 8.55 kN/m
Slab E-D/1-1b
= (0.15m X 24kN/m³) X (1.625 / 2)
= 2.925 kN/m
Slab E-D/1b-2
= (0.15m X 24kN/m³) X (1.525m / 2)
= 2.745 kN/m
Total Dead Load
= (1.08 + 8.55 + 2.925 + 2.745) kN/m
= 15.25 kN/m
7.2.1 UNIFORM DISTRIBUTED LOAD
Ground Floor Beam 1b/E-D
Slab E-D/1-1b
= 1.5kN/m² X (1.625m / 2)
= 1.2188 kN/m
Live Load
Slab E-D/1b-2
= 1.5kN/m² X (1.525 / 2)
= 1.1438 kN/m
Total Live Load
= (1.2188 + 1.1438) kN/m
= 2.3626 kN/m
Ultimate Dead Load
= 15.25 kN/m X 1.4
= 21.35 kN/m
Ultimate Load
Ultimate Live Load
= 2.3626 kN/m X 1.6
= 3.78 kN/m
Total Ultimate Load
= (21.35 + 3.78) kN/m
= 25.13 kN/m
7.2.1 UNIFORM DISTRIBUTED LOAD
Ground Floor Beam 1b/E-D
25.13kN/m X 3m
= 75.39 kN
Resultant Force
∑M = 0
= (Ra X 3) + [ -75.39 X (3/2) ]
= 3Ra - 113.09
3Ra = 113.09
Ra = 37.7 kN
37.7kN - 75.39kN
= -37.7kN
Shear Force Diagram
Positive Area
37.7kN X 1.5m X ½
= 28.28 kNm
Reaction Force
∑Fy = 0
= Rb + 37.7 + 75.39
Rb = 37.7 kN
37.7kN + (-37.7kN)
= 0 kN
Bending Moment Diagram
Negative Area
37.7kN X 1.5m X ½
= 28.28 kNm
Positive Area = Negative Area
7.2 BEAM ANALYSIS
7.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD
Ground Floor Beam E/1-2
Ground Floor Beam E/1-2 carries:
● Dead Load from Beam Self Weight: Gridline 1-2
● Dead Load from Brick Wall Weight: Gridline 1-2
● Dead Load from Slab:
i) Gridline F-E/1-2
ii) Gridline E-D/1-1b
iii) Gridline E-D/1b-2
● Live Load from Slab:
i) Gridline F-E/1-2
ii) Gridline E-D/1-1b
iii) Gridline E-D/1b-2
● Point Load at Point E/1b from Beam 1b/E-D
Ground Floor Structural Plan Ground Floor Load Distribution Plan
7.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD
Ground Floor Beam E/1-2
Beam Self-Weight
= 0.15m X 0.3m X 24kN/m³
= 1.08 kN/m
Dead Load
Brick Wall Weight
= 0.15m X 3m X 19kN/m³
= 8.55 kN/m
Slab F-E/1-2
= (0.15m X 24kN/m³) X (3.15m / 2) X 2/3
= 3.78 kN/m
Slab E-D/1-1b
= (0.15m X 24kN/m³) X (1.625m / 2) X 2/3
= 1.95 kN/m
Total Dead Load for 1-1b
= (1.08 + 8.55 + 3.78 + 1.95) kN/m
= 15.36 kN/m
Slab E-D/1b-2
= (0.15m X 24kN/m³) X (1.525m / 2) X 2/3
= 1.83 kN/m
Total Dead Load for 1b-2
= (1.08 + 8.55 + 3.78 + 1.83) kN/m
= 15.24 kN/m
7.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD
Ground Floor Beam E/1-2
Slab E-D/1-1b
= 1.5kN/m² X (1.625m / 2) X 2/3
= 0.8125 kN/m
Live Load
Slab E-D/1b-2
= 1.5kN/m² X (1.525 / 2) X 2/3
= 0.7625 kN/m
Ultimate Load for 1-1b
= (15.36kN/m X 1.4) + (2.3875kN/m X 1.6)
= 25.32 kN/m
Ultimate Load
Ultimate Load for 1b-2
= (15.24kN/m X 1.4) + (2.3375kN/m X 1.6)
= 25.08 kN/m
Slab F-E/1-2
= 1.5kN/m² X (3.15m / 2) X 2/3
= 1.575 kN/m
Total Live Load for 1-1b
= (1.575 + 0.8125) kN/m
= 2.3875 kN/m
Total Live Load for 1b-2
= (1.575 + 0.7625) kN/m
= 2.3375 kN/m
Point Load from Beam 1b/E-D
= 37.7 kN
7.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD
Ground Floor Beam E/1-2
Point Load at Point 1b
= 37.7 kN
Resultant Force
∑M = 0
= (Ra X 3.15) + (-41.145 X 2.34)
+ (-37.7 X 1.525)
+ (-38.247 X 0.7625)
= 3.15Ra - 96.28 - 57.49 - 29.16
= 3.15Ra - 182.93
Ra = 58.07 kN
58.07kN - 41.145kN
= 16.925 kN
Shear Force Diagram
Positive Area
(58.07 + 16.925) kN X 1.625m X ½
= 74.98kN X 1.625m X ½
= 60.9 kNm
Reaction Force
∑Fy = 0
= 58.07 + Rb + (-41.15)
+ (-37.7) + (-38.25)
= Rb - 59.03
Rb = 59.03 kN
16.925kN - 37.7kN
= -20.775 kN
Bending Moment Diagram
Negative Area
(20.775 + 59.03)kN X 1.525m X ½
= 79.81kN X 1.525m X ½
= 60.9 kNm
Positive Area - Negative Area
= 60.9 kNm - 60.9 kNm
= 0 kNm
-20.775kN - 38.247 kN
= -59.03 kN
-59.03kN + 59.03 kN
= 0 kN
Positive Area = Negative Area
7.3 COLUMN ANALYSIS
7.3.1 PERIMETER COLUMN
Column E/1
No Column at position E/1
Roof Level
Dead Load
First Floor Level
Roof Weight
= (3.95m X 1.575m) X 1.0kN/m²
= 6.22 kN
Roof Beam
= (3.95m + 1.575m) X 1.08kN/m
= 5.967kN
Total Dead Load
= 6.22kN + 5.967kN
= 12.19 kN
Live Load
Roof Weight
= (3.95m X 1.575m) X 0.5kN/m²
= 3.11 kN
7.3.1 PERIMETER COLUMN
Column E/1
Dead Load
Ground Floor Level
Concrete Slab
= (3.95m X 1.575m) X 3.6kN/m²
= 22.4 kN
Beam Self Weight
= (3.95m + 1.575m) X 1.08kN/m
= 5.967kN
Brick Wall
= (1.5m + 1.575m) X 8.55kN/m
= 26.29 kN
Live Load
Concrete Slab
= (3.95m X 1.575m) X 1.5kN/m²
= 9.33 kN
Column Self Weight
= (0.3m X 0.3m X 3m) X 24kN/m³
= 6.48 kN
Total Dead Load
= (22.4 + 5.967 + 26.29 + 6.48) kN
= 61.14 kN
Ultimate Load
Total Dead Load
= 12.19kN + 61.15kN
= 73.33 kN
Total Live Load
= 3.11kN + 9.33kN
= 12.44 kN
Ultimate Dead Load
= 73.33kN X 1.4
= 102.7 kN
Total Live Load
= 12.44kN X 1.6
= 19.9 kN
Total Ultimate Load
= 102.7kN + 19.9kN
= 122.6 kN
7.3.2 INTERIOR COLUMN
Column E/2
Roof Level
First Floor Level
Dead Load
Roof Weight
= (1.95m X 1.5m) X 1.0kN/m²
= 2.925 kN
Roof Beam
= (1.95m + 1.5m) X 1.08kN/m
= 3.726 kN
Total Dead Load
= 2.925kN + 3.726kN
= 6.65 kN
Live Load
Roof Weight
= (1.95m X 1.5m) X 0.5kN/m²
= 1.4625 kN
Dead Load
Concrete Slab
= (1.95m X 1.5m) X 3.6kN/m²
= 10.53 kN
Beam Self Weight
= (3.95m + 3.525m) X 1.08kN/m
= 8.073 kN
Brick Wall
= (1.95m + 1.5m) X 8.55kN/m
= 29.5 kN
Column Self Weight
= (0.15m X 0.4m X 3m) X 24kN/m³
= 4.32 kN
Roof Weight
= (1.575m X 1.5m + 2.45m X 3.525) kN
X 1.0kN/m²
= 11.0 kN
Total Dead Load
= (10.53 + 11.0 + 8.073 + 29.5 + 4.32) kN
= 63.42 kN
7.3.2 INTERIOR COLUMN
Column E/2
First Floor Level
Live Load
Concrete Slab
= (1.95m X 1.5m) X 1.5kN/m²
= 4.39 kN
Roof Weight
= (1.575m X 1.5m + 2.45m X 3.525m)
X 0.5kN/m
= 5.5 kN
Total Live Load
= 4.39kN + 5.5kN
= 9.89 kN
Ground Floor Level
Dead Load
Concrete Slab
= (3.95 X 1.575 + 1.5 X 1.95)m²
X 3.6kN/m²
= 32.93 kN
Beam Self Weight
= (3.95m + 3.525m) X 1.08kN/m
= 8.073 kN
Brick Wall
= (3.525m + 1.5m + 0.5m) X 8.55kN/m
= 47.24 kN
Column Self Weight
= (0.15m X 0.4m X 3m) X 24kN/m³
= 4.32 kN
Total Dead Load
= (32.93 + 8.073 + 47.24 + 4.32) kN
= 92.56 kN
7.3.2 INTERIOR COLUMN
Column E/2
Ground Floor Level
Live Load
Concrete Slab
= (3.95 X 1.575 + 1.5 X 1.95)m²
X 1.5kN/m²
= 13.72 kN
Total Live Load
= 13.72 kN
Ultimate Load
Total Dead Load
= 6.65kN + 63.42kN + 92.56kN
= 162.63 kN
Total Live Load
= 1.4625kN + 9.89kN + 13.72kN
= 25.07 kN
Ultimate Dead Load
= 162.63kN X 1.4
= 227.68 kN
Total Live Load
= 25.07kN X 1.6
= 40.11 kN
Total Ultimate Load
= 227.68kN + 40.11kN
= 267.79 kN
8.0 LI CHUN RON
BEAM AND COLUMN ANALYSIS
8.1 SELECTED BEAMS AND COLUMNS
8.2 BEAM ANALYSIS
8.2.1 UNIFORM DISTRIBUTED LOAD
8.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD
8.3 COLUMN ANALYSIS
8.3.1 PERIMETER COLUMN
8.3.2 INTERIOR COLUMN
8.0 LI CHUN RON - BEAM AND COLUMN ANALYSIS
8.1 SELECTED BEAMS AND COLUMNS
Point Load & Uniform Distributed Load
Beam D/2-3
Uniform Distributed Load
Beam 2B/E-D
Perimeter Column
Column E3
Interior Column
Column D3
8.2 BEAM ANALYSIS
8.2.1 UNIFORM DISTRIBUTED LOAD
First Floor Beam 2B/E-D
First Floor Beam 2B/E-D carries:
● Dead Load from Beam Self Weight: Gridline E-D
● Dead Load from Brick Wall Weight: Gridline E-D
● Dead Load from Slab:
i) Gridline E-D/2-2B
ii) Gridline E-D/2B-3
● Live Load from Slab:
i) Gridline E-D/2-2B
ii) Gridline E-D/2B-3
First Floor Structural Plan First Floor Load Distribution Plan
8.2.1 UNIFORM DISTRIBUTED LOAD
First Floor Beam 2B/D-E
Beam Self-Weight
= 0.15m X 0.3m X 24kN/m³
= 1.08 kN/m
Dead Load
Brick Wall Weight
= 0.15m X 3m X 19kN/m³
= 8.55 kN/m
Slab E-D / 2-2B
= (0.15m X 24kN/m³) X (2.300m / 2)
= 4.14 kN/m
Slab E-D / 2B-3
= (0.15m X 24kN/m³) X (1.870m / 2)
= 3.366 kN/m
Total Dead Load
= (1.08 + 8.55 + 4.14 + 3.366) kN/m
= 17.136 kN/m
8.2.1 UNIFORM DISTRIBUTED LOAD
First Floor Beam 2B/D-E
Slab D-E/2-2B
= 1.5kN/m² X (2.300m / 2)
= 1.725 kN/m
Live Load
Slab D-E/2B-3
= 1.5kN/m² X (1.870m / 2)
= 1.403 kN/m
Total Live Load
= (1.725 + 1.403kN/m)
= 3.128 kN/m
Ultimate Dead Load
= 17.136 kN/m X 1.4
= 23.9904 kN/m
Ultimate Load
Ultimate Live Load
= 3.128 kN/m X 1.6
= 5.0048 kN/m
Total Ultimate Load
= (23.9904kN/m + 5.0048kN/m)
= 28.9952 kN/m
8.2.1 UNIFORM DISTRIBUTED LOAD
First FLoor Beam D-E / 2B
(Ra x 3.000) - (28.9952 x 3.000) x (3.000 ÷ 2)
3.000Ra = 130.478
Ra = 43.49 kN
43.49 kN - 86.9856 kN
= -43.49 kN
Shear Force Diagram
Positive Area
43.39 kN X 1.5m X ½
= 32.54 kNm
Reaction Force
43.49 kN + (-43.49 kN)
= 0 kN
Bending Moment Diagram
Negative Area
43.39 kN X 1.5m X ½
= 32.54 kNm
Positive Area = Negative Area
43.49 - (28.9952 x 3.00) Rb = 0
Rb = 43.49 kN
Resultant Force
28.9952 kN/m x3m
=86.9856 kN
0 kN
( + )
( - )
Ra = 43.49 kN
43.49 kN + (-43.49 kN)
= 0 kN
43.49 kN - 86.9856 kN
= -43.49 kN
0 kN 0 kN
32.52 kNm
First Floor Structural Plan First Floor Load Distribution Plan
8.2 BEAM ANALYSIS
8.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD
First Floor Beam D/2-3
First Floor Beam D/2-3 carries:
● Dead Load from Beam Self Weight: Gridline 2-3
● Dead Load from Brick Wall Weight: Gridline 2-3
● Dead Load from Slab:
i) Gridline E-D / 2-2B
ii) Gridline E-D / 2B-3
iii) Gridline D-C / 1C-3
● Live Load from Slab:
i) Gridline E-D / 2-2B
ii) Gridline E-D / 2B-3
iii) Gridline D-C / 1C-3
● Point Load at D / 2B from Beam 2B / E-D
8.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD
First Floor Beam D / 2-3
Beam Self-Weight
= 0.15m X 0.3m X 24kN/m³
= 1.08 kN/m
Dead Load
Brick Wall Weight
= 0.15m X 3m X 19kN/m³
= 8.55 kN/m
Slab D-C / 1C-3
= (0.15m X 24kN/m³) X (5.1m / 2) X 2/3
= 6.12 kN/m
Slab E-D / 2-2B
= (0.15m X 24kN/m³) X (2.030m / 2) X 2/3
= 2.436 kN/m
Total Dead Load for 2-2B
= (1.08 + 8.55 + 6.12 + 2.436) kN/m
= 18.186 kN/m
Slab E-D / 2B-3
= (0.15m X 24kN/m³) X (1.870m / 2) X 2/3
= 2.244 kN/m
Total Dead Load for 2B-3
= (1.08 + 8.55 + 6.12 + 2.244) kN/m
= 17.994 kN/m
8.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD
First Floor Beam D / 2-3
Slab E-D / 2-2B
= 1.5kN/m² X (1.625m / 2) X 2/3
= 0.8125 kN/m
Live Load
Slab E-D / 2B-3
= 1.5kN/m² X (1.525 / 2) X 2/3
= 0.7625 kN/m
Ultimate Load for 2-2B
= (18.186kN/m X 1.4) + (3.3625kN/m X 1.6)
= 30.8404kN/m
Ultimate Load
Ultimate Load for 2B-3
= (17.994kN/m X 1.4) + (3.3125kN/m X 1.6)
= 30.4916kN/m
Slab D-C / 1C-3
= 1.5kN/m² X (5.1m / 2) X 2/3
= 2.55 kN/m
Total Live Load for 2-2B
= (2.55 + 0.8125) kN/m
= 3.3625 kN/m
Total Live Load for 2B-3
= (2.55 + 0.7625) kN/m
=3.3125 kN/m
Point Load from Beam 2B / E-D
= 43.49 kN
8.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD
Ground Floor Beam D / 2-3
Point Load at Point 2B / E-D
= 43.39 kN
Resultant Force
∑M = 0
= (Ra X 3.9) + (-62.606 X 2.9)
+ (-43.49 X 1.95)
+ (-57.019 X 0.935)
= 3.9Ra - 181.6 - 84.8 - 53.3
= 3.9Ra - 318.7
Ra = 81.72 kN
81.72kN - 62.6kN
= 19.12 kN
Shear Force Diagram
Positive Area
(81.72 + 19.12) kN X 2.030m X ½
= 100.84kN X 2.030m X ½
= 102.4 kNm
Reaction Force
∑Fy = 0
= 81.72 + Rb + (-62.6)
+ (-43.49) + (-57.02)
= Rb - 81.39
Rb = 81.39kN
19.12kN - 43.49kN
= -24.37 kN
Bending Moment Diagram
Negative Area
(24.37 + 81.39)kN X 1.870m X ½
=105.8kN X 1.870m X ½
= 98.9 kNm
Positive Area - Negative Area
= 102.4 kNm - 98.9 kNm
= 3.5 kNm = 0
-24.37kN - 57.02kN
= -81.39 kN
-81.39kN + 81.39kN
= 0 kN
Positive Area = Negative Area
( + )
( - )
Ra = 81.72 kN
19.12kN - 43.49kN
= -24.37 kN
0 kN
0 kN
102.4 kNm
0 kN
0 kN
Rb = 81.39 kN
81.72kN - 62.6kN
= 19.12 kN
8.3 COLUMN ANALYSIS
8.3.1 PERIMETER COLUMN
Column E / 3
Dead Load
Beam :
(3.0 + 1.95 + 1.95 + 2.55) x 0.15 x 0.45 x 24
= 15.3kN
Roof :
3.0 x (1.95 + 2.55) x 1.0kN/m2
=13.5kN
Total Dead load = 28.8kN
Live Load
Slab:
(1.95 + 2.55) x 3 x 0.5kN/m2
=6.75kN
Ultimate Load:
=(1.4 x 28.8) + (1.6 x 6.75)
= 40.32 + 10.8
= 51.12kN
Roof Level
Dead Load
Beam :
24kN/m2 x 0.15 x 0.45 x (5.1 + 1.9 + 1.8)
=14.28kN
Slab :
24kN/m2 x 0.15 x 5.1 x 3.7
=67.9kN
Brick Wall:
19kN/m2 x 0.15 x 3m x (5.1 + 1.9 + 1.8)
=74.8
Total Dead load = 67.9 + 14.26 + 74.8
=156.96kN
Live Load
Slab:
1.5kN/m2 x 0.15 x 5.1 x 3.7
=4.24kN
Ultimate Load:
(1.4 x 156.96kN) + (1.6 x 4.24kN)
= 219.7 + 6.8
= 226.5kN
First Floor Level
8.3.1 PERIMETER COLUMN
Column E / 3
Ground Floor Level
Ultimate Load
Total Dead Load
= 96.56kN + 28.8kN + 156.9kN
= 282.26 kN
Total Live Load
= 14.175kN + 4.24kN + 6.75kN
= 25.165kN
Ultimate Dead Load
= 282.26kN X 1.4
= 395.164 kN
Total Live Load
= 25.165kN X 1.6
= 40.264 kN
Total Ultimate Load
= 395.164kN + 40.264kN
= 435.428 kN
Dead Load
Beam :
(1.95 + 1.2 + 3.0) x 0.15 x 0.45 x 24
=9.96kN
Slab :
(1.95 + 1.2) x 3.0 x 0.15 x 24
=34.02kN
Brick Wall:
(1.95 + 1.2 + 3.0) x 0.15 x 19 x 3
=52.58kN
Total Dead load = 96.56kN
Live Load
Slab:
(1.95 + 1.2) x 3.0 x 1.5
=14.175kN
Ultimate Load:
(1.4 x 96.56kN) + (1.6 x 14.175kN)
=135.18 + 22.68
=157.86kN
8.3.2 INTERIOR COLUMN
Column D / 3
Roof Level
Dead Load
Beam :
24kN2 x 0.15 x 0.45 x (3.0 + 4.5)
=12.15kN
Roof :
1.0kN/m2 x 3.0 x 4.5
=13.5kN
Total Dead load = 13.5kN + 12.15kN
=25.65kN
Live Load
Roof:
0.5kN/m2 x 4.5 x 3.0
=6.75kN
Ultimate Load:
=(1.4 x 25.65) + (1.6 x 6.75)
= 35.91 + 10.8
=46.71kN
Dead Load
Beam :
24kN2 x 0.15 x 0.45 x (3.0 + 3.9 + 1.2)
=9.72kN
Slab :
24kN/m2 x 0.15m x 3.9 x 1.2
=16.8kN
Brick Wall:
19kN/m2 x 0.15m x 3m x (1.95 + 1.2 +1.95
+3.0)
=16.65kN
Total Dead load = 16.8 + 9.72 + 16.65
=43.17
Live Load
Slab:
1.5kN/m2 x 0.15m x 5.1 x 3.0
=3.44kN
Ultimate Load:
=(1.4 x 43.17) + (1.6 x 3.44)
=60.4 + 5.5
=65.9kN
First Floor Level
8.3.2 INTERIOR COLUMN
Column D / 3
Ground Floor Level
Ultimate Load
Total Dead Load
= 25.65kN + 43.17kN + 137.5kN
= 206.32 kN
Total Live Load
= 3.44kN + 3.44kN + 6.75kN
= 13.63 kN
Ultimate Dead Load
= 206.32kN X 1.4
= 288.85 kN
Total Live Load
= 13.63kN X 1.6
= 21.80 kN
Total Ultimate Load
= 288.85kN + 21.80kN
= 310.65 kN
Dead Load
Beam :
24kN2 x 0.15 x 0.45 x (3.0 + 3.9 + 1.2)
=9.72kN
Slab :
24kN/m2 x 0.15m x 5.1 x 3.0
=55.08kN
Brick Wall:
19kN/m2 x 0.15m x 3m x (3.0 + 3.9 + 1.2)
=69.3kN
Total Dead load = 55.08 + 13.12 + 69.3
=137.5kN
Live Load
Slab:
1.5kN/m2 x 0.15m x 5.1 x 3.0
=3.44kN
Ultimate Load:
=(1.4 x 137.5) + (1.6 x 3.44)
=192.5 + 5.5
=198kN
9.0 REFERENCES
Malaysia.; International Law Book Services. Legal Research Board, Uniform Building By
Law 1984. Kuala Lumpur : International Law Book Services, 2013.

More Related Content

What's hot

Sachpazis: 4 rc piles cap design with eccentricity example (bs8110 part1-1997)
Sachpazis: 4 rc piles cap design with eccentricity example (bs8110 part1-1997)Sachpazis: 4 rc piles cap design with eccentricity example (bs8110 part1-1997)
Sachpazis: 4 rc piles cap design with eccentricity example (bs8110 part1-1997)Dr.Costas Sachpazis
 
Numerical problem bearing capacity terzaghi , group pile capacity (usefulsear...
Numerical problem bearing capacity terzaghi , group pile capacity (usefulsear...Numerical problem bearing capacity terzaghi , group pile capacity (usefulsear...
Numerical problem bearing capacity terzaghi , group pile capacity (usefulsear...Make Mannan
 
Lecture 12 equivalent frame method
Lecture 12 equivalent frame methodLecture 12 equivalent frame method
Lecture 12 equivalent frame methodalialhussainawi
 
Basement wall design
Basement wall designBasement wall design
Basement wall designCETCBIM
 
Lecture 1. bearing capacity of soil
Lecture 1. bearing capacity of soilLecture 1. bearing capacity of soil
Lecture 1. bearing capacity of soilhusseinhadi2
 
Unconsolidated Undrained Test
Unconsolidated Undrained TestUnconsolidated Undrained Test
Unconsolidated Undrained TestPsyful Bappi
 
Numerical problem and solution on pile capacity (usefulsearch.org) ( usefuls...
Numerical problem and solution on pile capacity (usefulsearch.org) ( usefuls...Numerical problem and solution on pile capacity (usefulsearch.org) ( usefuls...
Numerical problem and solution on pile capacity (usefulsearch.org) ( usefuls...Make Mannan
 
Lecture-3-Column-Design.pdf
Lecture-3-Column-Design.pdfLecture-3-Column-Design.pdf
Lecture-3-Column-Design.pdfAberaMamoJaleta
 
Question and Answers on Terzaghi’s Bearing Capacity Theory (usefulsearch.org)...
Question and Answers on Terzaghi’s Bearing Capacity Theory (usefulsearch.org)...Question and Answers on Terzaghi’s Bearing Capacity Theory (usefulsearch.org)...
Question and Answers on Terzaghi’s Bearing Capacity Theory (usefulsearch.org)...Make Mannan
 
Problems on bearing capacity of soil
Problems on bearing capacity of soilProblems on bearing capacity of soil
Problems on bearing capacity of soilLatif Hyder Wadho
 
Chap-5-T-Girder Example-1.pdf
Chap-5-T-Girder Example-1.pdfChap-5-T-Girder Example-1.pdf
Chap-5-T-Girder Example-1.pdfAberaMamoJaleta
 
Design ppt
Design pptDesign ppt
Design ppttishu001
 
Pile Eccentricity Analysis for 2 Columns Combined Pilecap
Pile Eccentricity Analysis for 2 Columns Combined PilecapPile Eccentricity Analysis for 2 Columns Combined Pilecap
Pile Eccentricity Analysis for 2 Columns Combined Pilecapazhar ahmad
 
AS4100 Steel Design Webinar Worked Examples
AS4100 Steel Design Webinar Worked ExamplesAS4100 Steel Design Webinar Worked Examples
AS4100 Steel Design Webinar Worked ExamplesClearCalcs
 
Floor Plan calculation
Floor Plan calculationFloor Plan calculation
Floor Plan calculationkimberlywjs
 
METHOD AND ASSESSMENT FOR LOAD TEST.ppt
METHOD AND ASSESSMENT FOR LOAD TEST.pptMETHOD AND ASSESSMENT FOR LOAD TEST.ppt
METHOD AND ASSESSMENT FOR LOAD TEST.pptShaheedAzhar
 
Steel Warehouse Project
Steel Warehouse ProjectSteel Warehouse Project
Steel Warehouse ProjectJawad Shaukat
 
Lec05 Design of Rectangular Beams with Tension Steel only (Reinforced Concret...
Lec05 Design of Rectangular Beams with Tension Steel only (Reinforced Concret...Lec05 Design of Rectangular Beams with Tension Steel only (Reinforced Concret...
Lec05 Design of Rectangular Beams with Tension Steel only (Reinforced Concret...Hossam Shafiq II
 

What's hot (20)

Sachpazis: 4 rc piles cap design with eccentricity example (bs8110 part1-1997)
Sachpazis: 4 rc piles cap design with eccentricity example (bs8110 part1-1997)Sachpazis: 4 rc piles cap design with eccentricity example (bs8110 part1-1997)
Sachpazis: 4 rc piles cap design with eccentricity example (bs8110 part1-1997)
 
Numerical problem bearing capacity terzaghi , group pile capacity (usefulsear...
Numerical problem bearing capacity terzaghi , group pile capacity (usefulsear...Numerical problem bearing capacity terzaghi , group pile capacity (usefulsear...
Numerical problem bearing capacity terzaghi , group pile capacity (usefulsear...
 
Lecture 12 equivalent frame method
Lecture 12 equivalent frame methodLecture 12 equivalent frame method
Lecture 12 equivalent frame method
 
Ch 7 design of rcc footing
Ch 7 design of rcc footingCh 7 design of rcc footing
Ch 7 design of rcc footing
 
Basement wall design
Basement wall designBasement wall design
Basement wall design
 
Lecture 1. bearing capacity of soil
Lecture 1. bearing capacity of soilLecture 1. bearing capacity of soil
Lecture 1. bearing capacity of soil
 
Unconsolidated Undrained Test
Unconsolidated Undrained TestUnconsolidated Undrained Test
Unconsolidated Undrained Test
 
Numerical problem and solution on pile capacity (usefulsearch.org) ( usefuls...
Numerical problem and solution on pile capacity (usefulsearch.org) ( usefuls...Numerical problem and solution on pile capacity (usefulsearch.org) ( usefuls...
Numerical problem and solution on pile capacity (usefulsearch.org) ( usefuls...
 
Lecture-3-Column-Design.pdf
Lecture-3-Column-Design.pdfLecture-3-Column-Design.pdf
Lecture-3-Column-Design.pdf
 
Question and Answers on Terzaghi’s Bearing Capacity Theory (usefulsearch.org)...
Question and Answers on Terzaghi’s Bearing Capacity Theory (usefulsearch.org)...Question and Answers on Terzaghi’s Bearing Capacity Theory (usefulsearch.org)...
Question and Answers on Terzaghi’s Bearing Capacity Theory (usefulsearch.org)...
 
Problems on bearing capacity of soil
Problems on bearing capacity of soilProblems on bearing capacity of soil
Problems on bearing capacity of soil
 
Box culvert
Box culvertBox culvert
Box culvert
 
Chap-5-T-Girder Example-1.pdf
Chap-5-T-Girder Example-1.pdfChap-5-T-Girder Example-1.pdf
Chap-5-T-Girder Example-1.pdf
 
Design ppt
Design pptDesign ppt
Design ppt
 
Pile Eccentricity Analysis for 2 Columns Combined Pilecap
Pile Eccentricity Analysis for 2 Columns Combined PilecapPile Eccentricity Analysis for 2 Columns Combined Pilecap
Pile Eccentricity Analysis for 2 Columns Combined Pilecap
 
AS4100 Steel Design Webinar Worked Examples
AS4100 Steel Design Webinar Worked ExamplesAS4100 Steel Design Webinar Worked Examples
AS4100 Steel Design Webinar Worked Examples
 
Floor Plan calculation
Floor Plan calculationFloor Plan calculation
Floor Plan calculation
 
METHOD AND ASSESSMENT FOR LOAD TEST.ppt
METHOD AND ASSESSMENT FOR LOAD TEST.pptMETHOD AND ASSESSMENT FOR LOAD TEST.ppt
METHOD AND ASSESSMENT FOR LOAD TEST.ppt
 
Steel Warehouse Project
Steel Warehouse ProjectSteel Warehouse Project
Steel Warehouse Project
 
Lec05 Design of Rectangular Beams with Tension Steel only (Reinforced Concret...
Lec05 Design of Rectangular Beams with Tension Steel only (Reinforced Concret...Lec05 Design of Rectangular Beams with Tension Steel only (Reinforced Concret...
Lec05 Design of Rectangular Beams with Tension Steel only (Reinforced Concret...
 

Similar to Assignement 2: Structural Analysis

B structure final final
B structure final finalB structure final final
B structure final final杉 江紫
 
B structure final_c
B structure final_cB structure final_c
B structure final_cleejanett3
 
Structural analysis of a bungalow report
Structural analysis of a bungalow reportStructural analysis of a bungalow report
Structural analysis of a bungalow reportChengWei Chia
 
Structural Analysis of a Bungalow Report
Structural Analysis of a Bungalow ReportStructural Analysis of a Bungalow Report
Structural Analysis of a Bungalow Reportdouglasloon
 
Building Structures
Building StructuresBuilding Structures
Building StructuresYuan0623
 
Building Structures Report
Building Structures ReportBuilding Structures Report
Building Structures ReportJoe Onn Lim
 
Building Structure Project 2 (Taylor's lakeside campus)
Building Structure Project 2 (Taylor's lakeside campus)Building Structure Project 2 (Taylor's lakeside campus)
Building Structure Project 2 (Taylor's lakeside campus)Ong Seng Peng Jeff
 
Building structures final
Building structures finalBuilding structures final
Building structures finalJamie Lee
 
Chapter 1-types of structures and loads
Chapter 1-types of structures and loadsChapter 1-types of structures and loads
Chapter 1-types of structures and loadsISET NABEUL
 
B.structure report
B.structure reportB.structure report
B.structure reportjiuaN59
 
Building Structures_Project_02
Building Structures_Project_02Building Structures_Project_02
Building Structures_Project_02Winnie Ang
 
Building Structure
Building Structure Building Structure
Building Structure Nicole Foo
 
Building Structures Final Compilation
Building Structures Final CompilationBuilding Structures Final Compilation
Building Structures Final Compilationjisunfoo
 
Building Structure : Structural analysis of a bungalow
Building Structure : Structural analysis of a bungalowBuilding Structure : Structural analysis of a bungalow
Building Structure : Structural analysis of a bungalowchiwunloi
 
Building Structure Final report
Building Structure Final reportBuilding Structure Final report
Building Structure Final reportCanisius Bong
 
Building Structure Project 2 report
Building Structure Project 2 reportBuilding Structure Project 2 report
Building Structure Project 2 reportTan Jaden
 
Structural Analysis of a Bungalow
Structural Analysis of a BungalowStructural Analysis of a Bungalow
Structural Analysis of a BungalowJing Fan Koh
 
individual part
individual part individual part
individual part KC Wong
 
Bstruc final report
Bstruc final reportBstruc final report
Bstruc final reportLee Yih
 

Similar to Assignement 2: Structural Analysis (20)

B structure final final
B structure final finalB structure final final
B structure final final
 
B structure final_c
B structure final_cB structure final_c
B structure final_c
 
Structural analysis of a bungalow report
Structural analysis of a bungalow reportStructural analysis of a bungalow report
Structural analysis of a bungalow report
 
Structural Analysis of a Bungalow Report
Structural Analysis of a Bungalow ReportStructural Analysis of a Bungalow Report
Structural Analysis of a Bungalow Report
 
Building Structures
Building StructuresBuilding Structures
Building Structures
 
Building Structures Report
Building Structures ReportBuilding Structures Report
Building Structures Report
 
Building Structure Project 2 (Taylor's lakeside campus)
Building Structure Project 2 (Taylor's lakeside campus)Building Structure Project 2 (Taylor's lakeside campus)
Building Structure Project 2 (Taylor's lakeside campus)
 
Building structures final
Building structures finalBuilding structures final
Building structures final
 
Chapter 1-types of structures and loads
Chapter 1-types of structures and loadsChapter 1-types of structures and loads
Chapter 1-types of structures and loads
 
B.structure report
B.structure reportB.structure report
B.structure report
 
Building Structures_Project_02
Building Structures_Project_02Building Structures_Project_02
Building Structures_Project_02
 
Building Structure
Building Structure Building Structure
Building Structure
 
Building Structures Final Compilation
Building Structures Final CompilationBuilding Structures Final Compilation
Building Structures Final Compilation
 
Building Structure : Structural analysis of a bungalow
Building Structure : Structural analysis of a bungalowBuilding Structure : Structural analysis of a bungalow
Building Structure : Structural analysis of a bungalow
 
Building Structure Final report
Building Structure Final reportBuilding Structure Final report
Building Structure Final report
 
Building Structure Project 2 report
Building Structure Project 2 reportBuilding Structure Project 2 report
Building Structure Project 2 report
 
Structural Analysis of a Bungalow
Structural Analysis of a BungalowStructural Analysis of a Bungalow
Structural Analysis of a Bungalow
 
individual part
individual part individual part
individual part
 
G.p presentation
G.p presentationG.p presentation
G.p presentation
 
Bstruc final report
Bstruc final reportBstruc final report
Bstruc final report
 

More from DavidJPCChai

The Son of Man - Rene Magritte
The Son of Man - Rene MagritteThe Son of Man - Rene Magritte
The Son of Man - Rene MagritteDavidJPCChai
 
Personal Narrative Essay
Personal Narrative EssayPersonal Narrative Essay
Personal Narrative EssayDavidJPCChai
 
Project 1: Structural Design Post Mortem
Project 1: Structural Design Post MortemProject 1: Structural Design Post Mortem
Project 1: Structural Design Post MortemDavidJPCChai
 
Final Project Management Report
Final Project Management ReportFinal Project Management Report
Final Project Management ReportDavidJPCChai
 
Project Management Assignment 1
Project Management Assignment 1Project Management Assignment 1
Project Management Assignment 1DavidJPCChai
 
Does the Home Environment Affect Work from Home?
Does the Home Environment Affect Work from Home?Does the Home Environment Affect Work from Home?
Does the Home Environment Affect Work from Home?DavidJPCChai
 
Building Science II Project 1 Presentation Slides
Building Science II Project 1 Presentation SlidesBuilding Science II Project 1 Presentation Slides
Building Science II Project 1 Presentation SlidesDavidJPCChai
 
Building Science II Project 1 Report
Building Science II Project 1 ReportBuilding Science II Project 1 Report
Building Science II Project 1 ReportDavidJPCChai
 
Building Technology I Project 2
Building Technology I Project 2Building Technology I Project 2
Building Technology I Project 2DavidJPCChai
 
Building Technology I Project 1
Building Technology I Project 1Building Technology I Project 1
Building Technology I Project 1DavidJPCChai
 
Synopsis for Project 2
Synopsis for Project 2Synopsis for Project 2
Synopsis for Project 2DavidJPCChai
 
Building Services Report
Building Services ReportBuilding Services Report
Building Services ReportDavidJPCChai
 
Research in Asian Architecture
Research in Asian ArchitectureResearch in Asian Architecture
Research in Asian ArchitectureDavidJPCChai
 
Culture and History Report
Culture and History ReportCulture and History Report
Culture and History ReportDavidJPCChai
 

More from DavidJPCChai (16)

The Son of Man - Rene Magritte
The Son of Man - Rene MagritteThe Son of Man - Rene Magritte
The Son of Man - Rene Magritte
 
Personal Narrative Essay
Personal Narrative EssayPersonal Narrative Essay
Personal Narrative Essay
 
Think Sheets
Think SheetsThink Sheets
Think Sheets
 
Project 1: Structural Design Post Mortem
Project 1: Structural Design Post MortemProject 1: Structural Design Post Mortem
Project 1: Structural Design Post Mortem
 
Final Project Management Report
Final Project Management ReportFinal Project Management Report
Final Project Management Report
 
Project Management Assignment 1
Project Management Assignment 1Project Management Assignment 1
Project Management Assignment 1
 
Does the Home Environment Affect Work from Home?
Does the Home Environment Affect Work from Home?Does the Home Environment Affect Work from Home?
Does the Home Environment Affect Work from Home?
 
Building Science II Project 1 Presentation Slides
Building Science II Project 1 Presentation SlidesBuilding Science II Project 1 Presentation Slides
Building Science II Project 1 Presentation Slides
 
Building Science II Project 1 Report
Building Science II Project 1 ReportBuilding Science II Project 1 Report
Building Science II Project 1 Report
 
Building Technology I Project 2
Building Technology I Project 2Building Technology I Project 2
Building Technology I Project 2
 
Building Technology I Project 1
Building Technology I Project 1Building Technology I Project 1
Building Technology I Project 1
 
Synopsis for Project 2
Synopsis for Project 2Synopsis for Project 2
Synopsis for Project 2
 
Comparative Essay
Comparative EssayComparative Essay
Comparative Essay
 
Building Services Report
Building Services ReportBuilding Services Report
Building Services Report
 
Research in Asian Architecture
Research in Asian ArchitectureResearch in Asian Architecture
Research in Asian Architecture
 
Culture and History Report
Culture and History ReportCulture and History Report
Culture and History Report
 

Recently uploaded

Incoming and Outgoing Shipments in 1 STEP Using Odoo 17
Incoming and Outgoing Shipments in 1 STEP Using Odoo 17Incoming and Outgoing Shipments in 1 STEP Using Odoo 17
Incoming and Outgoing Shipments in 1 STEP Using Odoo 17Celine George
 
Mastering the Unannounced Regulatory Inspection
Mastering the Unannounced Regulatory InspectionMastering the Unannounced Regulatory Inspection
Mastering the Unannounced Regulatory InspectionSafetyChain Software
 
Presentation by Andreas Schleicher Tackling the School Absenteeism Crisis 30 ...
Presentation by Andreas Schleicher Tackling the School Absenteeism Crisis 30 ...Presentation by Andreas Schleicher Tackling the School Absenteeism Crisis 30 ...
Presentation by Andreas Schleicher Tackling the School Absenteeism Crisis 30 ...EduSkills OECD
 
Science 7 - LAND and SEA BREEZE and its Characteristics
Science 7 - LAND and SEA BREEZE and its CharacteristicsScience 7 - LAND and SEA BREEZE and its Characteristics
Science 7 - LAND and SEA BREEZE and its CharacteristicsKarinaGenton
 
mini mental status format.docx
mini    mental       status     format.docxmini    mental       status     format.docx
mini mental status format.docxPoojaSen20
 
Contemporary philippine arts from the regions_PPT_Module_12 [Autosaved] (1).pptx
Contemporary philippine arts from the regions_PPT_Module_12 [Autosaved] (1).pptxContemporary philippine arts from the regions_PPT_Module_12 [Autosaved] (1).pptx
Contemporary philippine arts from the regions_PPT_Module_12 [Autosaved] (1).pptxRoyAbrique
 
Introduction to AI in Higher Education_draft.pptx
Introduction to AI in Higher Education_draft.pptxIntroduction to AI in Higher Education_draft.pptx
Introduction to AI in Higher Education_draft.pptxpboyjonauth
 
Interactive Powerpoint_How to Master effective communication
Interactive Powerpoint_How to Master effective communicationInteractive Powerpoint_How to Master effective communication
Interactive Powerpoint_How to Master effective communicationnomboosow
 
Concept of Vouching. B.Com(Hons) /B.Compdf
Concept of Vouching. B.Com(Hons) /B.CompdfConcept of Vouching. B.Com(Hons) /B.Compdf
Concept of Vouching. B.Com(Hons) /B.CompdfUmakantAnnand
 
Separation of Lanthanides/ Lanthanides and Actinides
Separation of Lanthanides/ Lanthanides and ActinidesSeparation of Lanthanides/ Lanthanides and Actinides
Separation of Lanthanides/ Lanthanides and ActinidesFatimaKhan178732
 
Kisan Call Centre - To harness potential of ICT in Agriculture by answer farm...
Kisan Call Centre - To harness potential of ICT in Agriculture by answer farm...Kisan Call Centre - To harness potential of ICT in Agriculture by answer farm...
Kisan Call Centre - To harness potential of ICT in Agriculture by answer farm...Krashi Coaching
 
CARE OF CHILD IN INCUBATOR..........pptx
CARE OF CHILD IN INCUBATOR..........pptxCARE OF CHILD IN INCUBATOR..........pptx
CARE OF CHILD IN INCUBATOR..........pptxGaneshChakor2
 
URLs and Routing in the Odoo 17 Website App
URLs and Routing in the Odoo 17 Website AppURLs and Routing in the Odoo 17 Website App
URLs and Routing in the Odoo 17 Website AppCeline George
 
“Oh GOSH! Reflecting on Hackteria's Collaborative Practices in a Global Do-It...
“Oh GOSH! Reflecting on Hackteria's Collaborative Practices in a Global Do-It...“Oh GOSH! Reflecting on Hackteria's Collaborative Practices in a Global Do-It...
“Oh GOSH! Reflecting on Hackteria's Collaborative Practices in a Global Do-It...Marc Dusseiller Dusjagr
 
Accessible design: Minimum effort, maximum impact
Accessible design: Minimum effort, maximum impactAccessible design: Minimum effort, maximum impact
Accessible design: Minimum effort, maximum impactdawncurless
 
call girls in Kamla Market (DELHI) 🔝 >༒9953330565🔝 genuine Escort Service 🔝✔️✔️
call girls in Kamla Market (DELHI) 🔝 >༒9953330565🔝 genuine Escort Service 🔝✔️✔️call girls in Kamla Market (DELHI) 🔝 >༒9953330565🔝 genuine Escort Service 🔝✔️✔️
call girls in Kamla Market (DELHI) 🔝 >༒9953330565🔝 genuine Escort Service 🔝✔️✔️9953056974 Low Rate Call Girls In Saket, Delhi NCR
 
Hybridoma Technology ( Production , Purification , and Application )
Hybridoma Technology  ( Production , Purification , and Application  ) Hybridoma Technology  ( Production , Purification , and Application  )
Hybridoma Technology ( Production , Purification , and Application ) Sakshi Ghasle
 

Recently uploaded (20)

Incoming and Outgoing Shipments in 1 STEP Using Odoo 17
Incoming and Outgoing Shipments in 1 STEP Using Odoo 17Incoming and Outgoing Shipments in 1 STEP Using Odoo 17
Incoming and Outgoing Shipments in 1 STEP Using Odoo 17
 
Mastering the Unannounced Regulatory Inspection
Mastering the Unannounced Regulatory InspectionMastering the Unannounced Regulatory Inspection
Mastering the Unannounced Regulatory Inspection
 
Presentation by Andreas Schleicher Tackling the School Absenteeism Crisis 30 ...
Presentation by Andreas Schleicher Tackling the School Absenteeism Crisis 30 ...Presentation by Andreas Schleicher Tackling the School Absenteeism Crisis 30 ...
Presentation by Andreas Schleicher Tackling the School Absenteeism Crisis 30 ...
 
Science 7 - LAND and SEA BREEZE and its Characteristics
Science 7 - LAND and SEA BREEZE and its CharacteristicsScience 7 - LAND and SEA BREEZE and its Characteristics
Science 7 - LAND and SEA BREEZE and its Characteristics
 
mini mental status format.docx
mini    mental       status     format.docxmini    mental       status     format.docx
mini mental status format.docx
 
Contemporary philippine arts from the regions_PPT_Module_12 [Autosaved] (1).pptx
Contemporary philippine arts from the regions_PPT_Module_12 [Autosaved] (1).pptxContemporary philippine arts from the regions_PPT_Module_12 [Autosaved] (1).pptx
Contemporary philippine arts from the regions_PPT_Module_12 [Autosaved] (1).pptx
 
Introduction to AI in Higher Education_draft.pptx
Introduction to AI in Higher Education_draft.pptxIntroduction to AI in Higher Education_draft.pptx
Introduction to AI in Higher Education_draft.pptx
 
Interactive Powerpoint_How to Master effective communication
Interactive Powerpoint_How to Master effective communicationInteractive Powerpoint_How to Master effective communication
Interactive Powerpoint_How to Master effective communication
 
Concept of Vouching. B.Com(Hons) /B.Compdf
Concept of Vouching. B.Com(Hons) /B.CompdfConcept of Vouching. B.Com(Hons) /B.Compdf
Concept of Vouching. B.Com(Hons) /B.Compdf
 
Código Creativo y Arte de Software | Unidad 1
Código Creativo y Arte de Software | Unidad 1Código Creativo y Arte de Software | Unidad 1
Código Creativo y Arte de Software | Unidad 1
 
Separation of Lanthanides/ Lanthanides and Actinides
Separation of Lanthanides/ Lanthanides and ActinidesSeparation of Lanthanides/ Lanthanides and Actinides
Separation of Lanthanides/ Lanthanides and Actinides
 
Kisan Call Centre - To harness potential of ICT in Agriculture by answer farm...
Kisan Call Centre - To harness potential of ICT in Agriculture by answer farm...Kisan Call Centre - To harness potential of ICT in Agriculture by answer farm...
Kisan Call Centre - To harness potential of ICT in Agriculture by answer farm...
 
CARE OF CHILD IN INCUBATOR..........pptx
CARE OF CHILD IN INCUBATOR..........pptxCARE OF CHILD IN INCUBATOR..........pptx
CARE OF CHILD IN INCUBATOR..........pptx
 
URLs and Routing in the Odoo 17 Website App
URLs and Routing in the Odoo 17 Website AppURLs and Routing in the Odoo 17 Website App
URLs and Routing in the Odoo 17 Website App
 
“Oh GOSH! Reflecting on Hackteria's Collaborative Practices in a Global Do-It...
“Oh GOSH! Reflecting on Hackteria's Collaborative Practices in a Global Do-It...“Oh GOSH! Reflecting on Hackteria's Collaborative Practices in a Global Do-It...
“Oh GOSH! Reflecting on Hackteria's Collaborative Practices in a Global Do-It...
 
9953330565 Low Rate Call Girls In Rohini Delhi NCR
9953330565 Low Rate Call Girls In Rohini  Delhi NCR9953330565 Low Rate Call Girls In Rohini  Delhi NCR
9953330565 Low Rate Call Girls In Rohini Delhi NCR
 
Accessible design: Minimum effort, maximum impact
Accessible design: Minimum effort, maximum impactAccessible design: Minimum effort, maximum impact
Accessible design: Minimum effort, maximum impact
 
call girls in Kamla Market (DELHI) 🔝 >༒9953330565🔝 genuine Escort Service 🔝✔️✔️
call girls in Kamla Market (DELHI) 🔝 >༒9953330565🔝 genuine Escort Service 🔝✔️✔️call girls in Kamla Market (DELHI) 🔝 >༒9953330565🔝 genuine Escort Service 🔝✔️✔️
call girls in Kamla Market (DELHI) 🔝 >༒9953330565🔝 genuine Escort Service 🔝✔️✔️
 
Staff of Color (SOC) Retention Efforts DDSD
Staff of Color (SOC) Retention Efforts DDSDStaff of Color (SOC) Retention Efforts DDSD
Staff of Color (SOC) Retention Efforts DDSD
 
Hybridoma Technology ( Production , Purification , and Application )
Hybridoma Technology  ( Production , Purification , and Application  ) Hybridoma Technology  ( Production , Purification , and Application  )
Hybridoma Technology ( Production , Purification , and Application )
 

Assignement 2: Structural Analysis

  • 1. BUILDING STRUCTURE (BLD60703) STRUCTURAL ANALYSIS ON BUNGALOW TUTOR: MR. ADIB RAMLI CHAI PHEY CHIAT 0334480 HO PEI SAN 0332992 LI CHUN RON 0334555
  • 2. TABLE OF CONTENTS 1.0 INTRODUCTION 2.0 ARCHITECTURAL PLANS 2.1 GROUND FLOOR PLAN 2.2 FIRST FLOOR PLAN 2.3 ROOF PLAN 3.0 STRUCTURAL BRIEF 4.0 STRUCTURAL PLANS 4.1 GROUND FLOOR STRUCTURAL PLAN 4.2 FIRST FLOOR STRUCTURAL PLAN 4.3 ROOF STRUCTURAL PLAN 5.0 LOAD DISTRIBUTION PLAN 5.1 GROUND FLOOR LOAD DISTRIBUTION PLAN 5.2 FIRST FLOOR LOAD DISTRIBUTION PLAN 6.0 COLUMN TRIBUTARY AREA DIAGRAMS 6.1 GROUND FLOOR COLUMNS TRIBUTARY AREA DIAGRAM 6.2 FIRST FLOOR COLUMNS TRIBUTARY AREA DIAGRAM 7.0 CHAI PHEY CHIAT - BEAM AND COLUMN ANALYSIS 7.1 SELECTED BEAMS AND COLUMNS 7.2 BEAM ANALYSIS 7.2.1 UNIFORM DISTRIBUTED LOAD 7.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD 7.3 COLUMN ANALYSIS 7.3.1 PERIMETER COLUMN 7.3.2 INTERNAL COLUMN 8.0 LI CHUN RON - BEAM AND COLUMN ANALYSIS 8.1 SELECTED BEAMS AND COLUMNS 8.2 BEAM ANALYSIS 8.2.1 UNIFORM DISTRIBUTED LOAD 8.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD 8.3 COLUMN ANALYSIS 8.3.1 PERIMETER COLUMN 8.3.2 INTERNAL COLUMN 9.0 REFERENCES
  • 3. 1.0 INTRODUCTION The objectives of this project are to introduce us to the basic process of structural design of a two-storey bungalow to gain a holistic structural design experience including the basic concepts in structural design, engineering considerations in building structure, quantification of loads and stresses, as well as the estimation of the sizes of structural members. Through this assignment, we will be able to apply structural theory in designing structural elements, analyse loading conditions using simple mathematical calculation and illustrate the manipulation of loading forces graphically. The chosen building is a two storey bungalow located on Lot 1404, block 16 at Lorong Hua Joo Park 8A1, Kuching Sarawak. The architectural plans were refined and modified leaving only grid lines, dimensions, and room labels. Then a list of drawings were produced in order to suit the requirements of the assignment: 1. Ground Floor Structural Plan 2. First Floor Structural Plan 3. Roof Structural Plan 4. Ground Floor Load Distribution Plan 5. First Floor Load Distribution Plan 6. Roof Load Distribution Plan 7. Ground Floor Tributary Area Plan 8. First Floor Tributary Area Plan 9. Roof Tributary Area Plan Group members were to choose 2 beams and 2 columns in order to conduct the structural analysis and calculations: 1. One (1) beam with only uniform distributed load 2. One (1) beam with point load and uniform distributed load 3. One (1) perimeter column (from roof to ground level) 4. One (1) internal column (from roof to ground floor) It is to produce load diagrams, shear forces diagram and bending moment diagram to clearly illustrates the loads and forces acting on the structure. Also, the column, and the ultimate load for the column is analysed.
  • 4. 2.0 ARCHITECTURAL PLANS 2.1 GROUND FLOOR PLAN GROUND FLOOR PLAN SCALE 1:150
  • 5. 2.0 ARCHITECTURAL PLANS 2.2 FIRST FLOOR PLAN FIRST FLOOR PLAN SCALE 1:150
  • 6. 2.0 ARCHITECTURAL PLANS 2.3 ROOF PLAN ROOF PLAN SCALE 1:150
  • 7. 3.0 STRUCTURAL BRIEF Structure Dimension Type 1 Column 0.3m X 0.3m X 0.3m (Length X Width X Height) Type 2 Column 0.15m X 0.4m X 0.3m (Length X Width X Height) Beam 0.15m X 0.3m (Width X Depth) Slab 0.15m (Thickness) Wall 0.15m X 3.0m (Thickness X Height) Dimension of the Structure Standard Weight of Material (Refer to UBBL Fourth Schedule) Material Standard Weight (kN/m³) Reinforced Concrete 24 Brickwork 19 Structure Self-Weight Structure Calculation Self-Weight Type 1 Column 0.3m X 0.3m X 3.0m X 24 kN/m³ 6.5 kN Type 2 Column 0.15m X 0.4m X 3.0m X 24 kN/m³ 4.32 kN Beam 0.15m X 0.3m X 24 kN/m³ 1.08 kN/m Slab 0.15m X 24 kN/m³ 3.6 kN/m² Brick Wall 0.15m X 3.0m X 19 kN/m³ 8.55 kN/m Roof - 1.0 kN/m²
  • 8. 4.0 STRUCTURAL PLANS 4.1 GROUND FLOOR STRUCTURAL PLAN GROUND FLOOR STRUCTURAL PLAN SCALE 1:150
  • 9. 4.0 STRUCTURAL PLANS 4.2 FIRST FLOOR STRUCTURAL PLAN FIRST FLOOR STRUCTURAL PLAN SCALE 1:150
  • 10. 4.0 STRUCTURAL PLANS 4.3 ROOF STRUCTURAL PLAN ROOF STRUCTURAL PLAN SCALE 1:150
  • 11. 5.0 LOAD DISTRIBUTION PLANS 5.1 GROUND FLOOR LOAD DISTRIBUTION PLAN GROUND FLOOR LOAD DISTRIBUTION PLAN SCALE 1:150
  • 12. 5.0 LOAD DISTRIBUTION PLANS 5.2 FIRST FLOOR LOAD DISTRIBUTION PLAN FIRST FLOOR LOAD DISTRIBUTION PLAN SCALE 1:150
  • 13. 5.0 LOAD DISTRIBUTION PLANS 5.3 ROOF LOAD DISTRIBUTION PLAN ROOF LOAD DISTRIBUTION PLAN SCALE 1:150
  • 14. 6.0 TRIBUTARY AREA PLANS 6.1 GROUND FLOOR TRIBUTARY AREA PLAN GROUND FLOOR TRIBUTARY AREA PLAN SCALE 1:150
  • 15. 6.0 TRIBUTARY AREA PLANS 6.2 FIRST FLOOR TRIBUTARY AREA PLAN FIRST FLOOR TRIBUTARY AREA PLAN SCALE 1:150
  • 16. 6.0 TRIBUTARY AREA PLANS 6.3 ROOF TRIBUTARY AREA PLAN ROOF TRIBUTARY AREA PLAN SCALE 1:150
  • 17. 7.0 CHAI PHEY CHIAT BEAM AND COLUMN ANALYSIS 7.1 SELECTED BEAMS AND COLUMNS 7.2 BEAM ANALYSIS 7.2.1 UNIFORM DISTRIBUTED LOAD 7.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD 7.3 COLUMN ANALYSIS 7.3.1 PERIMETER COLUMN 7.3.2 INTERIOR COLUMN
  • 18. 7.0 CHAI PHEY CHIAT - BEAM AND COLUMN ANALYSIS 7.1 SELECTED BEAMS AND COLUMNS Point Load & Uniform Distributed Load Beam E/1-2 Uniform Distributed Load Beam 1b/E-D Perimeter Column Column E1 Interior Column Column E2
  • 19. 7.2 BEAM ANALYSIS 7.2.1 UNIFORM DISTRIBUTED LOAD Ground Floor Beam 1b/E-D Ground Floor Beam 1b/E-D carries: ● Dead Load from Beam Self Weight: Gridline E-D ● Dead Load from Brick Wall Weight: Gridline E-D ● Dead Load from Slab: i) Gridline E-D/1-2 ii) Gridline E-D/1b-2 ● Live Load from Slab: i) Gridline E-D/1-2 ii) Gridline E-D/1b-2 Ground Floor Structural Plan Ground Floor Load Distribution Plan
  • 20. 7.2.1 UNIFORM DISTRIBUTED LOAD Ground Floor Beam 1b/E-D Beam Self-Weight = 0.15m X 0.3m X 24kN/m³ = 1.08 kN/m Dead Load Brick Wall Weight = 0.15m X 3m X 19kN/m³ = 8.55 kN/m Slab E-D/1-1b = (0.15m X 24kN/m³) X (1.625 / 2) = 2.925 kN/m Slab E-D/1b-2 = (0.15m X 24kN/m³) X (1.525m / 2) = 2.745 kN/m Total Dead Load = (1.08 + 8.55 + 2.925 + 2.745) kN/m = 15.25 kN/m
  • 21. 7.2.1 UNIFORM DISTRIBUTED LOAD Ground Floor Beam 1b/E-D Slab E-D/1-1b = 1.5kN/m² X (1.625m / 2) = 1.2188 kN/m Live Load Slab E-D/1b-2 = 1.5kN/m² X (1.525 / 2) = 1.1438 kN/m Total Live Load = (1.2188 + 1.1438) kN/m = 2.3626 kN/m Ultimate Dead Load = 15.25 kN/m X 1.4 = 21.35 kN/m Ultimate Load Ultimate Live Load = 2.3626 kN/m X 1.6 = 3.78 kN/m Total Ultimate Load = (21.35 + 3.78) kN/m = 25.13 kN/m
  • 22. 7.2.1 UNIFORM DISTRIBUTED LOAD Ground Floor Beam 1b/E-D 25.13kN/m X 3m = 75.39 kN Resultant Force ∑M = 0 = (Ra X 3) + [ -75.39 X (3/2) ] = 3Ra - 113.09 3Ra = 113.09 Ra = 37.7 kN 37.7kN - 75.39kN = -37.7kN Shear Force Diagram Positive Area 37.7kN X 1.5m X ½ = 28.28 kNm Reaction Force ∑Fy = 0 = Rb + 37.7 + 75.39 Rb = 37.7 kN 37.7kN + (-37.7kN) = 0 kN Bending Moment Diagram Negative Area 37.7kN X 1.5m X ½ = 28.28 kNm Positive Area = Negative Area
  • 23. 7.2 BEAM ANALYSIS 7.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD Ground Floor Beam E/1-2 Ground Floor Beam E/1-2 carries: ● Dead Load from Beam Self Weight: Gridline 1-2 ● Dead Load from Brick Wall Weight: Gridline 1-2 ● Dead Load from Slab: i) Gridline F-E/1-2 ii) Gridline E-D/1-1b iii) Gridline E-D/1b-2 ● Live Load from Slab: i) Gridline F-E/1-2 ii) Gridline E-D/1-1b iii) Gridline E-D/1b-2 ● Point Load at Point E/1b from Beam 1b/E-D Ground Floor Structural Plan Ground Floor Load Distribution Plan
  • 24. 7.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD Ground Floor Beam E/1-2 Beam Self-Weight = 0.15m X 0.3m X 24kN/m³ = 1.08 kN/m Dead Load Brick Wall Weight = 0.15m X 3m X 19kN/m³ = 8.55 kN/m Slab F-E/1-2 = (0.15m X 24kN/m³) X (3.15m / 2) X 2/3 = 3.78 kN/m Slab E-D/1-1b = (0.15m X 24kN/m³) X (1.625m / 2) X 2/3 = 1.95 kN/m Total Dead Load for 1-1b = (1.08 + 8.55 + 3.78 + 1.95) kN/m = 15.36 kN/m Slab E-D/1b-2 = (0.15m X 24kN/m³) X (1.525m / 2) X 2/3 = 1.83 kN/m Total Dead Load for 1b-2 = (1.08 + 8.55 + 3.78 + 1.83) kN/m = 15.24 kN/m
  • 25. 7.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD Ground Floor Beam E/1-2 Slab E-D/1-1b = 1.5kN/m² X (1.625m / 2) X 2/3 = 0.8125 kN/m Live Load Slab E-D/1b-2 = 1.5kN/m² X (1.525 / 2) X 2/3 = 0.7625 kN/m Ultimate Load for 1-1b = (15.36kN/m X 1.4) + (2.3875kN/m X 1.6) = 25.32 kN/m Ultimate Load Ultimate Load for 1b-2 = (15.24kN/m X 1.4) + (2.3375kN/m X 1.6) = 25.08 kN/m Slab F-E/1-2 = 1.5kN/m² X (3.15m / 2) X 2/3 = 1.575 kN/m Total Live Load for 1-1b = (1.575 + 0.8125) kN/m = 2.3875 kN/m Total Live Load for 1b-2 = (1.575 + 0.7625) kN/m = 2.3375 kN/m Point Load from Beam 1b/E-D = 37.7 kN
  • 26. 7.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD Ground Floor Beam E/1-2 Point Load at Point 1b = 37.7 kN Resultant Force ∑M = 0 = (Ra X 3.15) + (-41.145 X 2.34) + (-37.7 X 1.525) + (-38.247 X 0.7625) = 3.15Ra - 96.28 - 57.49 - 29.16 = 3.15Ra - 182.93 Ra = 58.07 kN 58.07kN - 41.145kN = 16.925 kN Shear Force Diagram Positive Area (58.07 + 16.925) kN X 1.625m X ½ = 74.98kN X 1.625m X ½ = 60.9 kNm Reaction Force ∑Fy = 0 = 58.07 + Rb + (-41.15) + (-37.7) + (-38.25) = Rb - 59.03 Rb = 59.03 kN 16.925kN - 37.7kN = -20.775 kN Bending Moment Diagram Negative Area (20.775 + 59.03)kN X 1.525m X ½ = 79.81kN X 1.525m X ½ = 60.9 kNm Positive Area - Negative Area = 60.9 kNm - 60.9 kNm = 0 kNm -20.775kN - 38.247 kN = -59.03 kN -59.03kN + 59.03 kN = 0 kN Positive Area = Negative Area
  • 27. 7.3 COLUMN ANALYSIS 7.3.1 PERIMETER COLUMN Column E/1 No Column at position E/1 Roof Level Dead Load First Floor Level Roof Weight = (3.95m X 1.575m) X 1.0kN/m² = 6.22 kN Roof Beam = (3.95m + 1.575m) X 1.08kN/m = 5.967kN Total Dead Load = 6.22kN + 5.967kN = 12.19 kN Live Load Roof Weight = (3.95m X 1.575m) X 0.5kN/m² = 3.11 kN
  • 28. 7.3.1 PERIMETER COLUMN Column E/1 Dead Load Ground Floor Level Concrete Slab = (3.95m X 1.575m) X 3.6kN/m² = 22.4 kN Beam Self Weight = (3.95m + 1.575m) X 1.08kN/m = 5.967kN Brick Wall = (1.5m + 1.575m) X 8.55kN/m = 26.29 kN Live Load Concrete Slab = (3.95m X 1.575m) X 1.5kN/m² = 9.33 kN Column Self Weight = (0.3m X 0.3m X 3m) X 24kN/m³ = 6.48 kN Total Dead Load = (22.4 + 5.967 + 26.29 + 6.48) kN = 61.14 kN Ultimate Load Total Dead Load = 12.19kN + 61.15kN = 73.33 kN Total Live Load = 3.11kN + 9.33kN = 12.44 kN Ultimate Dead Load = 73.33kN X 1.4 = 102.7 kN Total Live Load = 12.44kN X 1.6 = 19.9 kN Total Ultimate Load = 102.7kN + 19.9kN = 122.6 kN
  • 29. 7.3.2 INTERIOR COLUMN Column E/2 Roof Level First Floor Level Dead Load Roof Weight = (1.95m X 1.5m) X 1.0kN/m² = 2.925 kN Roof Beam = (1.95m + 1.5m) X 1.08kN/m = 3.726 kN Total Dead Load = 2.925kN + 3.726kN = 6.65 kN Live Load Roof Weight = (1.95m X 1.5m) X 0.5kN/m² = 1.4625 kN Dead Load Concrete Slab = (1.95m X 1.5m) X 3.6kN/m² = 10.53 kN Beam Self Weight = (3.95m + 3.525m) X 1.08kN/m = 8.073 kN Brick Wall = (1.95m + 1.5m) X 8.55kN/m = 29.5 kN Column Self Weight = (0.15m X 0.4m X 3m) X 24kN/m³ = 4.32 kN Roof Weight = (1.575m X 1.5m + 2.45m X 3.525) kN X 1.0kN/m² = 11.0 kN Total Dead Load = (10.53 + 11.0 + 8.073 + 29.5 + 4.32) kN = 63.42 kN
  • 30. 7.3.2 INTERIOR COLUMN Column E/2 First Floor Level Live Load Concrete Slab = (1.95m X 1.5m) X 1.5kN/m² = 4.39 kN Roof Weight = (1.575m X 1.5m + 2.45m X 3.525m) X 0.5kN/m = 5.5 kN Total Live Load = 4.39kN + 5.5kN = 9.89 kN Ground Floor Level Dead Load Concrete Slab = (3.95 X 1.575 + 1.5 X 1.95)m² X 3.6kN/m² = 32.93 kN Beam Self Weight = (3.95m + 3.525m) X 1.08kN/m = 8.073 kN Brick Wall = (3.525m + 1.5m + 0.5m) X 8.55kN/m = 47.24 kN Column Self Weight = (0.15m X 0.4m X 3m) X 24kN/m³ = 4.32 kN Total Dead Load = (32.93 + 8.073 + 47.24 + 4.32) kN = 92.56 kN
  • 31. 7.3.2 INTERIOR COLUMN Column E/2 Ground Floor Level Live Load Concrete Slab = (3.95 X 1.575 + 1.5 X 1.95)m² X 1.5kN/m² = 13.72 kN Total Live Load = 13.72 kN Ultimate Load Total Dead Load = 6.65kN + 63.42kN + 92.56kN = 162.63 kN Total Live Load = 1.4625kN + 9.89kN + 13.72kN = 25.07 kN Ultimate Dead Load = 162.63kN X 1.4 = 227.68 kN Total Live Load = 25.07kN X 1.6 = 40.11 kN Total Ultimate Load = 227.68kN + 40.11kN = 267.79 kN
  • 32. 8.0 LI CHUN RON BEAM AND COLUMN ANALYSIS 8.1 SELECTED BEAMS AND COLUMNS 8.2 BEAM ANALYSIS 8.2.1 UNIFORM DISTRIBUTED LOAD 8.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD 8.3 COLUMN ANALYSIS 8.3.1 PERIMETER COLUMN 8.3.2 INTERIOR COLUMN
  • 33. 8.0 LI CHUN RON - BEAM AND COLUMN ANALYSIS 8.1 SELECTED BEAMS AND COLUMNS Point Load & Uniform Distributed Load Beam D/2-3 Uniform Distributed Load Beam 2B/E-D Perimeter Column Column E3 Interior Column Column D3
  • 34. 8.2 BEAM ANALYSIS 8.2.1 UNIFORM DISTRIBUTED LOAD First Floor Beam 2B/E-D First Floor Beam 2B/E-D carries: ● Dead Load from Beam Self Weight: Gridline E-D ● Dead Load from Brick Wall Weight: Gridline E-D ● Dead Load from Slab: i) Gridline E-D/2-2B ii) Gridline E-D/2B-3 ● Live Load from Slab: i) Gridline E-D/2-2B ii) Gridline E-D/2B-3 First Floor Structural Plan First Floor Load Distribution Plan
  • 35. 8.2.1 UNIFORM DISTRIBUTED LOAD First Floor Beam 2B/D-E Beam Self-Weight = 0.15m X 0.3m X 24kN/m³ = 1.08 kN/m Dead Load Brick Wall Weight = 0.15m X 3m X 19kN/m³ = 8.55 kN/m Slab E-D / 2-2B = (0.15m X 24kN/m³) X (2.300m / 2) = 4.14 kN/m Slab E-D / 2B-3 = (0.15m X 24kN/m³) X (1.870m / 2) = 3.366 kN/m Total Dead Load = (1.08 + 8.55 + 4.14 + 3.366) kN/m = 17.136 kN/m
  • 36. 8.2.1 UNIFORM DISTRIBUTED LOAD First Floor Beam 2B/D-E Slab D-E/2-2B = 1.5kN/m² X (2.300m / 2) = 1.725 kN/m Live Load Slab D-E/2B-3 = 1.5kN/m² X (1.870m / 2) = 1.403 kN/m Total Live Load = (1.725 + 1.403kN/m) = 3.128 kN/m Ultimate Dead Load = 17.136 kN/m X 1.4 = 23.9904 kN/m Ultimate Load Ultimate Live Load = 3.128 kN/m X 1.6 = 5.0048 kN/m Total Ultimate Load = (23.9904kN/m + 5.0048kN/m) = 28.9952 kN/m
  • 37. 8.2.1 UNIFORM DISTRIBUTED LOAD First FLoor Beam D-E / 2B (Ra x 3.000) - (28.9952 x 3.000) x (3.000 ÷ 2) 3.000Ra = 130.478 Ra = 43.49 kN 43.49 kN - 86.9856 kN = -43.49 kN Shear Force Diagram Positive Area 43.39 kN X 1.5m X ½ = 32.54 kNm Reaction Force 43.49 kN + (-43.49 kN) = 0 kN Bending Moment Diagram Negative Area 43.39 kN X 1.5m X ½ = 32.54 kNm Positive Area = Negative Area 43.49 - (28.9952 x 3.00) Rb = 0 Rb = 43.49 kN Resultant Force 28.9952 kN/m x3m =86.9856 kN 0 kN ( + ) ( - ) Ra = 43.49 kN 43.49 kN + (-43.49 kN) = 0 kN 43.49 kN - 86.9856 kN = -43.49 kN 0 kN 0 kN 32.52 kNm
  • 38. First Floor Structural Plan First Floor Load Distribution Plan 8.2 BEAM ANALYSIS 8.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD First Floor Beam D/2-3 First Floor Beam D/2-3 carries: ● Dead Load from Beam Self Weight: Gridline 2-3 ● Dead Load from Brick Wall Weight: Gridline 2-3 ● Dead Load from Slab: i) Gridline E-D / 2-2B ii) Gridline E-D / 2B-3 iii) Gridline D-C / 1C-3 ● Live Load from Slab: i) Gridline E-D / 2-2B ii) Gridline E-D / 2B-3 iii) Gridline D-C / 1C-3 ● Point Load at D / 2B from Beam 2B / E-D
  • 39. 8.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD First Floor Beam D / 2-3 Beam Self-Weight = 0.15m X 0.3m X 24kN/m³ = 1.08 kN/m Dead Load Brick Wall Weight = 0.15m X 3m X 19kN/m³ = 8.55 kN/m Slab D-C / 1C-3 = (0.15m X 24kN/m³) X (5.1m / 2) X 2/3 = 6.12 kN/m Slab E-D / 2-2B = (0.15m X 24kN/m³) X (2.030m / 2) X 2/3 = 2.436 kN/m Total Dead Load for 2-2B = (1.08 + 8.55 + 6.12 + 2.436) kN/m = 18.186 kN/m Slab E-D / 2B-3 = (0.15m X 24kN/m³) X (1.870m / 2) X 2/3 = 2.244 kN/m Total Dead Load for 2B-3 = (1.08 + 8.55 + 6.12 + 2.244) kN/m = 17.994 kN/m
  • 40. 8.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD First Floor Beam D / 2-3 Slab E-D / 2-2B = 1.5kN/m² X (1.625m / 2) X 2/3 = 0.8125 kN/m Live Load Slab E-D / 2B-3 = 1.5kN/m² X (1.525 / 2) X 2/3 = 0.7625 kN/m Ultimate Load for 2-2B = (18.186kN/m X 1.4) + (3.3625kN/m X 1.6) = 30.8404kN/m Ultimate Load Ultimate Load for 2B-3 = (17.994kN/m X 1.4) + (3.3125kN/m X 1.6) = 30.4916kN/m Slab D-C / 1C-3 = 1.5kN/m² X (5.1m / 2) X 2/3 = 2.55 kN/m Total Live Load for 2-2B = (2.55 + 0.8125) kN/m = 3.3625 kN/m Total Live Load for 2B-3 = (2.55 + 0.7625) kN/m =3.3125 kN/m Point Load from Beam 2B / E-D = 43.49 kN
  • 41. 8.2.2 POINT LOAD & UNIFORM DISTRIBUTED LOAD Ground Floor Beam D / 2-3 Point Load at Point 2B / E-D = 43.39 kN Resultant Force ∑M = 0 = (Ra X 3.9) + (-62.606 X 2.9) + (-43.49 X 1.95) + (-57.019 X 0.935) = 3.9Ra - 181.6 - 84.8 - 53.3 = 3.9Ra - 318.7 Ra = 81.72 kN 81.72kN - 62.6kN = 19.12 kN Shear Force Diagram Positive Area (81.72 + 19.12) kN X 2.030m X ½ = 100.84kN X 2.030m X ½ = 102.4 kNm Reaction Force ∑Fy = 0 = 81.72 + Rb + (-62.6) + (-43.49) + (-57.02) = Rb - 81.39 Rb = 81.39kN 19.12kN - 43.49kN = -24.37 kN Bending Moment Diagram Negative Area (24.37 + 81.39)kN X 1.870m X ½ =105.8kN X 1.870m X ½ = 98.9 kNm Positive Area - Negative Area = 102.4 kNm - 98.9 kNm = 3.5 kNm = 0 -24.37kN - 57.02kN = -81.39 kN -81.39kN + 81.39kN = 0 kN Positive Area = Negative Area ( + ) ( - ) Ra = 81.72 kN 19.12kN - 43.49kN = -24.37 kN 0 kN 0 kN 102.4 kNm 0 kN 0 kN Rb = 81.39 kN 81.72kN - 62.6kN = 19.12 kN
  • 42. 8.3 COLUMN ANALYSIS 8.3.1 PERIMETER COLUMN Column E / 3 Dead Load Beam : (3.0 + 1.95 + 1.95 + 2.55) x 0.15 x 0.45 x 24 = 15.3kN Roof : 3.0 x (1.95 + 2.55) x 1.0kN/m2 =13.5kN Total Dead load = 28.8kN Live Load Slab: (1.95 + 2.55) x 3 x 0.5kN/m2 =6.75kN Ultimate Load: =(1.4 x 28.8) + (1.6 x 6.75) = 40.32 + 10.8 = 51.12kN Roof Level Dead Load Beam : 24kN/m2 x 0.15 x 0.45 x (5.1 + 1.9 + 1.8) =14.28kN Slab : 24kN/m2 x 0.15 x 5.1 x 3.7 =67.9kN Brick Wall: 19kN/m2 x 0.15 x 3m x (5.1 + 1.9 + 1.8) =74.8 Total Dead load = 67.9 + 14.26 + 74.8 =156.96kN Live Load Slab: 1.5kN/m2 x 0.15 x 5.1 x 3.7 =4.24kN Ultimate Load: (1.4 x 156.96kN) + (1.6 x 4.24kN) = 219.7 + 6.8 = 226.5kN First Floor Level
  • 43. 8.3.1 PERIMETER COLUMN Column E / 3 Ground Floor Level Ultimate Load Total Dead Load = 96.56kN + 28.8kN + 156.9kN = 282.26 kN Total Live Load = 14.175kN + 4.24kN + 6.75kN = 25.165kN Ultimate Dead Load = 282.26kN X 1.4 = 395.164 kN Total Live Load = 25.165kN X 1.6 = 40.264 kN Total Ultimate Load = 395.164kN + 40.264kN = 435.428 kN Dead Load Beam : (1.95 + 1.2 + 3.0) x 0.15 x 0.45 x 24 =9.96kN Slab : (1.95 + 1.2) x 3.0 x 0.15 x 24 =34.02kN Brick Wall: (1.95 + 1.2 + 3.0) x 0.15 x 19 x 3 =52.58kN Total Dead load = 96.56kN Live Load Slab: (1.95 + 1.2) x 3.0 x 1.5 =14.175kN Ultimate Load: (1.4 x 96.56kN) + (1.6 x 14.175kN) =135.18 + 22.68 =157.86kN
  • 44. 8.3.2 INTERIOR COLUMN Column D / 3 Roof Level Dead Load Beam : 24kN2 x 0.15 x 0.45 x (3.0 + 4.5) =12.15kN Roof : 1.0kN/m2 x 3.0 x 4.5 =13.5kN Total Dead load = 13.5kN + 12.15kN =25.65kN Live Load Roof: 0.5kN/m2 x 4.5 x 3.0 =6.75kN Ultimate Load: =(1.4 x 25.65) + (1.6 x 6.75) = 35.91 + 10.8 =46.71kN Dead Load Beam : 24kN2 x 0.15 x 0.45 x (3.0 + 3.9 + 1.2) =9.72kN Slab : 24kN/m2 x 0.15m x 3.9 x 1.2 =16.8kN Brick Wall: 19kN/m2 x 0.15m x 3m x (1.95 + 1.2 +1.95 +3.0) =16.65kN Total Dead load = 16.8 + 9.72 + 16.65 =43.17 Live Load Slab: 1.5kN/m2 x 0.15m x 5.1 x 3.0 =3.44kN Ultimate Load: =(1.4 x 43.17) + (1.6 x 3.44) =60.4 + 5.5 =65.9kN First Floor Level
  • 45. 8.3.2 INTERIOR COLUMN Column D / 3 Ground Floor Level Ultimate Load Total Dead Load = 25.65kN + 43.17kN + 137.5kN = 206.32 kN Total Live Load = 3.44kN + 3.44kN + 6.75kN = 13.63 kN Ultimate Dead Load = 206.32kN X 1.4 = 288.85 kN Total Live Load = 13.63kN X 1.6 = 21.80 kN Total Ultimate Load = 288.85kN + 21.80kN = 310.65 kN Dead Load Beam : 24kN2 x 0.15 x 0.45 x (3.0 + 3.9 + 1.2) =9.72kN Slab : 24kN/m2 x 0.15m x 5.1 x 3.0 =55.08kN Brick Wall: 19kN/m2 x 0.15m x 3m x (3.0 + 3.9 + 1.2) =69.3kN Total Dead load = 55.08 + 13.12 + 69.3 =137.5kN Live Load Slab: 1.5kN/m2 x 0.15m x 5.1 x 3.0 =3.44kN Ultimate Load: =(1.4 x 137.5) + (1.6 x 3.44) =192.5 + 5.5 =198kN
  • 46. 9.0 REFERENCES Malaysia.; International Law Book Services. Legal Research Board, Uniform Building By Law 1984. Kuala Lumpur : International Law Book Services, 2013.