This document presents the structural analysis of a reinforced concrete bungalow conducted by a group of students. It includes the location and site plan of the bungalow, relevant architectural plans, structural plans showing beam and column sizes and foundation details. It also provides the design brief outlining the live loads for different areas. The group analyzed specific beams by calculating the dead loads, live loads, and ultimate loads. Load diagrams were drawn to visualize the reactions, shear forces and bending moments. Individual members of the group were assigned different structural elements for analysis.
Ring or circular rafts can be used for cylindrical structures such as chimneys, silos, storage tanks, TV-towers and other structures. In this case, ring or circular raft is the best suitable foundation to the natural geometry of such structures. The design of circular rafts is quite similar to that of other rafts.
Explains in detail about the planning and designing of a G + 2 school building both manually and using software (STAAD Pro).
With the reference with this we could design a building of a school with 2 blocks and G + 2 building.
Cable Stay Bridge construction at Bardhman using LARSA and LUSAS four dimensi...Rajesh Prasad
For the construction of Cable Stayed Bridge at Bardhman, a simulation model was made using LARSA 4D and accordingly design were concluded considering all the possible situation. At the execution stage the profile/geometry control is very important. Accordingly construction stage analysis along with geometry control is being done using LUSAS software. These software are 4D and the fourth dimension is Time. The said presentation covers the LARSA, LUSAS and few pictures on execution at site along with sample of documentation.
Ring or circular rafts can be used for cylindrical structures such as chimneys, silos, storage tanks, TV-towers and other structures. In this case, ring or circular raft is the best suitable foundation to the natural geometry of such structures. The design of circular rafts is quite similar to that of other rafts.
Explains in detail about the planning and designing of a G + 2 school building both manually and using software (STAAD Pro).
With the reference with this we could design a building of a school with 2 blocks and G + 2 building.
Cable Stay Bridge construction at Bardhman using LARSA and LUSAS four dimensi...Rajesh Prasad
For the construction of Cable Stayed Bridge at Bardhman, a simulation model was made using LARSA 4D and accordingly design were concluded considering all the possible situation. At the execution stage the profile/geometry control is very important. Accordingly construction stage analysis along with geometry control is being done using LUSAS software. These software are 4D and the fourth dimension is Time. The said presentation covers the LARSA, LUSAS and few pictures on execution at site along with sample of documentation.
Building Structure - Structural Analysis of a bungalowLovie Tey
In a group of 3, we are to design a 2 storey bungalow which consists of the following components.
1. 1 master bedroom with attached bathroom
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We are to compile an A4 report which consists of;
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DESIGN AND ANALYSIS OF EARTH-QUAKE RESISTANT FOR MULTI-STORIED BUILDING ON A ...Ijripublishers Ijri
his project named as “DESIGN OF EARTH-QUAKE RESISTANT MULTI-STORIED RCC BUILDING ON A SLOPING
GROUND” involves the analysis of simple 2-D frames of varying floor heights and varying no of bays using a very popular
software tool STAAD Pro. Using the analysis results various graphs were drawn between the maximum axial force,
maximum shear force, maximum bending moment, maximum tensile force and maximum compressive stress being
developed for the frames on plane ground and sloping ground. The graphs used to drawn comparison between the two
cases and the detailed study of “SHORT COLOUMN EFFECT” failure was carried up. In addition to that the detailed
study of seismology was undertaken and the feasibility of the software tool to be used was also checked. Till date many
such projects have been undertaken on this very topic but the analysis were generally done for the static loads i.e. dead
load, live load etc, but to this the earthquake analysis or seismic analysis is to be incorporated. To create a technical
knowhow, two similar categories of structures were analyzed, first on plane ground and another on a sloping ground.
Then the results were compared. At last the a structure would be analyzed and designed on sloping ground for all possible
load combinations pertaining to IS 456, IS 1893 and IS 13920 manually.
A Strategic Approach: GenAI in EducationPeter Windle
Artificial Intelligence (AI) technologies such as Generative AI, Image Generators and Large Language Models have had a dramatic impact on teaching, learning and assessment over the past 18 months. The most immediate threat AI posed was to Academic Integrity with Higher Education Institutes (HEIs) focusing their efforts on combating the use of GenAI in assessment. Guidelines were developed for staff and students, policies put in place too. Innovative educators have forged paths in the use of Generative AI for teaching, learning and assessments leading to pockets of transformation springing up across HEIs, often with little or no top-down guidance, support or direction.
This Gasta posits a strategic approach to integrating AI into HEIs to prepare staff, students and the curriculum for an evolving world and workplace. We will highlight the advantages of working with these technologies beyond the realm of teaching, learning and assessment by considering prompt engineering skills, industry impact, curriculum changes, and the need for staff upskilling. In contrast, not engaging strategically with Generative AI poses risks, including falling behind peers, missed opportunities and failing to ensure our graduates remain employable. The rapid evolution of AI technologies necessitates a proactive and strategic approach if we are to remain relevant.
Safalta Digital marketing institute in Noida, provide complete applications that encompass a huge range of virtual advertising and marketing additives, which includes search engine optimization, virtual communication advertising, pay-per-click on marketing, content material advertising, internet analytics, and greater. These university courses are designed for students who possess a comprehensive understanding of virtual marketing strategies and attributes.Safalta Digital Marketing Institute in Noida is a first choice for young individuals or students who are looking to start their careers in the field of digital advertising. The institute gives specialized courses designed and certification.
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How to Make a Field invisible in Odoo 17Celine George
It is possible to hide or invisible some fields in odoo. Commonly using “invisible” attribute in the field definition to invisible the fields. This slide will show how to make a field invisible in odoo 17.
The French Revolution, which began in 1789, was a period of radical social and political upheaval in France. It marked the decline of absolute monarchies, the rise of secular and democratic republics, and the eventual rise of Napoleon Bonaparte. This revolutionary period is crucial in understanding the transition from feudalism to modernity in Europe.
For more information, visit-www.vavaclasses.com
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Dive into the world of AI! Experts Jon Hill and Tareq Monaur will guide you through AI's role in enhancing nonprofit websites and basic marketing strategies, making it easy to understand and apply.
June 3, 2024 Anti-Semitism Letter Sent to MIT President Kornbluth and MIT Cor...Levi Shapiro
Letter from the Congress of the United States regarding Anti-Semitism sent June 3rd to MIT President Sally Kornbluth, MIT Corp Chair, Mark Gorenberg
Dear Dr. Kornbluth and Mr. Gorenberg,
The US House of Representatives is deeply concerned by ongoing and pervasive acts of antisemitic
harassment and intimidation at the Massachusetts Institute of Technology (MIT). Failing to act decisively to ensure a safe learning environment for all students would be a grave dereliction of your responsibilities as President of MIT and Chair of the MIT Corporation.
This Congress will not stand idly by and allow an environment hostile to Jewish students to persist. The House believes that your institution is in violation of Title VI of the Civil Rights Act, and the inability or
unwillingness to rectify this violation through action requires accountability.
Postsecondary education is a unique opportunity for students to learn and have their ideas and beliefs challenged. However, universities receiving hundreds of millions of federal funds annually have denied
students that opportunity and have been hijacked to become venues for the promotion of terrorism, antisemitic harassment and intimidation, unlawful encampments, and in some cases, assaults and riots.
The House of Representatives will not countenance the use of federal funds to indoctrinate students into hateful, antisemitic, anti-American supporters of terrorism. Investigations into campus antisemitism by the Committee on Education and the Workforce and the Committee on Ways and Means have been expanded into a Congress-wide probe across all relevant jurisdictions to address this national crisis. The undersigned Committees will conduct oversight into the use of federal funds at MIT and its learning environment under authorities granted to each Committee.
• The Committee on Education and the Workforce has been investigating your institution since December 7, 2023. The Committee has broad jurisdiction over postsecondary education, including its compliance with Title VI of the Civil Rights Act, campus safety concerns over disruptions to the learning environment, and the awarding of federal student aid under the Higher Education Act.
• The Committee on Oversight and Accountability is investigating the sources of funding and other support flowing to groups espousing pro-Hamas propaganda and engaged in antisemitic harassment and intimidation of students. The Committee on Oversight and Accountability is the principal oversight committee of the US House of Representatives and has broad authority to investigate “any matter” at “any time” under House Rule X.
• The Committee on Ways and Means has been investigating several universities since November 15, 2023, when the Committee held a hearing entitled From Ivory Towers to Dark Corners: Investigating the Nexus Between Antisemitism, Tax-Exempt Universities, and Terror Financing. The Committee followed the hearing with letters to those institutions on January 10, 202
Embracing GenAI - A Strategic ImperativePeter Windle
Artificial Intelligence (AI) technologies such as Generative AI, Image Generators and Large Language Models have had a dramatic impact on teaching, learning and assessment over the past 18 months. The most immediate threat AI posed was to Academic Integrity with Higher Education Institutes (HEIs) focusing their efforts on combating the use of GenAI in assessment. Guidelines were developed for staff and students, policies put in place too. Innovative educators have forged paths in the use of Generative AI for teaching, learning and assessments leading to pockets of transformation springing up across HEIs, often with little or no top-down guidance, support or direction.
This Gasta posits a strategic approach to integrating AI into HEIs to prepare staff, students and the curriculum for an evolving world and workplace. We will highlight the advantages of working with these technologies beyond the realm of teaching, learning and assessment by considering prompt engineering skills, industry impact, curriculum changes, and the need for staff upskilling. In contrast, not engaging strategically with Generative AI poses risks, including falling behind peers, missed opportunities and failing to ensure our graduates remain employable. The rapid evolution of AI technologies necessitates a proactive and strategic approach if we are to remain relevant.
1. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
GROUP PROJECT
BACHELOR OF QUANTITY SURVEYING
STRUCTURAL ANALYSIS
OF A RC BUNGALOW
STRUCTURES l BLD 61203
GROUP MEMBERS
GOH XINGXIN 0325587
NA YONG YI 0324458
CHEAH MAN YEE 0324743
SHUM WEN JUN 0325151
SOW WEI HENN 0324998
SAHIL GUNESH 0328569
MS. ANN SEE PENG
2. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
CONTENT
1. INTRODUCTION
• LOCATION PLAN & SITE PLAN
• USAGE
2. RELEVANT FLOOR PLANS
• ARCHITECTURAL FLOOR PLAN
• ARCHITECTURAL ROOF PLAN
3. STRUCTURAL PLANS
• STRUCTURAL FLOOR PLAN
• STRUCTURAL ROOF PLAN
• FOUNDATION PLAN
4. DESIGN BRIEF
• ARCHITECTURAL PLAN WITH LIVE LOAD AND FUNCTION
• DETAILS OF MATERIAL
5. BEAM ANALYSIS REPORT
• STRUCTURAL PLAN
• LOAD DISTRIBUTION PLAN
6. INDIVIDUAL REPORT (BEAM)
• GOH XINGXIN (0325587)
• NA YONG YI (0324458)
• CHEAH MAN YEE (0324743)
• SOW WEI HENN (0324998)
• SHUM WEN JUN (0325151)
• SAHIL GUNESH ( 0328569)
7. COLUMN ANALYSIS REPORT
• LOAD DISTRIBUTION PLAN
8. INDIVIDUAL REPORT (COLUMN)
• GOH XINGXIN (0325587)
• NA YONG YI (0324458)
• CHEAH MAN YEE (0324743)
• SOW WEI HENN (0324998)
• SHUM WEN JUN (0325151)
• SAHIL GUNESH ( 0328569)
• 1,2
• 3 – 6
• 7
• 8
• 9
• 10
• 11
• 12
• 13
• 14
• 15
• 16 – 32
• 33 – 49
• 50 – 67
• 68 – 84
• 85 – 101
• 102-118
• 119 - 120
• 121– 125
• 126 – 130
• 131 – 135
• 136 – 140
• 141 – 145
• 146 - 150
4. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BRIEF DESCRIPTION 1
BRIEF DESCRIPTION OF BUNGALOW
LOCATION PLAN
SITE PLAN
No.1, Jalan Flora 3, Bandar Rimbayu, 42500 Telok Panglima Garang, Selangor Darul Ehsan.
5. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BRIEF DESCRIPTION 2
BRIEF DESCRIPTION OF BUNGALOW
INSPIRATIONAL PHOTO
WALL HEIGHT : 4.200 m
6. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BRIEF DESCRIPTION 3
USAGE
LIVING AREA
The expansive living room is perfect for both entertaining and intimate family moments.
DINING AREA
The spacious dining area allows for larger dinner parties without sacrificing its intimate ambience.
7. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BRIEF DESCRIPTION 4
USAGE
KITCHEN
GUEST ROOMS
The spacious kitchen creates an ideal place for storing, cooking and preparing food.
This cheerful, day-lit room is ideal for guest who requires a room for temporary stay.
8. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BRIEF DESCRIPTION 5
USAGE
MASTER BEDROOM
BATHROOMS
The master bedroom was envisioned as a self contained sanctuary where the owners of
the house can rest after a busy day.
The bathroom allows the people in the house to take care of personal hygiene activities.
9. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BRIEF DESCRIPTION 6
USAGE
WALK-IN WARDROBE
STORE ROOM
A large closet that is capable of allowing the owner to walk into.
A room to store goods and supplies.
14. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
STRUCTURAL PLANS 9
STRUCTURAL FLOOR PLAN
BEAM SIZE : 150mm x 300mm
COLUMN SIZE : 150mm x 300mm
SLAB THICKNESS 150mm
15. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
STRUCTURAL PLANS 10
STRUCTURAL ROOF PLAN
16. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
STRUCTURAL PLANS 11
FOUNDATION PLAN
Pad footing size : 1000mm x 1000mm x 500mm
17. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
DESIGN BRIEF 12
LIVE LOAD AND FUNCTION
19. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
DESIGN BRIEF 13
DETAILS OF MATERIAL
DEAD LOAD FACTOR = 1.4 (according to UBBL)
DEAD LOADS OF STRUCTURE (CONSTANT)
Density of concrete = 24kN/m3 Density of brick = 19kN/m3 Dead load of roof = 1.0kn/m2
STRUCTURE SELF WEIGHT CALCULATION
Concrete beam self weight Beam size: 0.15m x 0.30m = 0.045 m2
Beam self weight = Beam size x Density of concrete
= 0.045m2 x 24kN/m3
= 1.08 kN/m
Brick wall self weight Wall height: 4.20m
Wall self weight = Wall thickness x Wall height x
Density of brick
= (0.15 x 4.20)m2 x 19kN/m3
= 11.97 kN/m
Floor slab self weight Slab thickness: 0.15m
Floor slab self weight = Slab thickness x Density of
concrete
= 0.15m x 24kN/m3
= 3.60 kN/m2
LIVE LOADS OF ROOMS ACCORDING TO ITS FUNCTION (CONSTANT)
LIVE LOAD FACTOR = 1.6 (according to UBBL)
ROOM LIVE LOAD PER METER SQUARE AREA (kN/m2)
Living Area
Master Bedroom
Guest Rooms
Bathroom
Kitchen
Dining Area
Walk-in Wardrobe
Store Room
1.5
1.5
1.5
1.5
1.5
2.0
2.4
1.5
21. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BEAM ANALYSIS 14
STRUCTURAL PLAN
22. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BEAM ANALYSIS 15
LOAD DISTRIBUTION PLAN
23. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BEAM ANALYSIS 16
GOH XINGXIN 0325587
BEAM F/1-2
BEAM 1/E-G
BEAM 2/F-G
BEAM G/1-3
24. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
17
DEAD LOAD ( BEAM F/1-2 )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
1 2
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
3.000m
1.08 kN/m
Brick wall weight
11.97 kN/m
Floor slab 1-2/F-G (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (2.350/2)
= 4.23 kN/m
Slab 1-2/F-G
4.23 kN/m
Floor slab 1-2/E-F (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (3.000/2) x (2/3)
= 3.60 kN/m
Slab 1-2/E-F
3.60 kN/m
Total Dead Load
1.08 + 11.97 + 4.23 + 3.60 = 20.88 kN/m
Total dead load
GOH XINGXIN 0325587
20.88 kN/m
25. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
18
LIVE LOAD ( BEAM F/1-2 )
Live load in dining area = 1.5kN/m
Live load in living area = 1.5kN/m
LIVE LOAD ANALYSIS
Slab 1-2/F-G
Live load on slab 1-2/F-G (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (2.350/2) m
= 1.76 kN/m
Slab 1-2/E-F
Total Live Load
1.76 + 1.50 = 3.26 kN/m Total live load
Live load on slab 1-2/E-F (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (3.000/2)m x (2/3)
= 1.50 kN/m
GOH XINGXIN 0325587
1 2
3.000m
1.76 kN/m
1.50 kN/m
3.26 kN/m
26. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
19
THE ULTIMATE LOAD ( BEAM F/1-2 )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For 1-2
Ultimate dead load = 20.88kN/m x 1.4 = 29.23kN/m
Ultimate live load = 3.26kN/m x 1.6 = 5.22kN/m
Total ultimate load = 29.23 + 5.22
= 34.45 kN/m
Total
Ultimate Load
1 2
3.00m
To Point load
34.45kN/m x 3.000m = 103.35 kN
103.35 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 103.35 (1.5) – 3RB
3RB = 155.025
RB = 51.675 kN
o Σ𝐹 𝑌 = 0
= 51.675-103.35+ RA
RA = 51.675 kN
RA
51.675 kN51.675 kN
RB
1.50m
34.45 kN/m
GOH XINGXIN 0325587
103.35 kN
27. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
20
LOAD DIAGRAM
BEAM F/ 1-2
1 2
3.000m
51.675 kN51.675 kN
51.675 – 103.35 = -51.675 + 51.675 = 0
51.675 kN
51.675 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
103.35 kN
1.5 x ½ x 51.675 = 38.76 kNm
GOH XINGXIN 0325587
MAX MOMENT = 38.76 kNm
28. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
21
DEAD LOAD ( BEAM 1/E-G )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
E F G
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
3.750m 2.350m
1.08 kN/m
Brick wall weight
Floor slab 1-2/E-F (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (3.000/2)
= 5.40 kN/m
Slab 1-2/E-F
5.40 kN/m
Slab 1-2/F-G
2.82 kN/m
Total Dead Load
For E-F = 1.08+ 11.97 + 5.40 = 18.45 kN/m
For F-G = 1.08 + 11.97 + 2.82 = 15.87 kN/m Total dead load
18.45 kN/m 15.87 kN/m
11.97 kN/m
GOH XINGXIN 0325587
Floor slab 1-2/F-G (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (2.350/2) x (2/3)
= 2.82 kN/m
29. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
22
LIVE LOAD ( BEAM 1/E-G )
Live load in dining area = 1.5kN/m
Live load in living area = 1.5kN/m
LIVE LOAD ANALYSIS
Slab 1-2/E-F
Live load on slab 1-2/E-F (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (3.000/2) m
= 2.25kN/m
Slab 1-2/F-G
Total Live Load
For E-F = 3.86 kN/m
For F-G = 1.18 kN/m Total live load
Live load on slab 1-2/F-G (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (2.350/2)m x (2/3)
= 1.18kN/m
GOH XINGXIN 0325587
E F
3.750m 2.350m
1.18 kN/m
2.25 kN/m 1.18 kN/m
2.25 kN/m
G
30. 1.875m
STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
23
THE ULTIMATE LOAD ( BEAM 1/E-G )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For E-F
Ultimate dead load = 18.45kN/m x 1.4 = 25.83kN/m
Ultimate live load = 2.25kN/m x 1.6 = 3.60kN/m
Total ultimate load = 25.83 + 3.60
= 29.43kN/m
Total
Ultimate Load
For F-G
Ultimate dead load = 15.87kN/m x 1.4 = 22.22kN/m
Ultimate live load = 1.18kN/m x 1.6= 1.89kN/m
Total ultimate load = 22.22 + 1.89
= 24.11kN/m
To Point load
For 1-2 = 29.43kN/m x 3.750m
= 110.36 kN
For 2-3 = 24.11kN/m x 2.350m
= 56.66 kN
110.36 kN 56.66 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 110.36 (1.875) + 56.66 (4.925) +
51.68 (3.75) – 6.1RB
6.1RB = 679.78
RB = 111.44 kN
o Σ𝐹 𝑌 = 0
= -110.36 - 56.66 – 51.68 + 111.44 + RA
RA = 107.26 kN
RA RB
4.925m
E F
3.750m 2.350m
24.11 kN/m29.43 kN/m
G
110.36 kN 56.66 kN
111.44 kN107.26kN
GOH XINGXIN 0325587
51.68 kN
31. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
24
LOAD DIAGRAM
BEAM 1/ E-G
111.44 kN107.26 kN
At Point E-F
107.26 – 110.36 = -3.10
At Point F
-3.10 – 51.68 = - 54.78
At Point F-G:
-54.78 - 56.66 = -111.44
At Point G
-111.44 + 111.44 = 0
107.26 kN
111.44 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
MAX MOMENT = 195.21 kNm
E F
3.750m 2.350m
G
110.36 kN
51.68 kN
GOH XINGXIN 0325587
-3.10 kN
-54.78 kN
x/3.750 = 3.10/(3.10+107.23)
= 3.10/110.33
x = 3.10 x 3.750 / 110.33
= 0.11
Max Moment = (3.750-0.11) x 107.26 x ½
= 195.21 kNm
x
56.66 kN
32. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
25
DEAD LOAD ( BEAM 2/F-G )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
F G
2.350m
1.08 kN/m
Floor slab 1-2/F-G (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (2.350/2) x (2/3)
= 2.82 kN/m
Slab 1-2/F-G
2.82 kN/m
Floor slab 2-4/D-G (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (8.700/2) x (2/3)
= 10.44 kN/m
Slab 2-4/D-G
10.44 kN/m
Total Dead Load
2.82 + 10.44 = 13.26 kN/m
Total dead load
GOH XINGXIN 0325587
13.26 kN/m
33. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
26
LIVE LOAD ( BEAM 2/F-G )
Live load in dining area = 1.5kN/m
Live load in living area = 1.5kN/m
LIVE LOAD ANALYSIS
Slab 1-2/F-G
Live load on slab 1-2/F-G (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (2.350/2) m x (2/3)
= 1.18 kN/m
Slab 2-4/D-G
Total Live Load
1.18 + 4.35 = 5.53 kN/m Total live load
Live load on slab 2-4/D-G (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (8.700/2)m x (2/3)
= 4.35 kN/m
GOH XINGXIN 0325587
F G
2.350m
1.18 kN/m
4.35 kN/m
5.53 kN/m
34. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
27
THE ULTIMATE LOAD ( BEAM 2/F-G )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For F-G
Ultimate dead load = 13.26kN/m x 1.4 = 18.56kN/m
Ultimate live load = 5.53kN/m x 1.6 = 8.85kN/m
Total ultimate load = 18.56 + 8.85
= 27.41 kN/m
Total
Ultimate Load
F G
2.350m
To Point load
27.41kN/m x 2.350m = 64.42 kN
64.42 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 64.42 (1.175) – 2.35RB
2.35RB = 75.69
RB = 32.21 kN
o Σ𝐹 𝑌 = 0
= 32.21-64.42+ RA
RA = 32.21 kN
RA
32.21 kN32.21 kN
RB
1.175m
27.41 kN/m
GOH XINGXIN 0325587
64.42 kN
35. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
28
LOAD DIAGRAM
BEAM 2/ F-G
F G
2.350m
32.21 kN32.21 kN
32.21 – 64.42 = -32.21 + 32.21 = 0
32.21 kN
32.21 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
64.42 kN
1.175 x ½ x 32.21 = 18.92 kNm
GOH XINGXIN 0325587
MAX MOMENT = 18.92 kNm
36. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
29
DEAD LOAD ( BEAM G/1-3 )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
1 2 3
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
3.000m 3.065m
1.08 kN/m
Brick wall weight
Floor slab 1-2/F-G (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (2.350/2)
= 4.23 kN/m
Slab 1-2/F-G
4.23 kN/m
Slab 2-4/D-G
15.66 kN/m
Total Dead Load
For 1-2 = 1.08+ 11.97 + 4.23 = 17.28 kN/m
For 2-3 = 1.08 + 11.97 + 15..66 = 28.71 kN/m Total dead load
17.28 kN/m 28.71 kN/m
11.97 kN/m
GOH XINGXIN 0325587
Floor slab 2-4/D-G (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (8.700/2)
= 15.66 kN/m
37. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
30
LIVE LOAD ( BEAM G/1-3 )
Live load in dining area = 1.5kN/m
Live load in living area = 1.5kN/m
LIVE LOAD ANALYSIS
Slab 1-2/F-G
Live load on slab 1-2/F-G (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (2.350/2) m
= 1.76 kN/m
Slab 2-4/D-G
Total Live Load
For 1-2 = 1.76 kN/m
For 2-3 = 6.53 kN/m Total live load
Live load on slab 2-4/D-G (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (8.700/2)m
= 6.53 kN/m
GOH XINGXIN 0325587
6.53 kN/m
1.76 kN/m 6.53 kN/m
1.76 kN/m
1 2 3
3.000m 3.065m
38. 1.500m
STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
31
THE ULTIMATE LOAD ( BEAM G/1-3 )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For 1-2
Ultimate dead load = 17.28kN/m x 1.4 = 24.19kN/m
Ultimate live load = 1.76kN/m x 1.6 = 2.82kN/m
Total ultimate load = 24.19 + 2.82
= 27.01 kN/m
Total
Ultimate Load
For 2-3
Ultimate dead load = 28.71kN/m x 1.4 = 40.19kN/m
Ultimate live load = 6.53kN/m x 1.6= 10.45kN/m
Total ultimate load = 40.19 + 10.45
= 50.64 kN/m
To Point load
For 1-2 = 27.01kN/m x 3.000m
= 81.03 kN
For 2-3 = 50.64kN/m x 3.065m
= 155.21 kN
81.03 kN 155.21 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 81.03 (1.500) + 155.21 (4.533) +
32.21 (3.00) – 6.07RB
6.07RB = 921.74
RB = 151.85 kN
o Σ𝐹 𝑌 = 0
= -81.03 – 32.21 – 155.21 + 151.85 + RA
RA = 116.60 kN
RA RB
4.533m
50.64 kN/m27.01kN/m
GOH XINGXIN 0325587
1 2 3
3.000m 3.065m
32.21
kN
151.85 kN116.60 kN
81.03 kN 155.21 kN
39. .
STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
32
LOAD DIAGRAM
BEAM G/ 1-3
At Point 1-2
116.60 – 81.03 = 35.57
At Point 2
35.57 – 32.21 = 3.36
At Point 2-3
3.36 – 155.21 = -151.85
At Point 3
-151.85 + 151.85 = 0
116.60 kN
151.85 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
GOH XINGXIN 0325587
3.36 kN
35.57 kN
x/3.065 = 3.36/(3.36+151.85)
= 3.36/155.21
x = 3.36 x 3.065/155.21
= 0.07
Max Moment = [(116.60 + 35.57) x ½ x 3.00]
+ [½ x 3.36 x 0.07]
= 228.26 kNm + 0.12 kNm
= 228.38 kNm
x
155.21 kN81.03 kN
1 2 3
3.000m 3.065m
151.85 kN116.60 kN
32.21
kN
MAX MOMENT = 228.38 kNm
40. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BEAM ANALYSIS 33
NA YONG YI (0324458)
BEAM D/3-4
BEAM B-D1/4
BEAM D1-G/5
BEAM D1/4-6
41. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
34
DEAD LOAD ( BEAM D/3-4 )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
3 4
Brick wall self weight
= 0 kN/m (no brick wall)
4.785 m
1.08 kN/m
Floor slab 2-5/D-G (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (8.700/2)
= 15.66 kN/m Slab 2-5/D-G
15.66 kN/m
Slab 3-4/B-D
5.74 kN/m
Total Dead Load
For 3-4 = 1.08 + 15.66 + 5.74 = 22.48 kN/m
Total dead load
22.48 kN/m
NA YONG YI 0324458
Floor slab 3-4/B-D (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (4.785/2) x (2/3)
= 5.74 kN/m
42. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
35
LIVE LOAD ( BEAM D/3-4 )
Live load in living area = 1.5kN/m2
LIVE LOAD ANALYSIS
Slab 2-5/D-G
3 4
Live load on slab 2-5/D-G (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (8.700/2)m
= 6.53 kN/m
Slab 3-4/B-D
Total Live Load
For 3-4 = 6.53 + 2.39 = 8.92 kN/m
Total live load
Live load on slab 3-4/B-D (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (4.785/2)m x (2/3)
= 2.39 kN/m
NA YONG YI 0324458
4.785 m
6.53 kN/m
2.39 kN/m
8.92 kN/m
43. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
36
THE ULTIMATE LOAD ( BEAM D/3-4 )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For 3-4
Ultimate dead load = 22.48kN/m x 1.4 = 31.47kN/m
Ultimate live load = 8.92kN/m x 1.6 = 14.27kN/m
Total ultimate load = 31.47 + 14.27
= 45.74 kN/m
Total
Ultimate Load
3 4
To Point load
For 3-4 = 45.74 kN/m x 4.785m
= 218.87 kN
218.87 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 218.87 (2.393) – 4.785 RB
4.785 RB = 523.76
RB = 109.46 kN
o Σ𝐹 𝑌 = 0
= -218.87 + 109.46 + RA
RA = 109.41 kN
RA
109.46 kN109.41 kN
RB
2.393 m
NA YONG YI 0324458
4.785 m
45.74 kN/m
218.87 kN
44. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
37
LOAD DIAGRAM
BEAM D/ 3-4
3 4
218.87 kN
At Point 1-2: 109.41 – 218.87 = - 109.46 kN
At Point 2-3: -109.46 + 109.46 = 0 kN
109.41 kN
- 109.46 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
NA YONG YI 0324458
MAX MOMENT =
4.785 m
109.46 kN109.41 kN
RA RB
109.46
0
Positive area = 0.5 x 109.41 x 2.39
= 130.74
≈ 131
Negative area = 0.5 x 109.46 x 2.39
= 130.80
≈ 131
131 kNm
45. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
38
DEAD LOAD ( BEAM B-D1/4 )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
B D1
6.400 m
1.08 kN/m
Floor slab 3-4/B-D (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (4.785/2)
= 8.61 kN/m Slab 3-4/B-D
8.61 kN/m
Slab 2-5/D-G
15.66
kN/m
Total Dead Load
For B-D = 1.08 + 11.97 + 8.61 = 21.66 kN/m
For D-D1 = 1.08 + 11.97 + 15.66 = 28.71 kN/m Total dead load
21.66 kN/m
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
Brick wall weight
11.97 kN/m
D
0.850 m5.550 m
28.71
kN/m
NA YONG YI 0324458
Floor slab 2-5/D-G (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (8.700/2)
= 15.66 kN/m
46. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
39
LIVE LOAD ( BEAM B-D1/4 )
Live load in living area = 1.5kN/m2
LIVE LOAD ANALYSIS
Slab 3-4/B-D
Live load on slab 3-4/B-D (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (4.785/2)m
= 3.59 kN/m
Slab 2-5/D-G
Total Live Load
For B-D = 3.59 kN/m
For D-D1 = 6.53 kN/m
Total live load
Live load on slab 2-5/D-G (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (8.700/2)m
= 6.53 kN/m
NA YONG YI 0324458
6.53
kN/m
3.59 kN/m
B D1
6.400 m
3.59 kN/m
D
0.850 m5.550 m
6.53
kN/m
47. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
40
THE ULTIMATE LOAD ( BEAM B-D1/4 )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For B-D
Ultimate dead load = 21.66kN/m x 1.4 = 30.32 kN/m
Ultimate live load = 3.59kN/m x 1.6 = 5.74 kN/m
Total ultimate load = 30.32 + 5.74
= 36.06 kN/m
Total
Ultimate Load
To Point load
For B-D = 36.06 kN/m x 5.550m
= 200.13 kN
For D-D1 = 50.64 kN/m x 0.850m
= 43.04 kN/m
Point load at Point D/4 = 109.46 kN
200.13 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 200.13(2.775) + 43.04(5.975) + 109.46(5.550)
– 6.4 RB
6.4 RB = 1420.03
RB = 221.88 kN
o Σ𝐹 𝑌 = 0
= -200.13 – 109.46 – 43.04 + 221.88 + RA
RA = 130.75 kN
RA
221.88 kN130.75 kN
RB
2.775 m
NA YONG YI 0324458
200.13 kN
B D1
6.400 m
36.06 kN/m
D
0.850 m5.550 m
For D-D1
Ultimate dead load = 28.71kN/m x 1.4 = 40.19 kN/m
Ultimate live load = 6.53kN/m x 1.6 = 10.45 kN/m
Total ultimate load = 40.19 + 10.45
= 50.64 kN/m
50.64
kN/m
43.04 kN
43.04 kN
5.975 m
109.46 kN
48. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
41
LOAD DIAGRAM
BEAM B-D1/4
At Point B-D: 130.75 – 200.13 = - 69.38 kN
At Point D: - 69.38 – 109.46 = - 178.84 kN
At Point D-D1: -178.84 – 43.04 = -221.88 kN
At Point D1: - 221.88 + 221.88 = 0 kN
130.75 kN
- 69.38 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
NA YONG YI 0324458
MAX MOMENT = 237kNm
B D1
6.400 m
200.13 kN
D
0.850 m5.550 m
43.04
kN
RA
221.88 kN130.75 kN
RB
109.46
kN
0
- 221.88 kN
- 178.84 kN
Positive area = 0.5 x 130.75 x 3.63
= 237.31
≈ 237
Negative area = (0.5 x 69.38 x 1.92) +
0.5(178.84+221.88) x 0.85
= 236.91
≈ 237
x/5.550 = 69.38/(69.38+130.75)
x = 1.92
x
69.38
130.75
5.55
49. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
42
DEAD LOAD ( BEAM D1-G/5 )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
D1 G
7.850 m
1.08 kN/m
Floor slab 2-5/D-G (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (8.700/2) x (2/3)
= 10.44 kN/m
Slab 2-5/D-G
10.44 kN/m
Slab 5-5a/D1-E1
2.79
kN/m
Total Dead Load
For D1-E1 = 1.08 + 10.44 + 2.79 = 14.31 kN/m
For E1-G = 1.08 + 11.97 + 10.44 + 6.24 = 29.73 kN/m Total dead load
14.31
kN/m
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
Brick wall weight
11.97 kN/m
E1
5.200 m2.650 m
29.73 kN/m
Floor slab 5-6/E1-G (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (5.200/2) x (2/3)
= 6.24 kN/m
Slab 5-6/E1-G
6.24 kN/m
NA YONG YI 0324458
Floor slab 5-5a/D1-E1 (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (1.550/2)
= 2.79 kN/m
50. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
43
LIVE LOAD ( BEAM D1-G/5 )
Live load in living area = 1.5kN/m2
Live load in master bedroom = 1.5kN/m2
LIVE LOAD ANALYSIS
Live load on slab 2-5/D-G (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (8.700/2)m x (2/3)
= 4.35 kN/m
Total Live Load
For D1-E1 = 4.35 + 1.16 = 5.51 kN/m
For E1-G = 4.35 + 2.60 = 6.95 kN/m
Live load on slab 5-6/E1-G (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (5.200/2)m x (2/3)
= 2.60 kN/m
NA YONG YI 0324458
Slab 2-5/D-G
4.35 kN/m
Slab 5-5a/D1-E1
1.16
kN/m
Total live load
5.51
kN/m 6.95 kN/m
Slab 5-6/E1-G
2.60 kN/m
D1 G
7.850 m
E1
5.200 m2.650 m
Live load on slab 5-5a/D1-E1 (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (1.550/2)
= 1.16 kN/m
51. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
44
THE ULTIMATE LOAD ( BEAM D1-G/5 )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For D1-E1
Ultimate dead load = 14.31kN/m x 1.4 = 20.03 kN/m
Ultimate live load = 5.51kN/m x 1.6 = 8.82 kN/m
Total ultimate load = 20.03 + 8.82
= 28.85 kN/m
Total
Ultimate Load
To Point load
For D1-E1 = 28.85 kN/m x 2.650m
= 76.45 kN
For E1-G = 52.74 kN/m x 5.200m
= 274.25 kN
Point load at Point E1/5 = 204.36 kN
76.45 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 76.45(1.325) + 274.25(5.250) + 204.36(2.650)
– 7.85 RB
7.85 RB = 2082.66
RB = 265.31 kN
o Σ𝐹 𝑌 = 0
= -76.45 – 274.25 – 204.36 + 265.31 + RA
RA = 289.75 kN
RA
265.31 kN289.75 kN
RB
1.325 m
NA YONG YI 0324458
For E1-G
Ultimate dead load = 29.73kN/m x 1.4 = 41.62 kN/m
Ultimate live load = 6.95kN/m x 1.6 = 11.12 kN/m
Total ultimate load = 41.62 + 11.12
= 52.74 kN/m
274.25 kN
5.250 m
204.36 kN
28.85 kN/m
D1 G
7.850 m
E1
5.200 m2.650 m
52.74 kN/m
76.45 kN 274.25 kN
52. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
45
LOAD DIAGRAM
BEAM D1-G/5
At Point D1-E1: 289.75 – 76.45 = 213.30 kN
At Point E1: 213.30 – 204.36 = 8.94 kN
At Point E1-G: 8.94 - 274.25 = -265.31 kN
At Point G: -265.31 + 265.31 = 0 kN
289.75 kN
213.30 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
NA YONG YI 0324458
MAX MOMENT = 667 kNm
- 265.31 kN
D1 G
7.850 m
E1
5.200 m2.650 m
RA
265.31 kN289.75 kN
RB
76.45 kN 274.25 kN
8.94 kN
0
Positive area = [0.5(289.75 + 213.30) x 2.65]
+ 0.5(8.94 x 0.17)
= 666.54 + 0.76
= 667.30
≈ 667
Negative area = 0.5 x 5.03 x 265.31
= 667.25
≈ 667
x/5.20 = 8.94/(8.94+265.31)
x = 0.17
x
8.94
5.20
265.31
204.36 kN
53. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
46
DEAD LOAD ( BEAM D1/4-6 )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
4 6
8.000 m
1.08 kN/m
Floor slab 2-5/D-G (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (8.700/2) x (2/3)
= 10.44 kN/m
Slab 2-5/D-G
10.44
kN/m
Floor slab 5-5a/D1-E1 (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (1.550/2) x (2/3)
= 1.86 kN/m
Slab 5-5a/D1-E1
1.86
kN/m
Total Dead Load
For 4-5 = 1.08 + 11.97 + 10.44 = 23.49 kN/m
For 5-5a = 1.08 + 11.97 + 1.86 = 14.91 kN/m
For 5a-5b = 1.08 + 11.97 + 4.77 = 17.82 kN/m
For 5b-6 = 1.08 + 11.97 + 2.58 = 15.63 kN/m
Total dead load
23.49
kN/m
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
Brick wall weight
11.97 kN/m
5
3.300 m1.000 m
17.82 kN/m
Floor slab 5a-5b/D1-E1 (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (2.650/2)
= 4.77 kN/m
Slab 5a-5b/D1-E1
4.77 kN/m
5a 5b
1.550 m 2.150 m
Floor slab 5b-6/D1-E1 (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (2.150/2) x (2/3)
= 2.58 kN/m
Slab 5b-6/D1-E1
2.58 kN/m
NA YONG YI 0324458
14.91
kN/m
15.63
kN/m
54. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
47
LIVE LOAD ( BEAM D1/4-6 )
Live load in living area = 1.5kN/m2
Live load in attached bathroom = 2.0kN/m2
Live load in walk-in wardrobe = 1.5kN/m2
LIVE LOAD ANALYSIS
Live load on slab 2-5/D-G (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (8.700/2)m x (2/3)
= 4.35 kN/m
Total Live Load
For 4-5 = 4.35 kN/m
For 5-5a = 0.78 kN/m
For 5a-5b = 2.65 kN/m
For 5b-6 = 1.08kN/m
Live load on slab 5a-5b/D1-E1 (trapezoid)
= Live load (UBBL) x (Lx/2)
= 2.0kN/m2 x (2.650/2)m
= 2.65 kN/m
NA YONG YI 0324458
Total live load
Live load on slab 5-5a/D1-E1 (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (1.550/2) x (2/3)
= 0.78 kN/m
4 6
8.000 m
5
3.300 m1.000 m
5a 5b
1.550 m 2.150 m
Slab 2-5/D-G
4.35 kN/m
Slab 5-5a/D1-E1
0.78 kN/m
Slab 5a-5b/D1-E1
2.65 kN/m
Slab 5b-6/D1-E1
1.08 kN/mLive load on slab 5b-6/D1-E1 (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (2.150/2)m x (2/3)
= 1.08 kN/m
4.35
kN/m 2.65 kN/m
0.78
kN/m
1.08
kN/m
55. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
48
THE ULTIMATE LOAD ( BEAM D1/4-6 )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For 4-5
Ultimate dead load = 23.49kN/m x 1.4 = 32.89 kN/m
Ultimate live load = 4.35kN/m x 1.6 = 6.96 kN/m
Total ultimate load = 32.89 + 6.96 = 39.85 kN/m
Total
Ultimate
Load
To Point load
For 4-5 = 39.85 kN/m x 1.000m = 39.85 kN
For 5-5a = 22.12 kN/m x 1.550m = 34.29 kN
For 5a-5b = 29.19 kN/m x 3.300m = 96.33 kN
For 5b-6 = 23.61 kN/m x 2.150m = 50.76 kN
Point load at Point D1/5 = 289.75 kN
Point load at Point D1/5a = 41.50 kN
Point load at Point D1/5b = 44.45 kN
39.85
kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 39.85(0.500) + 34.29(1.775) + 96.33(4.200) +
50.76(6.925) + 289.75(1) + 41.50(2.550) +
44.45(5.850) - 8.00 RB
8 RB = 1492.50
RB = 186.56 kN
o Σ𝐹 𝑌 = 0
= -39.85 - 34.29 – 96.33 – 50.76 – 289.75 –
41.50 – 44.45 + 186.56 + RA
RA = 410.37 kN
RA
186.56 kN410.37 kN
RB
0.500 m
NA YONG YI 0324458
For 5-5a
Ultimate dead load = 14.91kN/m x 1.4 = 20.87 kN/m
Ultimate live load = 0.78kN/m x 1.6 = 1.25 kN/m
Total ultimate load = 20.87 + 1.25 = 22.12 kN/m
96.33 kN
1.775 m
289.75 kN
4 6
8.000 m
5
3.300 m1.000 m
5a 5b
1.550 m 2.150 m
39.85
kN/m 29.19 kN/m
22.12
kN/m
23.61
kN/m
For 5a-5b
Ultimate dead load = 17.82kN/m x 1.4 = 24.95 kN/m
Ultimate live load = 2.65kN/m x 1.6 = 4.24 kN/m
Total ultimate load = 24.95 + 4.24 = 29.19 kN/m
For 5b-6
Ultimate dead load = 15.63kN/m x 1.4 = 21.88 kN/m
Ultimate live load = 1.08kN/m x 1.6 = 1.73 kN/m
Total ultimate load = 21.88 + 1.73 = 23.61 kN/m
34.29
kN
50.76
kN
39.85
kN
96.33 kN34.29
kN
50.76
kN
4.200 m
6.925 m
41.50 kN 44.45 kN
56. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
49
LOAD DIAGRAM
BEAM D1/4-6
At Point 4-5: 410.37 – 39.85 = 370.52 kN
At Point 5: 370.52 – 289.75 = 80.77 kN
At Point 5-5a: 80.77 – 34.29 = 46.48 kN
At Point 5a: 46.48 – 41.50 = 4.98 kN
At Point 5a-5b: 4.98 – 96.33 = -91.35 kN
At Point 5b: -91.35 – 44.45 = -135.80 kN
At Point 5b-6: -135.80 – 50.76 = -186.56 kN
At Point 6: -186.56 + 186.56 = 0kN
410.37 kN
370.52 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
NA YONG YI 0324458
MAX MOMENT = 489 kNm
- 186.56 kN
4 6
8.000 m
5
3.300 m1.000 m
5a 5b
1.550 m 2.150 m
80.77 kN
46.48 kN
4.98 kN
- 91.35 kN
- 135.80 kN
0
Positive area = [0.5(410.37 + 370.52) x 1.00]
+ [0.5(80.77 + 46.48) x 1.55]
+ 0.5(4.98 x 0.17)
= 390.45 + 98.62 + 0.42
= 489.49
≈ 489
Negative area = 0.5(91.35 x 3.13) + 0.5(135.80
+ 186.56) x 2.15
= 489.49
≈ 489
x/3.30 = 4.98/(4.98+91.35)
x = 0.17
x
4.98
3.30
91.35
RA
186.56 kN410.37 kN
RB
289.75 kN
39.85
kN
96.33 kN34.29
kN
50.76
kN
41.50 kN 44.45 kN
57. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BEAM ANALYSIS 50
CHEAH MAN YEE (0324743)
BEAM 5A/D1-E1
BEAM 5B/D1-E1
BEAM 5-6 / E1
BEAM 6/D1-G
58. D1 E1
2.650m
STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
51
DEAD LOAD ( BEAM 5A/D1-E1 )
Beam self weight
= Beam size x Density of concrete
= (0.15 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.15 x 4.20)m2 x 19kN/m3
= 11.97 kN/m
Floor slab 5-5a/ D1-E1 (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (1.550/2)
= 2.79 kN/m
Total Dead Load
For Beam 5a/ D1-E1 = 1.08 + 11.97 + 2.79 + 3.18
= 19.02 kN/m
CHEAH MAN YEE 0324743
CALCULATION NO. 1- BEAM 5A/ D1-E1
Beam self weight
1.08 kN/m
Brick wall weight
11.97 kN/m
Slab 5-5a/ D1-E1
2.79 kN/m
Slab 5a-5b/ D1-E1
3.18 kN/m
Total dead load
19.02 kN/m
Floor slab 5a-5b/ D1-E1 (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (2.650/2) x (2/3)
= 3.18 kN/m
59. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
52
LIVE LOAD ( BEAM 5A/ D1-E1)
Live load in living area= 1.5 kN/m2
Live load in attached bathroom = 2.0 kN/m2
LIVE LOAD ANALYSIS
Live load on slab 5-5a/ D1-E1 (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (1.550/2)m
= 1.16kN/m
Total Live Load
For Beam 5a/ D1-E1 = 1.16 + 1.77 = 2.93kN/m
Live load on slab 5a-5b/ D1-E1 (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 2.0kN/m2 x (2.650/2)m x (2/3)
= 1.77kN/m
CHEAH MAN YEE 0324743
CALCULATION NO. 1- BEAM 5A/ D1-E1
D1 E1
2.650m
Slab 5-5a/ D1-E1
1.16 kN/m
Slab 5a-5b/ D1-E1
1.77 kN/m
Total live load
2.93 kN/m
60. D1 E1
2.650m
STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
53
THE ULTIMATE LOAD ( BEAM 5A/ D1-E1)
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
Ultimate Load
For D1- E1
Ultimate dead load = 19.02kN/m x 1.4 = 26.63kN/m
Ultimate live load = 2.93kN/m x 1.6 = 4.69kN/m
Total ultimate load = 26.63 + 4.69
= 31.32 kN/m
Total
Ultimate Load
To Point load
For D1- E1 = 31.32kN/m x 2.650m
= 83 kN
Reaction Forces
o Σ𝑀 = 0
=RD1 (2.65m) - 83 (1.325m)
2.65RD1 = 109.98
RD1 = 41.50 kN
o Σ𝐹 𝑌 = 0
= 41.50 – 83.00+ RE1
RE1 = 41.50 kN
83 kN
RD1
41.50 kN41.50 kN
RE1
1.325m
CHEAH MAN YEE 0324743
CALCULATION NO. 1- BEAM 5A/ D1-E1
31.32 kN/m
Point Load
83 kN
61. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
54
LOAD DIAGRAM
BEAM 5A/ D1-E1
(41.5 x 1.325) x (1/2) = 27.49 kNm
41.50 kN
-41.50 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
27.49 kNm
CHEAH MAN YEE 0324743
CALCULATION NO. 1- BEAM 5A/ D1-E1
D1 E1
2.650m
31.32 kN/m
RD1
41.50 kN41.50 kN
RE1
(83 kN)
1.325m
62. D1 E1
2.650m
STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
55
DEAD LOAD ( BEAM 5B/D1-E1 )
Beam self weight
= Beam size x Density of concrete
= (0.15 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.15 x 4.20)m2 x 19kN/m3
= 11.97 kN/m
Floor slab 5a-5b/ D1-E1 (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (2.650/2) x (2/3)
= 3.18 kN/m
Total Dead Load
For Beam 5b/ D1-E1 = 1.08 + 11.97 + 3.18 + 3.87
= 20.10 kN/m
CHEAH MAN YEE 0324743
CALCULATION NO. 2- BEAM 5B/ D1-E1
Beam self weight
1.08 kN/m
Brick wall weight
11.97 kN/m
Slab 5a-5b/ D1-E1
3.18 kN/m
Slab 5b-6/ D1-E1
3.97 kN/m
Total dead load
20.10 kN/m
Floor slab 5b-6/ D1-E1 (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (2.150/2)
= 3.87 kN/m
63. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
56
LIVE LOAD ( BEAM 5B/ D1-E1)
Live load in walk-in wardrobe= 1.5 kN/m2
Live load in attached bathroom = 2.0 kN/m2
LIVE LOAD ANALYSIS
Live load on slab 5a-5b/ D1-E1 (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 2.0kN/m2 x (2.650/2)m x (2/3)
= 1.77kN/m
Total Live Load
For Beam 5b/ D1-E1 = 1.77 + 1.61 = 3.38kN/m
Live load on slab 5b-6/ D1-E1 (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (2.150/2)m
= 1.61kN/m
CHEAH MAN YEE 0324743
D1 E1
2.650m
Slab 5a-5b/ D1-E1
1.77 kN/m
Slab 5b-6/ D1-E1
1.61 kN/m
Total live load
3.38 kN/m
CALCULATION NO. 2- BEAM 5B/ D1-E1
64. D1 E1
2.650m
STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
57
THE ULTIMATE LOAD ( BEAM 5B/ D1-E1)
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
Ultimate Load
For D1- E1
Ultimate dead load = 20.10kN/m x 1.4 = 28.14kN/m
Ultimate live load = 3.38kN/m x 1.6 = 5.41kN/m
Total ultimate load = 28.14 + 5.41
= 33.55 kN/m
Total
Ultimate Load
To Point load
For D1- E1 = 33.55kN/m x 2.650m
= 88.91 kN
Reaction Forces
o Σ𝑀 = 0
=RD1 (2.65m) – 88.91 (1.325m)
2.65RD1 = 117.81
RD1 = 44.45 kN
o Σ𝐹 𝑌 = 0
= 44.45 – 88.91+ RE1
RE1 = 44.45 kN
88.91 kN
RD1
44.45 kN44.45 kN
RE1
1.325m
CHEAH MAN YEE 0324743
33.55 kN/m
Point Load
88.91 kN
CALCULATION NO. 2- BEAM 5B/ D1-E1
65. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
58
LOAD DIAGRAM
BEAM 5B/ D1-E1
(44.45 x 1.325) x (1/2) = 29.45 kNm
44.45 kN
-44.45 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
29.45 kNm
CHEAH MAN YEE 0324743
D1 E1
2.650m
33.55 kN/m
RD1
44.45 kN44.45 kN
RE1
(88.91
kN)
1.325m
CALCULATION NO. 2- BEAM 5B/ D1-E1
66. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
59
DEAD LOAD ( BEAM 5-6 / E1 )
Beam self weight
= Beam size x Density of concrete
= (0.15 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Total Dead Load
For 5-5a = 1.08 + 11.97 + 1.86 + 9.36
= 24.27 kN/m
For 5a-5b = 1.08 + 11.97 + 4.77 + 9.36
= 27.18 kN/m
For 5b-6 = 1.08 + 11.97 + 2.58 + 9.36
= 24.99 kN/m
CHEAH MAN YEE 0324743
CALCULATION NO. 3- BEAM 5-6 / E1
Beam SW
1.08 kN/m
Bwl
SW
11.97 kN/m
Slab 5-5a
/ D1-E1
1.86 kN/m
Slab 5a-5b
/ D1-E1
4.77 kN/m
9.36 kN/m
Slab 5-6
/ E1-G
2.58 kN/m
Slab 5b-6
/ D1-E1
27.18 kN/m
24.27 kN/m
24.99 kN/m
Total
Dead
Load
Brick wall self weight
= Wall thickness x Wall height x
Density of brick
= (0.15 x 4.20)m2 x 19kN/m3
= 11.97 kN/m
Floor slab 5-5a/ D1-E1 (triangle)
= (Thickness of slab x Density of concrete)
x (Lx/2) x (2/3)
= (0.150m x 24kN/m2) x (1.550/2) x (2/3)
= 1.86 kN/m
Floor slab 5b-6/ D1-E1 (triangle)
= (Thickness of slab x Density of concrete)
x (Lx/2) x (2/3)
= (0.150m x 24kN/m2) x (2.150/2) x (2/3)
= 2.58 kN/m
Floor slab 5a-5b/ D1-E1 (trapezoid)
= (Thickness of slab x Density of concrete)
x (Lx/2)
= (0.150m x 24kN/m2) x (2.650/2)
= 4.77 kN/m
Floor slab 5-6 / E1-G (trapezoid)
= (Thickness of slab x Density of concrete)
x (Lx/2)
= (0.150m x 24kN/m2) x (5.200/2)
= 9.36 kN/m
5B5
3.300m
5A 6
1.550m 2.150m
67. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
60
LIVE LOAD ( BEAM 5-6 / E1)
Live load in walk-in wardrobe= 1.5 kN/m2
Live load in attached bathroom = 2.0 kN/m2
Live load in living area= 1.5 kN/m2
Live load in master bedroom= 1.5 kN/m2
LIVE LOAD ANALYSIS
Live load on slab 5-5a/ D1-E1 (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (1.550/2)m x (2/3)
= 0.78kN/m
Total Live Load
For 5-5a = 0.78 + 3.90 = 4.68kN/m
For 5a-5b = 2.65 + 3.90 = 6.55kN/m
For 5b-6 = 1.08 + 3.90 = 4.98kN/m
CHEAH MAN YEE 0324743
CALCULATION NO. 3- BEAM 5-6 / E1
Slab 5-5a
/ D1-E1
0.78 kN/m
Slab 5a-5b
/ D1-E1
2.65 kN/m
3.90 kN/m
Slab 5-6
/ E1-G
1.08 kN/m
Slab 5b-6
/ D1-E1
6.55 kN/m
4.68kN/m
4.98 kN/m
Total
Live Load
Live load on slab 5b-6/ D1-E1 (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (2.150/2)m x (2/3)
= 1.08kN/m
Live load on slab 5a-5b/ D1-E1 (trapezoid)
= Live load (UBBL) x (Lx/2)
= 2.0kN/m2 x (2.650/2)m
= 2.65kN/m
Live load on slab 5-6/ E1-G (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (5.200/2)m
= 3.90kN/m
5B5
3.300m
5A 6
1.550m 2.150m
68. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
61
THE ULTIMATE LOAD ( BEAM 5-6 / E1)
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
CHEAH MAN YEE 0324743
CALCULATION NO. 3- BEAM 5-6 / E1
48.53 kN/m
41.47kN/m
42.96 kN/m
Total
Ultimate
Load
5B5
3.300m
5A 6
1.550m 2.150mUltimate Load
For 5-5a
Ultimate dead load = 24.27kN/m x 1.4
= 33.98kN/m
Ultimate live load = 4.68kN/m x 1.6
= 7.49kN/m
Total ultimate load = 33.98 + 7.49
= 41.47 kN/m
For 5a-5b
Ultimate dead load = 27.18kN/m x 1.4
= 38.05kN/m
Ultimate live load = 6.55kN/m x 1.6
= 10.48kN/m
Total ultimate load = 38.05 + 10.48
= 48.53 kN/m
For 5b-6
Ultimate dead load = 24.99kN/m x 1.4
= 34.99kN/m
Ultimate live load = 4.98kN/m x 1.6
= 7.97kN/m
Total ultimate load = 33.98 + 7.49
= 42.96 kN/m
69. 5B5
3.300m
5A 6
1.550m 2.150m
STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
62
THE POINT LOAD ( BEAM 5-6 / E1)
1. Point load at Point 5a/ E1= 41.50 kN
(From Beam 5a/D1-E1, refer to calculation no.1)
2. Point load at Point 5b/ E1= 44.45 kN
(From Beam 5b/ D1-E1, refer to calculation no. 2)
THE POINT LOAD
To Point load
For 5-5a= 41.47kN/m x 1.550m = 64.28 kN
For 5a-5b= 48.53kN/m x 3.300m = 160.15 kN
For 5b-6= 42.96kN/m x 2.150m = 92.36 kN
Reaction Forces
o Σ𝑀 = 0
=R5 (7m) – 64.28 (6.23m) – 41.5 (5.45m)
– 160.15 (3.8m) - 44.45 (2.15m) – 92.36 (1.08m)
7R5 = 1430.53
R5 = 204.36 kN
o Σ𝐹 𝑌 = 0
= 204.36- 64.28- 41.50- 160.15- 44.45-
92.36+ R6
R6 = 198.38 kN
CHEAH MAN YEE 0324743
CALCULATION NO. 3- BEAM 5-6 / E1
48.53 kN/m
41.47kN/m
42.96 kN/m
41.50 kN/m 44.45 kN/m
160.15 kN
64.28kN
92.36 kN
Point
Load
41.50 kN/m 44.45 kN/m
R5 R6
198.38 kN204.36 kN
160.15 kN
64.28kN
92.36 kN
41.50 kN/m 44.45 kN/m
0.780m 1.650m 1.080m
70. 5B5
3.300m
5A 6
1.550m 2.150m
STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
63
LOAD DIAGRAM
BEAM 5-6/ E1
Ratio: 98.58/x = 61.57/ (3.30- x)
325.31= 160.15 x
x= 2.03m
204.36 kN
98.58 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
266.94
kNm
CHEAH MAN YEE 0324743
X= 2.03m
CALCULATION NO. 3- BEAM 5-6 / E1
R6
(64.28
kN)
48.53 kN/m
41.47kN/m
42.96 kN/m
41.50 kN/m 44.45 kN/m
R5
198.38 kN204.36 kN
(160.15 kN)
(92.36
kN)
0 kN
140.08 kN
-61.57 kN
-106.02 kN
-198.38 kN
At Point 5-5a: 204.36 – 64.28 = 140.08kN
At Point 5a: 140.08 – 41.50 = 98.58kN
At Point 5a-5b: 98.58 – 160.15 = -61.57kN
At Point 5a: -61.57 – 44.45 = -106.02kN
At Point 5a: -106.02 – 92.36 = -198.38kN
367 kNm
327.23
kNm
0
1.27m
(a) Positive area (+ve)
(204.36+ 140.08)/2 x 1.55m = 266.94 m2
98.58 x 2.03m x (1/2) = 100.06 m2
(a) Negative area (-ve)
61.57 x 1.27m x (1/2) = -39.10 m2
(106.02 + 198.38)/2 x 2.15m = 327.23 m2
71. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
64
DEAD LOAD ( BEAM 6/D1-G )
Beam self weight
= Beam size x Density of concrete
= (0.15 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Brick wall self weight
= Wall thickness x Wall height x
Density of brick
= (0.15 x 4.20)m2 x 19kN/m3
= 11.97 kN/m
Floor slab 5b-6/ D1-E1 (trapezoid)
= (Thickness of slab x Density of concrete)
x (Lx/2)
= (0.150m x 24kN/m2) x (2.150/2)
= 3.87 kN/m
Total Dead Load
For D1-E1 = 1.08 + 11.97 + 3.87
= 16.92 kN/m
For E1-G = 1.08 + 11.97 + 6.24
= 19.29 kN/m
CHEAH MAN YEE 0324743
CALCULATION NO. 4- BEAM 6/ D1-G
Beam
self weight
1.08 kN/m
Brick
wall weight
11.97 kN/m
Slab 5b-6
/ D1-E1
3.87 kN/m
Slab 5-6
/ E1-G
6.24 kN/m
D1 E1
5.200m
G
2.650m
Total
dead load
19.29 kN/m
16.92 kN/m
Floor slab 5-6/ E1-G (triangle)
= (Thickness of slab x Density of concrete) x
(Lx/2) x (2/3)
= (0.150m x 24kN/m2) x (5.2000/2) x (2/3)
= 6.24 kN/m
72. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
65
LIVE LOAD ( BEAM 6/ D1-G)
Live load in walk-in wardrobe= 1.5 kN/m2
Live load in master bedroom = 1.5 kN/m2
LIVE LOAD ANALYSIS
Live load on slab 5a-5b/ D1-E1 (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (5.200/2)m x (2/3)
= 2.60kN/m
Total Live Load
For D1-E1 = 1.61 kN/m
For E1-G = 2.60 kN/m
Live load on slab 5b-6/ D1-E1 (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (2.150/2)m
= 1.61kN/m
CHEAH MAN YEE 0324743
CALCULATION NO. 4- BEAM 6/ D1-G
Slab 5b-6
/ D1-E1
1.61 kN/m
Slab 5-6
/ E1-G
2.60 kN/m
D1 E1
5.200m
G
2.650m
Total
Live load
2.60 kN/m
1.61 kN/m
73. D1 E1
5.200m
G
2.650m
STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
66
THE ULTIMATE LOAD ( BEAM 6/ D1-G)
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
Ultimate Load
For D1- E1
Ultimate dead load = 16.92kN/m x 1.4 = 23.69kN/m
Ultimate live load = 1.61kN/m x 1.6 = 2.58kN/m
Total ultimate load = 23.69 + 2.58
= 26.27 kN/m
For E1- G
Ultimate dead load = 19.29kN/m x 1.4 = 27.01kN/m
Ultimate live load = 2.60kN/m x 1.6 = 4.16kN/m
Total ultimate load = 27.01 + 4.16
= 31.17 kN/m
To Point load
For D1- E1 = 26.27kN/m x 2.650m
= 69.62 kN
For E1- G = 31.17kN/m x 5.200m
= 162.08 kN
Reaction Forces
o Σ𝑀 = 0
=RD1 (7.85m) – 69.62 (6.525m) -
198.38 (5.2m) – 162.08 (2.6m)
7.85RD1 = 1907.26
RD1 = 242.96 kN
o Σ𝐹 𝑌 = 0
= 242.96 -69.62 -198.38 -162.08 + RG
RG = 187.12 kN RD1 RG
1.325m
CHEAH MAN YEE 0324743
CALCULATION NO. 4- BEAM 6/ D1-G
Total
Ultimate
Load
31.17 kN/m
26.27 kN/m
THE POINT LOAD ( BEAM 6/ D1-G)
1. Point load at Point 6/ E1= 198.38 kN
(From Beam 5-6/ E1, refer to calculation no.3)
31.17 kN/m
26.27 kN/m
198.38 kN
Point
Load
162.08 kN
69.62 kN
198.38 kN
162.08 kN
69.62 kN
198.38 kN
242.96 kN 187.12 kN
2.600m
74. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
67
LOAD DIAGRAM
BEAM 6/ D1-G
BENDING MOMENT DIAGRAM
CHEAH MAN YEE 0324743
CALCULATION NO. 4- BEAM 6/ D1-G
SHEAR FORCE DIAGRAM
D1 E1
5.200m
G
2.650m
(69.62
kN) 31.17 kN/m
26.27 kN/m
198.38 kN
RD1 RG
(162.08 kN)
187.12 kN242.96 kN
242.96 kN
-187.12 kN
551.60 kNm
173.34 kN
0
kN
-25.04 kN
+ 0.02
(a) Positive area (+ve)
(242.96 + 173.34)/2 x 2.65m = 551.60 m2
(a) Negative area (-ve)
(25.04 + 187.12)/2 x 5.20m = 551.62 m2
[551.60 + (-551.62) = -0.02]
At Point D1-E1: 242.96 – 69.62 = 173.34kN
At Point E1: 173.34 – 198.38 = -25.04kN
At Point E1- G: -25.04 – 162.08 = -187.12kN
75. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BEAM ANALYSIS 68
SOW WEI HENN (0324998)
BEAM 1/C-E
BEAM 2/D-F
BEAM D/1-3
BEAM E/1-2
76. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
69
DEAD LOAD ( BEAM E/1-2 )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
1 2
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.000)m2 x 19kN/m3
= 11.4 kN/m
3.000m
1.08 kN/m
Brick wall weight
11.4 kN/m
Slab 1-2/D-E
4.68 kN/mFloor slab 1-2/D-E (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (2.600/2)
= 4.68 kN/m
17.16 kN/m
Total Dead Load
For 1-2/D-E = 1.08 + 11.4 + 4.68 = 17.16kN/m
SOW WEI HENN 0324998
Total Dead Load
77. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
70
LIVE LOAD ( BEAM E/1-2 )
Live load in guest room = 1.5kN/m
Live load in kitchen area = 1.5kN/m
LIVE LOAD ANALYSIS
1 2
3.000m
Slab 1-2/D-E
4.68 kN/m
4.68 kN/m
Total Live Load
For 1-2 = 4.68kN/m
Total live load
Live load on slab 1-2/D-E (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (2.600/2)m
= 4.68kN/m
SOW WEI HENN 0324998
78. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
71
THE ULTIMATE LOAD ( BEAM E/1-2 )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For 1-2
Ultimate dead load = 17.16kN/m x 1.4 = 24.02kN/m
Ultimate live load = 4.68kN/m x 1.6 = 7.49kN/m
Total ultimate load = 24.02 + 7.49
= 31.51kN/m
Total
Ultimate Load
1 23.00m
31.51 kN/m
To Point load
For 1-2 = 31.51kN/m x 3.000m
= 94.53 kN
94.53 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 94.53(1.50) – 3RB
3RB = 141.80
RB = 47.27 kN
o Σ𝐹 𝑌 = 0
= -94.53 + 47.66+ RA
RA = 46.87 kN
94.53 kN
RA
47.27 kN46.87 kN
RB
3.00m
1.50m
SOW WEI HENN 0324998
79. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
72
LOAD DIAGRAM
BEAM D/ 1-3
1 2
3.000m
31.51 kN
47.27 kN46.87 kN
-47.66 kN
At Point 1-2: 46.87 – 94.53 = -47.66
46.87 kN
47.66 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
MAX MOMENT = 36kNm
SOW WEI HENN 0324998
Positive area – Negative area
Positive = 0.5 x 1.5 x 46.87
= 35.55 = 36
Negative = 0.5 x 1.5 x 47.66
= 35.98 = 36
36 – 36 = 0
80. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
73
DEAD LOAD ( BEAM 2/D-F )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
D E F
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
2.600m 3.750m
1.08 kN/m
Brick wall weight
11.97 kN/m
Floor slab 1-2/D-E (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (2.600/2)
= 4.68 kN/m
Slab 1-2/D-E
4.68 kN/m
Floor slab 1-2/E-F
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (3.000/2)
= 5.40 kN/m Slab 1-2/E-F
5.40kN/m
Floor slab 2-4/D-G (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (8.700/2) x (2/3)
= 10.44 kN/m Slab 2-4/D-G
10.44 kN/m
Total Dead Load
For D-E = 1.08 + 11.97 + 4.68 + 10.44 = 28.17kN/m
For E-F= 1.08 + 5.40 + 10.44 = 16.92kN/m Total dead load
28.17 kN/m 16.92 kN/m
SOW WEI HENN 0324998
81. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
74
LIVE LOAD ( BEAM 2/D-F )
Live load in kitchen area = 1.5kN/m
Live load in dining area = 1.5kN/m
LIVE LOAD ANALYSIS
Slab 1-2/D-E
D E F
Live load on slab 1-2/D-E (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (2.600/2)m
= 1.95kN/m
2.600m 3.750m
1.95 kN/m
Slab 1-2/E-F
2.25 kN/m
Slab 2-4/D-G
4.35 kN/m
Total Live Load
For D-E = 1.95 + 4.35 = 6.30kN/m
For E-F = 2.25 + 4.35 = 6.60kN/m Total live load
6.30 kN/m 6.60 kN/m
Live load on slab 1-2/E-F
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (3.000/2)m
= 2.25kN/m
Live load on slab 2-4/D-G (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (8.700/2)m x (2/3)
= 4.35kN/m
SOW WEI HENN 0324998
82. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
75
THE ULTIMATE LOAD ( BEAM 2/D-F )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For D-E
Ultimate dead load = 28.17kN/m x 1.4 = 39.44kN/m
Ultimate live load = 6.30kN/m x 1.6 = 10.08kN/m
Total ultimate load = 39.44 + 10.08
= 49.52kN/m
Total
Ultimate Load
D E F
2.600m 3.750m
49.52 kN/m
For E-F
Ultimate dead load = 16.92kN/m x 1.4 = 23.69kN/m
Ultimate live load = 6.66kN/m x 1.6= 10.66kN/m
Total ultimate load = 23.69 + 10.66
= 34.35kN/m
34.35 kN/m
To Point load
For D-E = 49.52kN/m x 2.600m
= 128.75 kN
For E-F = 34.35kN/m x 3.750m
= 128.81 KN
Beam E/1-2 = 47.27kN
128.75 kN 128.81 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 128.75 (1.3) + 47.27 (2.6) + 128.81(4.48) –
6.35RB
6.35RB = 867.35
RB = 136.59 kN
o Σ𝐹 𝑌 = 0
= -128.75 – 47.27 – 128.81 + 136.59 + RA
RA = 168.24 kN
128.75 kN 128.81 kN
RA
136.59 kN168.24 kN
RB
4.48m
1.30m
SOW WEI HENN 0324998
47.27kN
83. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
76
LOAD DIAGRAM
BEAM D/ 1-3
D E F
2.600m 3.750m
49.52 kN 34.35 kN
136.59 kN168.24 kN
-7.78 kN
At Point D-E: 168.24 – 128.75 = 39.49
At Point E : 39.49 – 47.27 = -7.78
At Point E-F : -7.78 – 128.81 = -136.59
168.24 kN
136.59 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
MAX MOMENT = 270kNm
SOW WEI HENN 0324998
Positive area – Negative area
Positive = 0.5 x 2.6 x (168.24+39.49)
= 270.05 = 270
Negative = 0.5 x 3.75 x (7.78+136.59)
= 270.49 = 270
270 – 270 = 0
47.27kN
84. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
77
DEAD LOAD ( BEAM D/1-3 )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
1 2 3
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
3.000m 3.065m
1.08 kN/m
Brick wall weight
11.4 kN/m
Floor slab 1-3/C-D (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (3.150/2)
= 5.67 kN/m
Slab 1-3/C-D
5.67 kN/m
Floor slab 1-2/D-E (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (2.600/2)
= 4.68 kN/m Slab 1-2/D-E
4.68 kN/m
Floor slab 2-4/D-G (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (8.700/2) x (2/3)
= 10.44 kN/m Slab 2-4/D-G
10.44 kN/m
Total Dead Load
For 1-2 = 1.08 + 11.97 + 5.67 + 4.68 = 23.40kN/m
For 2-3 = 1.08 + 5.67 + 10.44 = 17.19kN/m Total dead load
23.40 kN/m 17.19 kN/m
SOW WEI HENN 0324998
85. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
78
LIVE LOAD ( BEAM D/1-3 )
Live load in guest room = 1.5kN/m
Live load in living area = 1.5kN/m
LIVE LOAD ANALYSIS
Slab 1-3/C-D
1 2 3
Live load on slab 1-3/C-D (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (3.150/2)m
= 2.36kN/m
3.000m 3.065m
2.36 kN/m
Slab 1-2/D-E
1.95 kN/m
Slab 2-4/D-G
4.35 kN/m
Total Live Load
For 1-2 = 2.36 + 1.95 = 4.31kN/m
For 2-3 = 2.36 + 4.35 = 6.71kN/m Total live load
4.31 kN/m 6.71 kN/m
Live load on slab 1-2/D-E (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (2.600/2)m
= 1.95kN/m
Live load on slab 2-4/D-G (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (8.700/2)m x (2/3)
= 4.35kN/m
SOW WEI HENN 0324998
86. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
79
THE ULTIMATE LOAD ( BEAM D/1-3 )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For 1-2
Ultimate dead load = 23.40kN/m x 1.4 = 32.76kN/m
Ultimate live load = 4.31kN/m x 1.6 = 6.90kN/m
Total ultimate load = 32.76 + 6.90
= 39.66kN/m
Total
Ultimate Load
1 2 3
3.00m 3.065m
39.66 kN/m
For 2-3
Ultimate dead load = 17.19kN/m x 1.4 = 24.07kN/m
Ultimate live load = 6.71kN/m x 1.6= 10.74kN/m
Total ultimate load = 24.07 + 10.74
= 34.81kN/m
34.81 kN/m
To Point load
For 1-2 = 39.66kN/m x 3.000m
= 118.98 kN
For 2-3 = 34.81kN/m x 3.000m
= 104.43 kN
Beam 2/D-F = 168.24 kN
118.98 kN 104.43 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 118.98 (1.5) + 104.43 (4.53) + 168.24(3.0) –
6.065RB
6.065RB = 1,156.26kN
RB = 190.64 kN
o Σ𝐹 𝑌 = 0
= -118.98 – 104.43 – 168.24 + 190.64+ RA
RA = 201.01 kN
118.98 kN 104.43 kN
RA
190.64 kN201.01 kN
RB
4.53m
1.50m
SOW WEI HENN 0324998
168.24kN
87. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
80
LOAD DIAGRAM
BEAM D/ 1-3
1 2 3
3.000m 3.065m
39.66 kN 34.81 kN
190.64 kN201.01 kN
-86.21 kN
At Point 1-2: 201.01 – 118.98 = 82.03
At Point 2 : 82.03 – 168.24 = -86.21
At Point 2-3: -86.21 – 104.43 = -190.64
201.01 kN
190.64 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
MAX MOMENT = 424kNm
SOW WEI HENN 0324998
Positive area – Negative area
Positive = 0.5 x 3.0 x (201.01+82.03)
= 424.56 = 424
Negative = 0.5 x 3.065 x (86.21+190.64)
= 424.27 = 424
424 – 424 = 0
168.24kN
88. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
81
DEAD LOAD ( BEAM 1/C-E )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
C D E
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
3.150m 2.600m
1.08 kN/m
Brick wall weight
11.97 kN/m
Floor slab 1-3/C-D (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (3.000/2)
= 5.40 kN/m
Slab 1-3/C-D
5.67 kN/m
Floor slab 1-2/D-E (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (2.600/2)
= 4.68 kN/m Slab 1-2/D-E
3.60 kN/m
16.65 kN/m
Total Dead Load
For D-E = 1.08 + 11.97 + 5.67 = 18.72kN/m
For E-F = 1.08 + 11.97 + 3.60 = 16.65kN/m
Total dead load
18.72 kN/m
SOW WEI HENN 0324998
89. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
82
LIVE LOAD ( BEAM 1/C-E )
Live load in guest room = 1.5kN/m
Live load in kitchen area = 1.5kN/m
LIVE LOAD ANALYSIS
Slab 1-3/C-D
C D E
Live load on slab 1-3/C-D (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (3.150/2)m
= 2.36kN/m
3.150m 2.600m
2.36 kN/m
Slab 1-2/D-E
1.95 kN/m
Total Live Load
For C-D = 2.36kN/m
For D-E = 1.95kN/m Total live load
2.36 kN/m 1.95 kN/m
Live load on slab 1-2/D-E (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (2.600/2)m
= 1.95kN/m
SOW WEI HENN 0324998
90. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
83
THE ULTIMATE LOAD ( BEAM 1/C-E )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For C-D
Ultimate dead load = 18.72kN/m x 1.4 = 26.21kN/m
Ultimate live load = 2.36kN/m x 1.6 = 3.78kN/m
Total ultimate load = 26.21 + 3.78
= 29.99kN/m
Total
Ultimate Load
C D E
3.150m 2.600m
29.99 kN/m
For D-E
Ultimate dead load = 16.65kN/m x 1.4 = 23.31kN/m
Ultimate live load = 1.95kN/m x 1.6= 3.12kN/m
Total ultimate load = 23.31 + 3.12
= 26.43kN/m
26.43 kN/m
To Point load
For C-D = 29.99kN/m x 3.150m
= 94.47 kN
For D-E = 26.43kN/m x 2.600m
= 68.72 kN
Beam D/1-3 = 201.01 kN
94.47 kN 68.72 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 94.47 (1.575) + 201.01 (3.150) +
68.72(4.450) – 5.750RB
5.75RB = 1,087.78
RB = 189.18 kN
o Σ𝐹 𝑌 = 0
= -94.47 – 201.01 – 68.72 + 189.18+ RA
RA = 175.02 kN
94.47 kN 68.72 kN
RA
189.18 kN175.02 kN
RB
4.450m
1.575m
SOW WEI HENN 0324998
201.01kN
91. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
84
LOAD DIAGRAM
BEAM D/ 1-3
C D E
3.150m 2.600m
29.99 kN 26.43 kN
189.18 kN175.02 kN
-120.46 kN
At Point C-D: 175.02 – 94.47 = 80.55
At Point D : 80.55 – 201.01 = -120.46
At Point D-E: -120.46 – 68.72 = -189.18
175.02 kN
189.18 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
MAX MOMENT = 403kNm
SOW WEI HENN 0324998
201.01kN
Positive area – Negative area
Positive = 0.5 x 3.15 x (175.02+80.55)
= 402.52 = 403
Negative = 0.5 x 2.60 x (120.46+189.18)
= 402.53 = 403
403 - 403 = 0
92. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BEAM ANALYSIS 85
SHUM WEN JUN (0325151)
BEAM 2/A-C
BEAM 3/B-D
BEAM B/2-3
BEAM C/2-3
93. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
86
DEAD LOAD ( BEAM B/2-3 )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
2 3
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
3.065m
1.08 kN/m
Brick wall weight
11.97 kN/m
Floor slab 2-3a/A-B (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (3.600/2)
= 6.48 kN/m
Slab 2-3a/A-B
6.48 N/m
Floor slab 2-3/B-C (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (2.400/2)
= 4.32 kN/m Slab 2-3/B-C
4.32 kN/m
Total Dead Load
For 2 -3 = 1.08 + 11.97 + 6.48 + 4.32 = 23.85kN/m
Total dead load
SHUM WEN JUN 0325151
23.85 kN/m
94. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
87
LIVE LOAD ( BEAM B/2-3 )
Live load in guest room 2= 1.5kN/m2
Live load in bathroom 1= 2.0kN/m2
LIVE LOAD ANALYSIS
Slab 2-3a/A-B
2 3
Live load on slab 2-3a/A-B (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (3.600/2)m
= 2.70kN/m
3.065m
2.70 kN/m
Slab B-C/2-3
2.40 kN/m
5.10 kN/m
Total Live Load
For 2-3 = 2.70 + 2.40 = 5.10kN/m
Total live load
Live load on slab B-C/2-3 (trapezoid)
= Live load (UBBL) x (Lx/2)
= 2.0kN/m2 x (2.400/2)m
= 2.40kN/m
SHUM WEN JUN 0325151
95. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
88
THE ULTIMATE LOAD ( BEAM B/2-3 )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
Total
Ultimate Load
2 3
3.065m
41.55 kN/m
For 2-3
Ultimate dead load = 23.85kN/m x 1.4 = 33.39kN/m
Ultimate live load = 5.1kN/m x 1.6= 8.16kN/m
Total ultimate load = 33.39 + 8.16
= 41.55kN/m
To Point load
For 2-3 = 41.55kN/m x 3.065m
= 127.35 kN
127.35 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 127.35 (1.533) - 3.065RB
3.065RB = 195.23
RB = 63.70 kN
o Σ𝐹 𝑌 = 0
= -127.35 + 63.70+ RA
RA = 63.65 kN
127.35 kN
RA
63.70 kN63.65 kN
RB
3.065m
1.533m
SHUM WEN JUN 0325151
96. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
89
LOAD DIAGRAM
BEAM B/ 2-3
2 3
3.065m
41.55 kN
63.70 kN63.65 kN
-63.70 kN
At Point 2-3: 63.65 – 127.35 = -63.70
63.65 kN
63.70 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
MAX MOMENT = 49 kNm
SHUM WEN JUN 032121
Positive area – negative area in V
+ve = 1/2 x 1.533 x 63.65
= 48.79 ≈ 49
-ve = 1/2 x 1.533 x 63.70
= 48.83 ≈ 49
49 - 49 = 0
97. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
90
DEAD LOAD ( BEAM C/2-3 )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
2 3
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
3.065m
1.08 kN/m
Brick wall weight
11.97 kN/m
Floor slab 1-3/C-D (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (3.150/2)
= 5.67 kN/m
Slab 1-3/C-D
5.67 N/m
Total Dead Load
For 2 -3 = 1.08 + 11.97 + 4.32 + 5.67 = 23.04kN/m
Total dead load
SHUM WEN JUN 0325151
23.04 kN/m
Floor slab 2-3/B-C (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (2.400/2)
= 4.32 kN/m
Slab 2-3/B-C
4.32 kN/m
98. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
91
LIVE LOAD ( BEAM C/2-3 )
Live load in guest room 1= 1.5kN/m2
Live load in bathroom 1= 2.0kN/m2
LIVE LOAD ANALYSIS
Slab 1-3/C-D
2 3
Live load on slab 1-3/C-D (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (3.150/2)m
= 2.36kN/m
3.065m
2.36 kN/m
4.76 kN/m
Total Live Load
For 2-3 = 2.40 + 2.36 = 4.76kN/m
Total live load
SHUM WEN JUN 0325151
Slab B-C/2-3
2.40 kN/mLive load on slab 2-3/B-C (trapezoid)
= Live load (UBBL) x (Lx/2)
= 2kN/m2 x (2.400/2)m
= 2.40kN/m
99. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
92
THE ULTIMATE LOAD ( BEAM C/2-3 )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
Total
Ultimate Load
2 3
3.065m
39.88 kN/m
For 2-3
Ultimate dead load = 23.04kN/m x 1.4 = 32.26kN/m
Ultimate live load = 4.76kN/m x 1.6= 7.62kN/m
Total ultimate load = 32.26+ 7.62
= 39.88 kN/m
To Point load
For 2-3 = 39.88kN/m x 3.065m
= 122.23 kN
122.23 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 122.23 (1.533) - 3.065RB
3.065RB = 187.38
RB = 61.14 kN
o Σ𝐹 𝑌 = 0
= -122.23 + 61.14+ RA
RA = 61.09 kN
122.23 kN
RA
61.14 kN61.09 kN
RB
3.065m
1.533m
SHUM WEN JUN 0325151
100. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
93
LOAD DIAGRAM
BEAM C/ 2-3
2 3
3.065m
39.88 kN
61.14 kN61.09 kN
-61.14 kN
At Point 2-3: 61.09 – 122.23 = -61.14
61.09 kN
61.14 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
MAX MOMENT = 47 kNm
SHUM WEN JUN 035151
Positive area – negative area in V
+ve = 1/2 x 1.533 x 61.09
= 46.83 ≈ 47
-ve = 1/2 x 1.533 x 61.14
= 46.86 ≈ 47
47 - 47 = 0
101. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
94
DEAD LOAD ( BEAM 2/A-C )
Beam self weight
= Beam size x Density of concrete
= (0.175 x 0.300)m2 x 24kN/m3
= 1.26 kN/m
DEAD LOAD ANALYSIS
Beam self weight
A B C
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.000)m2 x 19kN/m3
= 11.4 kN/m
3.600m 2.400m
1.26 kN/m
Brick wall weight
11.4 kN/m
Slab 2-3a/A-B
4.32 kN/m
Floor slab 2-3a/A-B (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (3.600/2) x (2/3)
= 4.32 kN/m
Slab 2-3/B-C
2.88 kN/m
Floor slab 2-3/B-C (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (2.400/2) x (2/3)
= 2.88 kN/m
15.54 kN/m
Total Dead Load
For A-B = 1.26 + 11.4 + 4.32 = 16.98kN/m
For B-C = 1.26 + 11.4 + 2.88 = 15.54kN/m
Total dead load
SHUM WEN JUN 0325151
16.98 kN/m
102. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
95
LIVE LOAD ( BEAM 2/A-C )
Live load in guest room 2 = 1.5kN/m2
Live load in bathroom 1 = 2.0kN/m2
LIVE LOAD ANALYSIS
Total Live Load
For A-B = 1.80kN/m
For B-C = 1.60kN/m
Live load on slab 2-3a/A-B (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (3.600/2)m x (2/3)
= 1.80kN/m
Live load on slab 2-3/B-C (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 2.0kN/m2 x (2400/2)m x (2/3)
= 1.60kN/m
SHUM WEN JUN 0325151
Slab 2-3a/A-B
A B C
3.600m 2.400m
1.80 kN/m
Slab 2-3/B-C
1.60 kN/m
1.80 kN/m
Total live load
1.60 kN/m
103. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
96
THE ULTIMATE LOAD ( BEAM 2/A-C )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For A-B
Ultimate dead load = 16.98kN/m x 1.4 = 23.77kN/m
Ultimate live load = 1.80kN/m x 1.6 = 2.88kN/m
Total ultimate load = 23.77+2.88
= 26.65kN/m
Total
Ultimate Load
A B C
3.600m 2.400m
26.65 kN/m
For B-C
Ultimate dead load = 15.54kN/m x 1.4 = 21.76kN/m
Ultimate live load = 1.60kN/m x 1.6= 2.56kN/m
Total ultimate load = 21.76 + 2.56
= 24.32kN/m
24.32 kN/m
To Point load
For A-B = 26.65kN/m x 3.600m
= 95.94 kN
For B-C = 24.32kN/m x 2.400m
= 58.37 kN
Beam B/2-3 = 63.65 kN
95.94 kN 58.37 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 95.94 (1.8) + 63.65 (3.6) +58.37(4.8) – 6RB
6RB = 682.00
RB = 113.67 kN
o Σ𝐹 𝑌 = 0
= -95.94 – 63.65 – 58.37 + 113.67+ RA
RA = 104.29 kN
RA
113.67 kN104.29 kN
RB
4.800m
1.800m
SHUM WEN JUN 0325151
63.65 kN
95.94 kN 58.37 kN63.65 kN
104. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
97
LOAD DIAGRAM
BEAM 2/ A-C
A B C
3.600m 2.400m
26.65 kN
63.65 kN
113.67 kN104.29 kN
-55.30 kN
At Point A-B: 104.29 – 95.94 = 8.35
At Point B : 8.35 – 63.65 = - 55.30
At Point B-C: -55.30 – 58.37 = -113.67
104.29 kN
113.67 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
MAX MOMENT
= 203 kNm
SHUM WEN JUN 0325151
24.32 kN
Positive area – negative area in V
+ve = [1/2 x 3.6 x (104.29+8.35)]
= 202.75 ≈ 203
-ve = [1/2 x 2.40 x (55.30 + 113.67)}
= 202.76 ≈ 203
203 – 203 = 0
105. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
98
DEAD LOAD ( BEAM 3/B-D )
Beam self weight
= Beam size x Density of concrete
= (0.175 x 0.300)m2 x 24kN/m3
= 1.26 kN/m
DEAD LOAD ANALYSIS
Beam self weight
B C D
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.000)m2 x 19kN/m3
= 11.4 kN/m
2.400m 3.150m
1.26 kN/m
Brick wall weight
11.4 kN/m
Slab 2-3/B-C
2.88 kN/m
Floor slab 2-3/B-C (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (2.400/2) x (2/3)
= 2.88 kN/m
Slab 2-3/B-C
3.78 kN/m
Floor slab 1-3/C-D (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (3.150/2) x (2/3)
= 3.78 kN/m
25.53 kN/m
Total Dead Load
For B-C = 1.26 + 11.4 + 2.88 + 9.99 = 25.53kN/m
For C-D = 1.26 + 11.4 + 3.78 + 9.99 = 26.43kN/m
Total dead load
SHUM WEN JUN 0325151
26.43 kN/m
Slab 3-4/B-D
9.99 kN/m
Floor slab 3-4/B-D (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (5.550/2)
= 9.99 kN/
106. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
99
LIVE LOAD ( BEAM 3/B-D )
Live load in guest room 1 = 1.5kN/m2
Live load in bathroom 1 = 2.0kN/m2
Live load in living area = 1.5kN/m2
LIVE LOAD ANALYSIS
Total Live Load
For B-C = 1.60 + 4.16 = 5.76kN/m
For B-C = 1.58 + 4.16 = 5.74kN/m
Live load on slab 2-3/B-C (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 2.0kN/m2 x (2.400/2)m x (2/3)
= 1.60kN/m
Live load on slab 1-3/C-D (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (3150/2)m x (2/3)
= 1.58kN/m
SHUM WEN JUN 0325151
B C D
2.400m 3.150m
Slab 2-3/B-C
1.60 kN/m
Slab 1-3/C-D
1.58 kN/m
Slab 3-4/B-D
4.16 kN/m
Live load on slab 1-3/C-D (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (5.550/2)m
= 4.16kN/m
Total live load
5.76 kN/m 5.74 kN/m
107. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
100
THE ULTIMATE LOAD ( BEAM D/1-3 )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For A-B
Ultimate dead load = 25.53kN/m x 1.4 = 35.74kN/m
Ultimate live load = 5.76kN/m x 1.6 = 9.22kN/m
Total ultimate load = 35.74+9.22
= 44.96kN/m
Total
Ultimate Load
B C D
2.400m 3.150m
46.18 kN/m
For B-C
Ultimate dead load = 26.43kN/m x 1.4 = 37.00kN/m
Ultimate live load = 5.74kN/m x 1.6= 9.18kN/m
Total ultimate load = 37.00 + 9.18
= 46.18kN/m
44.96 kN/m
To Point load
For B-C = 44.96kN/m x 2.400m
= 107.90 kN
For C-D = 46.18kN/m x 3.150m
= 145.47 kN
Beam C/2-3 = 61.14kN
107.90 kN 145.47 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 107.90 (1.2) + 61.14 (2.4) +145.47(3.98) – 5.55RB
5.55RB = 855.19
RB = 154.09 kN
o Σ𝐹 𝑌 = 0
= -107.90 – 61.14 – 145.47 + 154.09 + RA
RA = 160.42 kN
RA
154.09kN160.42kN
RB
3.975m
1.200m
SHUM WEN JUN 0325151
61.14 kN
107.90 kN 145.47 kN61.14 kN
108. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
101
LOAD DIAGRAM
BEAM 3/ B-D
B C D
2.400m
46.18 kN61.14 kN
154.09 kN160.42 kN
-8.62 kN
At Point A-B: 160.42 – 107.90 = 52.52
At Point B : 52.52 – 61.14 = - 8.62
At Point B-C: -8.62 – 145.47 = -154.09
160.42 kN
154.09 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
MAX MOMENT
= 256 kNm
SHUM WEN JUN 0325151
44.96 kN
Positive area – negative area in V
+ve = [1/2 x 2.4 x (160.42+52.52)]
= 255.53 ≈ 256
-ve = [1/2 x 3.15 x (8.62 + 154.09)}
= 256.27 ≈ 256
256 – 256 = 0
3.150m
109. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
BEAM ANALYSIS 102
SAHIL (0328569)
BEAM 3b/A1-B
BEAM A1/3a-4
BEAM 3a/A-B
BEAM A/2-4
110. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
103
DEAD LOAD ( BEAM 3b/A1-B )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
A1 B
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
2.100m
1.08 kN/m
Brick wall weight
11.97 kN/m
Floor slab A1-B/3a-3b (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (1.600/2)
= 2.88 kN/m
Slab A1-B/3a-3b
2.88 kN/m
Floor slab A1-B/3b-4 (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
x
= (0.150m x 24kN/m2) x (1.250/2)
= 2.25 kN/m
Slab A1-B/3b-4
2.25 kN/m
Total Dead Load
For A1-B=1.08+11.97+2.88+2.25+9.60=27.78 kN/m
Total dead load
27.78
kN/m
SAHIL GUNESH 0328569
111. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
104
LIVE LOAD ( BEAM 3b/A1-B )
Live load in toilet = 2.0kN/m
Live load in living area = 1.5kN/m
LIVE LOAD ANALYSIS
Slab A1-B/3a-3b
A1 B
Live load on slab A1-B/3a-3b (trapezoid)
= Live load (UBBL) x (Lx/2)
= 2.0kN/m2 x (1.600/2)m
= 1.60kN/m
2.100m
1.60 kN/m
Slab A1-B/3b-4
0.94 kN/m
Total live load
2.54 kN/m
Total Live Load
For A1-B = 1.60 + 0.94 = 2.54kN/m
Live load on slab A1-B/3b-4 (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (1.250/2)m
= 0.94kN/m
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105
THE ULTIMATE LOAD ( BEAM 3b/A1-B )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For A1-B
Ultimate dead load = 27.78kN/m x 1.4 = 38.89kN/m
Ultimate live load = 2.54kN/m x 1.6 = 4.06kN/m
Total ultimate load = 38.89 + 4.06
= 42.95kN/m
Load= 42.95 x 2.10 = 90.20kN
Total
Ultimate Load
A1 B
2.10m
42.95 kN/m
90.20 kN
Reaction Forces
o Σ𝑀 𝐴1 = 0
= 90.20 (1.05) – 2.1RB
2.1RB = 94.71
RB = 45.10 kN
o Σ𝐹 𝑌 = 0
= -90.20 + 45.10 + RA
RA1 = 45.10 kN
90.20 kN
RA1
45.10 kN45.10 kN
RB
1.05m
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113. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
106
LOAD DIAGRAM
BEAM 3b/A1-B
A1 B
2.100m
42.95 kN/m
45.10 kN45.10 kN
45.10 kN
45.10 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
MAX MOMENT = 24kNm
SAHIL GUNESH 0328569
Positive area – negative area in V
+ve = 1/2 x 1.05 x 45.10
= 23.68 ≈ 24
-ve = 1/2 x 1.05 x 45.10
= 23.68 ≈ 24
24 - 24 = 0
114. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
107
DEAD LOAD ( BEAM A1/3a-4 )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
3a 3b
4
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
1.600m 1.250m
1.08 kN/m
Brick wall weight
11.97 kN/m
Floor slab A-A1/3a-4 (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (1.500/2)
= 2.7 kN/m
Slab A-A1/3a-4
2.70 kN/m
Floor slab A1-B/3a-3b (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (1.600/2) x (2/3)
= 1.92 kN/m
Slab A1-B/3a-3b
1.92 kN/m
Floor slab A1-B/3b-4 (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (1.250/2) x (2/3)
= 1.50 kN/m
Slab A1-B/3b-4
1.50 kN/m
Total Dead Load
For 3a-3b = 1.08 + 11.97 + 2.70 + 1.92= 17.67kN/m
For 3b-4 = 1.08 + 11.97 + 2.70 + 1.50 = 17.25kN/m Total dead load
17.67 kN/m 17.25 kN/m
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115. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
108
LIVE LOAD ( BEAM A1/3a-4 )
Live load in store room = 2.4kN/m
Live load in living area = 1.5kN/m
Live load in bathroom 2 = 2.0kN/m
LIVE LOAD ANALYSIS
Slab A-A1/3a-4
3a 3b 4
Live load on slab A-A1/3a-4 (trapezoid)
= Live load (UBBL) x (Lx/2)
= 2.4kN/m2 x (1.500/2)m
= 1.80kN/m
1.600m 1.250m
1.80 kN/m
Slab A1-B/3a-3b
1.07 kN/m
Slab A1-B/3b-4
0.63 kN/m
Total Live Load
For 3a-3b = 1.80 + 1.07 = 2.87kN/m
For 3b-4 = 1.80 + 0.63 = 2.43kN/m Total live load
2.87 kN/m 2.43 kN/m
Live load on slab A1-B/3a-3b (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 2.0kN/m2 x (1.600/2)m x (2/3)
= 1.07kN/m
Live load on slab A1-B/3b-4 (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (1.250/2)m x (2/3)
= 0.63kN/m
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116. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
109
THE ULTIMATE LOAD ( BEAM A1/3a-4 )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For 3a-3b
Ultimate dead load = 17.67kN/m x 1.4 = 24.74kN/m
Ultimate live load = 2.87kN/m x 1.6 = 4.59kN/m
Total ultimate load = 24.74 + 4.59
= 29.33kN/m
Total
Ultimate Load
3a 3b 4
1.600m 1.250m
29.33 kN/m
For 3b-4
Ultimate dead load = 17.25kN/m x 1.4 = 24.15kN/m
Ultimate live load = 2.43kN/m x 1.6= 3.89kN/m
Total ultimate load = 24.15 + 3.89
= 28.04kN/m
28.04 kN/m
To Point load
For 3a-3b = 29.33kN/m x 1.600m
= 46.93 kN
For 3b-4 = 28.04kN/m x 1.250m
= 35.05 kN
Beam 3b/A1-B = 45.10 kN
46.93 kN
35.05 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 46.93 (0.8) + 35.05 (2.23) + 45.10 (1.60)
j -2.85RB
2.85RB = 187.87
RB = 65.92 kN
o Σ𝐹 𝑌 = 0
= -35.05 – 46.93 – 45.10 + 65.92 + RA
RA = 61.16 kN
46.93 kN 35.05 kN
RA
65.92 kN61.16 kN
RB
2.23m
1.60m
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45.10 kN
45.10 kN
0.80m
117. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
110
LOAD DIAGRAM
BEAM A1/3a-4
3a 3b 4
1.600m 1.250m
29.33 kN/m 28.04 kN/m
65.92 kN61.16 kN
-30.87 kN
At Point 3a-3b: 61.16 – 46.93 = 14.23
At Point 3b: 14.23 – 45.10 = -30.87
At Point 3b-4: -30.87 – 35.05 = -65.92
61.16 kN
65.92 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
MAX MOMENT = 60 kNm
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45.10 kN
Positive area – negative area in V
+ve = [1/2 x 1.6 x (61.16+14.23)]
= 60.31 ≈ 60
-ve = [1/2 x 1.25 x (30.87+65.92)}
= 60.49 ≈ 60
60 – 60 = 0
118. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
111
DEAD LOAD ( BEAM 3a/A-B )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
A1
B
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
1.500m 2.100m
1.08 kN/m
Brick wall weight
11.97 kN/m
Floor slab A1-B/3a-3b (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (1.600/2)
= 2.88 kN/m
Slab A1-B/3a-3b
2.88 kN/m
Floor slab A-A1/3a-4 (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (1.500/2) x (2/3)
= 1.8 kN/m
Slab A-A1/3a-4
1.80 kN/m
Floor slab A-B/2-3 (triangle)
= (Thickness of slab x Density of concrete) x (Lx/2)
x (2/3)
= (0.150m x 24kN/m2) x (3.600/2) x (2/3)
= 4.32 kN/m
Slab A1-B/3b-4
4.32 kN/m
Total Dead Load
For 3a-3b = 1.08 + 11.97 + 1.80 + 4.32= 19.17kN/m
For 3b-4 = 1.08 + 11.97 + 2.88 + 4.32 = 20.25kN/m Total dead load
19.17 kN/m 20.25 kN/m
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A
119. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
112
LIVE LOAD ( BEAM 3a/A-B )
Live load in store room = 2.4kN/m
Live load in guest room = 1.5kN/m
Live load in bathroom 2 = 2.0kN/m
LIVE LOAD ANALYSIS
Slab A1-B/3a-3b
A
A1
B
Live load on slab A1-B/3a-3b (trapezoid)
= Live load (UBBL) x (Lx/2)
= 2.0kN/m2 x (1.600/2)m
= 1.60kN/m
1.500m 2.100m
1.60 kN/m
Slab A-A1/3a-4
1.20 kN/m
Slab A-B/2-3a
1.80 kN/m
Total Live Load
For A-A1 = 1.80 + 1.20 = 3.00kN/m
For A1-B = 1.60 + 1.80 = 3.40kN/m Total live load
3.00 kN/m 3.40 kN/m
Live load on slab A-A1/3a-4 (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 2.4kN/m2 x (1.500/2)m x (2/3)
= 1.20kN/m
Live load on slab A-B/2-3a (triangle)
= Live load (UBBL) x (Lx/2) x (2/3)
= 1.5kN/m2 x (3.600/2)m x (2/3)
= 1.80kN/m
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120. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
113
THE ULTIMATE LOAD ( BEAM 3a/A-B )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For A-A1
Ultimate dead load = 19.17kN/m x 1.4 = 26.84kN/m
Ultimate live load = 3.00kN/m x 1.6 = 4.80kN/m
Total ultimate load = 26.84 + 4.80
= 31.84kN/m Total
Ultimate Load
A A1 B
1.500m 2.100m
31.84 kN/m
For A1-B
Ultimate dead load = 20.25kN/m x 1.4 = 28.35kN/m
Ultimate live load = 3.40kN/m x 1.6= 5.44kN/m
Total ultimate load = 28.35 + 5.44
= 33.79kN/m
33.79 kN/m
To Point load
For A-A1 = 31.84kN/m x 1.500m
= 47.76 kN
For A1-B = 33.79kN/m x 2.100m
= 70.96 kN
Beam A1/3a-4 = 61.16 kN
47.76 kN 70.96 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 47.76 (0.75) + 61.16 (1.5) + 70.96 (2.55)
j -3.6RB
3.6RB = 308.50
RB = 85.69 kN
o Σ𝐹 𝑌 = 0
= -47.76 – 61.16 – 70.96 + 85.69 + RA
RA = 94.19 kN
47.76 kN 70.96 kN
RA
85.69 kN94.19 kN
RB
2.55m
1.50m
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61.16 kN
61.16 kN
0.75m
61.16 kN
121. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
114
LOAD DIAGRAM
BEAM 3a/A-B
A A1 B
1.500m 2.100m
31.84 kN/m 33.79 kN/m
85.69 kN94.19 kN
-14.73 kN
At Point A-A1: 94.19 – 47.76 = 46.43
At Point A1: 46.43 – 61.16 = -14.73
At Point A1-B: -14.73 – 71.96 = -85.69
94.19 kN
85.69 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
MAX MOMENT = 105 kNm
SAHIL GUNESH 0328569
61.16 kN
Positive area – negative area in V
+ve = [1/2 x 1.5 x (94.19+46.43)]
= 105.47 ≈ 105
-ve = [1/2 x 2.1 x (14.73+85.69)}
= 105.41 ≈ 105
105 – 105 = 0
122. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
115
DEAD LOAD ( BEAM A/2-4 )
Beam self weight
= Beam size x Density of concrete
= (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
DEAD LOAD ANALYSIS
Beam self weight
2 3a
4
Brick wall self weight
= Wall thickness x Wall height x Density of brick
= (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
5.000m 2.850m
1.08 kN/m
Brick wall weight
11.97 kN/m
Floor slab A-B/2-3a (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (3.600/2)
= 6.48 kN/m
Slab A-B/2-3a
6.48 kN/m
Floor slab A-A1/3a-4 (trapezoid)
= (Thickness of slab x Density of concrete) x (Lx/2)
= (0.150m x 24kN/m2) x (1.500/2)
= 2.7 kN/m Slab A-A1/3a-4
2.70 kN/m
Total dead load
15.75 kN/m19.53 kN/m
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Total Dead Load
For 2-3a = 1.08 + 11.97 + 6.48 = 19.53kN/m
For 3a-4 = 1.08 + 11.97 + 2.70 = 15.75kN/m
123. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
116
LIVE LOAD ( BEAM A/2-4 )
Live load in store room = 2.4kN/m
Live load in guest room = 1.5kN/m
LIVE LOAD ANALYSIS
Slab A-B/2-3a
2 3a 4
Live load on slab A-B/2-3a (trapezoid)
= Live load (UBBL) x (Lx/2)
= 1.5kN/m2 x (3.600/2)m
= 2.70kN/m
5.000m 2.850m
2.70 kN/m
Slab A1-B/3a-3b
1.80 kN/m
Total live load
Total Live Load
For A-3a = 2.7kN/m
For 3a-4 = 1.80kN/m
2.70 kN/m 1.80 kN/m
Live load on slab A1-B/3a-3b (trapezoid)
= Live load (UBBL) x (Lx/2)
= 2.4kN/m2 x (1.500/2)m
= 1.80kN/m
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124. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
117
THE ULTIMATE LOAD ( BEAM A/2-4 )
Load factor that needs to be applied:
1.4 for dead load
1.6 for live load
THE ULTIMATE LOAD
For 2-3a
Ultimate dead load = 19.53kN/m x 1.4 = 27.34kN/m
Ultimate live load = 2.70kN/m x 1.6 = 4.32kN/m
Total ultimate load = 27.34 + 4.32
= 31.66kN/m
Total
Ultimate Load
2 3a 4
5.000m 2.850m
31.66 kN/m
For 3b-4
Ultimate dead load = 15.75kN/m x 1.4 = 22.05kN/m
Ultimate live load = 1.80kN/m x 1.6= 2.88kN/m
Total ultimate load = 22.05 + 2.88
= 24.93kN/m
24.93 kN/m
To Point load
For 2-3a = 31.66kN/m x 5.000m
= 158.30 kN
For 3b-4 = 24.93kN/m x 2.850m
= 71.05 kN
Beam 3a/A-B = 94.19 kN
158.30 kN
71.05 kN
Reaction Forces
o Σ𝑀 𝐴 = 0
= 158.3 (2.5) + 94.19 (5.00) + 71.05 (6.43)
j -7.85RB
7.85RB = 1323.55
RB = 168.61 kN
o Σ𝐹 𝑌 = 0
= -158.3 – 94.19 – 71.05 + 168.61 + RA
RA = 154.93
158.30 kN 71.05 kN
RA
168.61 kN148.89 kN
RB
6.43m
5.00m
SAHIL GUNESH 0328569
94.19 kN
94.19 kN
2.50m
125. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
118
LOAD DIAGRAM
BEAM A/2-4
2 3a 4
5.000m 2.850m
31.66 kN/m 24.93 kN/m
168.61 kN154.93 kN
-97.56kN
At Point 2-3a: 154.93 – 158.30 = -3.37
At Point 3a: -3.37 – 94.19 = -97.56
At Point 3a-4: -97.56 – 71.05 = -164.76
154.93 kN
168.61 kN
SHEAR FORCE DIAGRAM
BENDING MOMENT DIAGRAM
MAX MOMENT = 377 kNm
SAHIL GUNESH 0328569
94.19 kN
Using similar triangles,
(x/2.850)=(3.37/71.05)
x=0.14
Positive area – negative area in V
+ve = [1/2 x (5.00-0.14) x (154.93)]
= 376.48 ≈ 377
-ve = [1/2 x 2.85 x (97.56+168.61)] + [1/2 x 3.37 x 0.14]
= 379.79 ≈ 377
377 – 377 = 0
-3.37kN
127. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 119
COLUMN LOAD DISTRIBUTION PLAN
128. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 120
GOH XINGXIN 0325587
DEAD LOAD AND LIVE LOAD FACTOR
LIVE LOAD FACTOR
Kitchen = 1.50kN/m2
Dining = 1.50kN/m2
Guest room = 1.50kN/m2
Master bedroom = 1.50kN/m2
Walk-in Wardrobe = 1.50kN/m2
Bathroom = 2.00kN/m2
Store Room = 2.40kN/m2
Roof = 0.50kN/m2
DEAD LOAD FACTOR
Concrete slab = 0.150m x 24kN/m2
= 3.60kN/m2
Beam self weight = (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
Brick wall = (0.150 x 4.200)m2 x 19kN/m3
= 11.97 kN/m
Column Self weight = 0.150m x 0.300m x 24kN/m3
= 1.08 kN/m
Roof beam self weight = (0.150 x 0.300)m2 x 24kN/m3
= 1.08 kN/m
Roof = 1.0kN/m2
129. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 121
GOH XINGXIN (0325587)
COLUMN E1
COLUMN F2
130. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 122
GOH XINGXIN 0325587
COLUMN LOAD E1
COLUMN DEAD LOAD (E1)
Concrete slab = 1.500m x 5.925m x 3.60kN/m2
= 32.00kN
Beam self weight = 1.08kN/m x (5.925 + 1.5 + 1.5)
= 9.64kN
Brick wall = 11.97kN/m x (5.925 + 1.5 + 1.5)
= 106.83kN
Column self weight = 1.08kN/m x (4.200 + 0.300)
= 4.86kN
Total Dead Load = 32.00 + 9.64 + 106.83 + 4.86
= 153.33kN
COLUMN LIVE LOAD (E1)
Live Load = 1.500m x 5.925m x 1.50kN/m2
= 13.33kN
COLUMN ULTIMATE LOAD (E1)
Ultimate Dead Load = 1.4 x 153.33kN
= 214.66kN
Ultimate Live Load = 1.6 x 13.33kN
= 21.33kN
TOTAL LOAD
= 214.66kN + 21.33kN
= 235.99kN
1.5m
Brick wall
5.925m
LOAD DISTRIBUTION
STRUCTURAL PLAN
Dining
1.50kN/m2
Kitchen
1.50kN/m2
131. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 123
GOH XINGXIN 0325587
COLUMN LOAD E1
ROOF PLAN
ROOF DEAD LOAD
Roof = 1.500m x 5.925m x 1.00kN/m2
= 8.89kN
Roof beam self weight = 1.08kN/m x (5.925 + 1.5 + 1.5)
= 9.64kN
Total Dead Load = 8.89 + 9.64
= 18.53kN
ROOF LIVE LOAD
Live Load = 1.500m x 5.925m x 0.50kN/m2
= 4.44kN
ROOF ULTIMATE LOAD
Ultimate Dead Load = 1.4 x 18.53kN
= 25.94kN
Ultimate Live Load = 1.6 x 4.44kN
= 7.10kN
TOTAL ROOF LOAD
= 25.94kN + 7.10kN
= 33.04kN
1.5m
5.925m
TOTAL COLUMN LOAD (E1) = 235.99kN + 33.04kN
= 269.03kN
132. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 124
GOH XINGXIN 0325587
COLUMN LOAD F2
5.925m
3.033m
Brick wall
LOAD DISTRIBUTION
STRUCTURAL PLAN
COLUMN DEAD LOAD (F2)
Concrete slab = 3.033m x 5.925m x 3.60kN/m2
= 64.69kN
Beam self weight = 1.08kN/m x (5.925 + 1.517 + 1.517)
= 9.68kN
Brick wall = 11.97kN/m x (1.300 + 1.517 + 1.517)
= 51.88kN
Column self weight = 1.08kN/m x (4.200 + 0.300)
= 4.86kN
Total Dead Load = 64.69 + 9.68 + 51.88 + 4.86
= 131.11kN
COLUMN LIVE LOAD (F2)
Live Load = 3.033m x 5.925m x 1.50kN/m2
= 26.96kN
COLUMN ULTIMATE LOAD (E1)
Ultimate Dead Load = 1.4 x 131.11kN
= 183.55kN
Ultimate Live Load = 1.6 x 26.96kN
= 43.14kN
TOTAL LOAD
= 183.55kN + 43.14kN
= 226.69kN
133. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 125
GOH XINGXIN 0325587
COLUMN LOAD E1
ROOF PLAN
ROOF DEAD LOAD
Roof = 3.033m x 5.925m x 1.00kN/m2
= 17.97kN
Roof beam self weight = 1.08kN/m x (4.750 + 1.517 + 1.517)
= 8.41kN
Total Dead Load = 17.97 + 8.41
= 26.38kN
ROOF LIVE LOAD
Live Load = 3.033m x 5.925m x 0.50kN/m2
= 8.99kN
ROOF ULTIMATE LOAD
Ultimate Dead Load = 1.4 x 26.38kN
= 36.93kN
Ultimate Live Load = 1.6 x 8.99kN
= 14.37kN
TOTAL ROOF LOAD
= 36.93kN + 14.37kN
= 51.30kN
TOTAL COLUMN LOAD (E1) = 226.69kN + 51.30kN
= 277.99kN
5.925m
3.033m
134. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 126
NA YONG YI (0324458)
COLUMN G5
COLUMN G6
135. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 127
COLUMN LOAD G5
D1
E
G
F
G5
3 4 5 6
G6
D1/4
G3
5785 7000
235037501750
COLUMN LOAD DISTRIBUTION PLAN (COLUMN G5)
D1
E
F
3 4 5 6
D1/4
5785 7000
235037501750
E1
G5G3 G6
6.393 m
3.925 m
Master
bedroom
Living
area
Brick wall
6.393 m
3.925 m
STRUCTURAL PLAN (COLUMN G5)
NA YONG YI 0324458
G
Live Load for Living Area
= 2.893m x 3.925m x 1.50kN/m2
= 17.03 kN
Live Load for Master Bedroom
= 3.500m x 3.925m x 1.50kN/m2
= 20.61 kN
COLUMN G5 LOAD (GROUND FLOOR)
COLUMN G5 DEAD LOAD COLUMN G5 LIVE LOAD
Total Dead Load = 90.33 + 11.14 + 123.51 + 4.86
= 229.84 kN
Concrete slab = 6.393m x 3.925m x 3.60 kN/m2
= 90.33 kN
Beam self weight = 1.08kN/m x (6.393 + 3.925)m
= 11.14 kN
Brick wall = 11.97kN/m x (6.393 + 3.925)m
= 123.51 kN
Column self weight = 1.08kN/m x (4.200 + 0.300)
= 4.86kN
Total Live Load = 17.03 + 20.61
= 37.64 kN
COLUMN ULTIMATE LOAD (G5)
Ultimate Dead Load = 1.4 x 229.84kN = 321.78 kN Ultimate Live Load= 1.6 x 37.64kN = 60.22 kN
TOTAL LOAD (G5) = 321.78kN + 60.22kN = 382 kN
136. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 128
COLUMN LOAD G5
D1
E
G
F
3
G5
4 5 6
G6
D1/4
G3
5785 7000
235037501750
STRUCTURAL ROOF PLAN (COLUMN G5)
6.393 m
3.925 m
Roof Beam
NA YONG YI 0324458
Live Load for Roof slab
= 6.393m x 3.925m x 0.50kN/m2
= 12.55 kN
COLUMN G5 LOAD (ROOF LEVEL)
ROOF DEAD LOAD ROOF LIVE LOAD
Total Dead Load = 25.09 + 11.14
= 36.23 kN
Roof slab = 6.393m x 3.925m x 1.00 kN/m2
= 25.09 kN
Roof beam self weight= 1.08kN/m
x (6.393 + 3.925)
= 11.14 kN
Total Live Load = 12.55 kN
ROOF ULTIMATE LOAD (G5)
Ultimate Dead Load = 1.4 x 36.23kN = 50.72kN Ultimate Live Load= 1.6 x 12.55kN = 20.08 kN
TOTAL ROOF LOAD (G5) = 50.72kN + 20.08kN = 70.80 kN
TOTAL COLUMN LOAD (G5) = 382.00 kN + 70.80kN = 452.80 kN
137. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 129
COLUMN LOAD G6
D1
E
G
F
G5
3 4 5 6
G6
D1/4
G3
5785 7000
235037501750
COLUMN LOAD DISTRIBUTION PLAN (COLUMN G6)
D1
E
F
3 4 5 6
D1/4
5785 7000
235037501750
E1
G5G3 G6
3.500 m
3.925 m
Master
bedroom
Brick wall
STRUCTURAL PLAN (COLUMN G6)
NA YONG YI 0324458
G
3.500 m
3.925 m
Live Load for Master Bedroom
= 3.500m x 3.925m x 1.50kN/m2
= 20.61 kN
COLUMN G6 LOAD (GROUND FLOOR)
COLUMN G6 DEAD LOAD COLUMN G6 LIVE LOAD
Total Dead Load = 49.46 + 8.02 + 88.88 + 4.86
= 151.22 kN
Concrete slab = 3.500m x 3.925m x 3.60 kN/m2
= 49.46 kN
Beam self weight = 1.08kN/m x (3.500 + 3.925)m
= 8.02 kN
Brick wall = 11.97kN/m x (3.500 + 3.925)m
= 88.88 kN
Column self weight = 1.08kN/m x (4.200 + 0.300)
= 4.86kN
Total Live Load = 20.61 kN
COLUMN ULTIMATE LOAD (G6)
Ultimate Dead Load = 1.4 x 151.22kN = 211.71 kN Ultimate Live Load= 1.6 x 20.61kN = 32.98 kN
TOTAL LOAD (G6) = 211.71kN + 32.98kN = 244.69 kN
138. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 130
COLUMN LOAD G6
NA YONG YI 0324458
Live Load for Roof slab
= 3.500m x 3.925m x 0.50kN/m2
= 6.87 kN
COLUMN G6 LOAD (ROOF LEVEL)
ROOF DEAD LOAD ROOF LIVE LOAD
Total Dead Load = 13.74 + 8.02
= 21.76 kN
Roof slab = 3.500m x 3.925m x 1.00 kN/m2
= 13.74 kN
Roof beam self weight= 1.08kN/m
x (3.500 + 3.925)
= 8.02 kN
Total Live Load = 6.87 kN
ROOF ULTIMATE LOAD (G6)
Ultimate Dead Load = 1.4 x 21.76kN = 30.46 kN Ultimate Live Load= 1.6 x 6.87kN = 10.99 kN
TOTAL ROOF LOAD (G6) = 30.46kN + 10.99kN = 41.45 kN
TOTAL COLUMN LOAD (G6) = 244.69 kN + 41.45kN = 286.14 kN
D1
E
F
3 4 5 6
D1/4
5785 7000
235037501750
E1
G5G3 G6
Master
bedroom
Roof Beam
STRUCTURAL ROOF PLAN (COLUMN G6)
G
3.500 m
3.925 m
139. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 131
CHEAH MAN YEE (0324743)
COLUMN D3
COLUMN D1/6
140. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 132
CHEAH MAN YEE 0324743
COLUMN LOAD D3
Live Load for Guest Room
= 1.53m x 2.78m x 1.50kN/m2
= 6.38kN
Live Load for Living Area
= (3.925m x 7.125m) – (1.53m x 2.78m) x 1.50kN/m2
= 35.58kN
COLUMN LOAD DISTRIBUTION PLAN (COLUMN D3) STRUCTURAL PLAN (COLUMN D3)
GROUND BEAM
COLUMN D3 LOAD (GROUND FLOOR)
COLUMN D3 DEAD LOAD COLUMN D3 LIVE LOAD
Total Dead Load = 100.68 + 7.24 + 51.59 + 4.86
= 164.37kN
Concrete slab = 3.925m x 7.125m x 3.60 kN/m2
= 100.68kN
Beam self weight = 1.08kN/m x (1.53 + 2.39 + 2.78)
= 7.24kN
Brick wall = 11.97kN/m x (2.78 + 1.53)
= 51.59kN
Column self weight = 1.08kN/m x (4.200 + 0.300)
= 4.86kN
Total Live Load = 6.38 + 35.58
= 41.96kN
COLUMN ULTIMATE LOAD (D3)
Ultimate Dead Load = 1.4 x 164.37kN = 230.12kN Ultimate Live Load= 1.6 x 41.96kN = 67.14kN
TOTAL COLUMN LOAD (D3) = 230.12kN + 67.14kN = 297.26kN
141. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 133
CHEAH MAN YEE 0324743
COLUMN LOAD D3
Live Load for Roof slab
= 3.925m x 7.125m x 0.50kN/m2
= 13.98kN
ROOF STRUCTURAL PLAN (COLUMN D3) ROOF ARCHITECTURAL PLAN (COLUMN D3)
COLUMN D3 LOAD (ROOF LEVEL)
ROOF DEAD LOAD ROOF LIVE LOAD
Total Dead Load = 27.97 + 7.24
= 35.21kN
Roof slab = 3.925m x 7.125m x 1.00 kN/m2
= 27.97kN
Roof beam self weight= 1.08kN/m
x (1.53 + 2.39 + 2.78)
= 7.24kN
Total Live Load = 13.98kN
ROOF ULTIMATE LOAD (D3)
Ultimate Dead Load = 1.4 x 35.21kN = 49.29kN Ultimate Live Load= 1.6 x 13.98kN = 22.37kN
TOTAL ROOF LOAD (D3) = 49.29kN + 22.37kN = 71.66kN
TOTAL COLUMN LOAD (D3) = 297.26kN + 71.66kN = 368.92kN
142. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 134
CHEAH MAN YEE 0324743
COLUMN LOAD D1/6
COLUMN LOAD DISTRIBUTION PLAN (COLUMN D1/6) STRUCTURAL PLAN (COLUMN D1/6)
GROUND BEAM
Live Load for Attached Bathroom
= 1.850m x 2.650m x 2.00kN/m2
= 9.81kN
Live Load for Walk-in wardrobe
= 2.150m x 2.650m x 1.50kN/m2
= 8.55kN
Live Load for Master Bedroom
= 4.000m x 1.275m x 1.50kN/m2
= 5.10kN
COLUMN D1/6 LOAD (GROUND FLOOR)
COLUMN D1/6 DEAD LOAD COLUMN D1/6 LIVE LOAD
Total Dead Load = 56.52 + 15.75 + 174.52 + 4.86
= 251.65kN
Concrete slab = 4.000m x 3.925m x 3.60 kN/m2
= 56.52kN
Beam self weight = 1.08kN/m x (4 + 3.93 + 4 + 2.65)
= 15.75kN
Brick wall = 11.97kN/m x (4 + 3.93 + 4 + 2.65)
= 174.52kN
Column self weight = 1.08kN/m x (4.200 + 0.300)
= 4.86kN
Total Live Load = 9.81 + 8.55 + 5.10
= 23.46kN
COLUMN ULTIMATE LOAD (D1/6)
Ultimate Dead Load = 1.4 x 251.65kN = 352.31kN Ultimate Live Load= 1.6 x 23.46kN = 37.54kN
TOTAL COLUMN LOAD (D1/6) = 352.31kN + 37.54kN = 389.85kN
143. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 135
CHEAH MAN YEE 0324743
COLUMN LOAD D1/6
ROOF STRUCTURAL PLAN (COLUMN D1/6) ROOF ARCHITECTURAL PLAN (COLUMN D1/6)
Live Load for Roof slab
= 4.000m x 3.925m x 0.50kN/m2
= 7.85kN
COLUMN D1/6 LOAD (ROOF LEVEL)
ROOF DEAD LOAD ROOF LIVE LOAD
Total Dead Load = 15.70 + 15.75
= 31.45kN
Roof slab = 4.000m x 3.925m x 1.00 kN/m2
= 15.70kN
Roof beam self weight = 1.08kN/m
x (4 + 3.93 + 4 + 2.65)
= 15.75kN
Total Live Load = 7.85kN
ROOF ULTIMATE LOAD (D1/6)
Ultimate Dead Load = 1.4 x 31.45kN = 44.03kN Ultimate Live Load= 1.6 x 7.85kN = 12.56kN
TOTAL ROOF LOAD (D1/6) = 44.03kN + 12.56kN = 56.59kN
TOTAL COLUMN LOAD (D1/6) = 389.85kN + 56.59kN = 446.44kN
144. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 136
SOW WEI HENN (0324998)
COLUMN C1
COLUMN C2
145. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 137
SOW WEI HENN 0324998
COLUMN LOAD C1
COLUMN DEAD LOAD (C1)
Concrete slab
= 1.500m x 2.875m x 3.60m2
= 15.53kN
Beam self weight
= 1.08kN/m x (2.875 + 1.500)
= 4.73kN
Brick wall
= 11.97kN/m x (2.875 + 1.500)
= 52.37kN
Column self weight
= 1.08kN/m x (4.200 + 0.300)
= 4.86kN
Total Dead Load
= 15.53 + 4.73 + 52.37 + 4.86
= 77.49kN
COLUMN LIVE LOAD (C1)
Live Load
= 1.500m x 2.875m x 1.50kN/m2
= 6.47kN
COLUMN ULTIMATE LOAD (C1)
Ultimate Dead Load
= 1.4 x 77.49kN
= 108.49kN
Ultimate Live Load
= 1.6 x 6.47kN
= 10.35kN
TOTAL COLUMN LOAD (C1) = 108.49kN + 10.35kN
= 118.84kN
1.500
2.875
Guest room
1.5kN/m2
146. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 138
SOW WEI HENN 0324998
COLUMN LOAD C1
ROOF DEAD LOAD
Roof = 1.500m x 2.875m x 1.00kN/m2
= 4.31kN
Roof beam self weight = 1.08kN/m x (2.875 + 1.500)
= 4.73kN
Total Dead Load = 4.31 + 4.73
= 9.04kN
ROOF LIVE LOAD
Live Load = 1.500m x 2.875m x 0.50kN/m2
= 2.16kN
ROOF ULTIMATE LOAD
Ultimate Dead Load = 1.4 x 9.04kN
= 12.66kN
Ultimate Live Load = 1.6 x 2.16kN
= 3.46kN
TOTAL ROOF LOAD
= 12.66kN + 3.46kN
= 16.12kN
1.5m
2.875m
TOTAL COLUMN LOAD (C1) = 118.84kN + 16.12kN
= 134.96kN
147. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 139
SOW WEI HENN 0324998
COLUMN LOAD C2
COLUMN DEAD LOAD (C2)
Concrete slab
= (1.53m x 2.95 x 3.60m2) + (5.15m x
3.03m x 3.60m2)
= 72.43kN
Beam self weight
= 1.08kN/m x (3.03 + 1.53 + 3.03 + 1.30)
= 9.60kN
Brick wall
= 11.97kN/m x (3.03 + 1.53 + 3.03 + 1.30)
= 106.41kN
Column self weight
= 1.08kN/m x (4.200 + 0.300)
= 4.86kN
Total Dead Load
= 72.43 + 9.60 + 106.41 + 4.86
= 193.30kN
COLUMN LIVE LOAD (C2)
Live Load
= (0.55m x 1.53m x 1.50kN/m2) + (2.40m x 1.53m
x 2.00kN/m2) + ( 5.15m x 3.03m x 1.50kN/m2)
= 32.01kN
COLUMN ULTIMATE LOAD (C2)
Ultimate Dead Load
= 1.4 x 193.30kN
= 270.62kN
Ultimate Live Load
= 1.6 x 32.01kN
= 51.22kN
TOTAL COLUMN LOAD (C2) = 270.62kN + 48.96kN
= 319.58kN
1.53
5.15
8.10
3.03
Guest room
1.5kN/m2
Bathroom
2.0kN/m2
Guest room
1.5kN/m2
148. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 140
SOW WEI HENN 0324998
COLUMN LOAD C2
ROOF DEAD LOAD
Roof = (0.55m x 1.53m x 1.00kN/m2) + (2.40m
x 1.53m x 1.00kN/m2) + (5.15m x
3.03m x 1.00kN)
= 20.12kN
Roof beam self weight = 1.08kN/m x (3.03 + 1.53 + 3.03 + 1.30)
= 9.60kN
Total Dead Load = 20.12 + 9.60
= 29.72kN
ROOF LIVE LOAD
Live Load = (0.55m x 1.53m x 0.50kN/m2) + (2.40m
x 1.53m x 0.50kN/m2) + (5.15m x
3.03m x 0.50kN)
= 10.06kN
ROOF ULTIMATE LOAD
Ultimate Dead Load = 1.4 x 29.72kN
= 41.61kN
Ultimate Live Load = 1.6 x 10.06kN
= 16.10kN
TOTAL ROOF LOAD
= 41.61kN + 16.10kN
= 57.71kN
TOTAL COLUMN LOAD (C2) = 319.58kN + 57.71kN
= 377.29kN
149. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 141
SHUM WEN JUN (0325151)
COLUMN A2
COLUMN B3
150. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 142
SHUM WEN JUN 0325151
COLUMN LOAD A2
COLUMN DEAD LOAD (A2)
Concrete slab
= (1.800m x 3.925m x 3.60kN/m2) +
(1.200m x 1.533m x 3.60kN/m2)
= 32.06kN
Beam self weight
= 1.08kN/m x (3.925 + 3.000)
= 7.48kN
Brick wall
= 11.97kN/m x (3.925 + 3.000)
= 82.89kN
Column self weight
= 1.08kN/m x (4.200 + 0.300)
= 4.86kN
Total Dead Load
= 32.06 + 7.48 + 82.89 + 4.86
= 127.29kN
3.925m
3.000m
1.533m
1.800m
COLUMN LIVE LOAD (A2)
Live Load
= (1.800m x 3.925m x 1.50kN/m2) + (1.200m x
1.533 x 1.50kN/m2)
= 13.36kN
COLUMN ULTIMATE LOAD (A2)
Ultimate Dead Load
= 1.4 x 127.29kN
= 178.21kN
Ultimate Live Load
= 1.6 x 13.36kN
= 21.38kN
TOTAL LOAD
= 178.21kN + 21.38kN
= 199.59kN
STRUCTURAL PLANLOAD DISTRIBUTION
Brick wall
Guest room 2
1.50kN/m2
151. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 143
SHUM WEN JUN 0325151
COLUMN LOAD A2
TOTAL COLUMN LOAD (A2) = 199.59kN + 30.19kN
= 229.78kN
ROOF PLAN
Brick wall
3.925m
3.000m
1.533m
1.800m
ROOF DEAD LOAD
Roof = (1.800m x 3.925m x 1.00kN/m2) + (1.200m x 1.533m x 1.00kN/m2)
= 8.90kN
Roof beam self weight = 1.08kN/m x (3.925 + 3.000)
= 7.48kN
Total Dead Load = 8.90 + 7.48
= 16.38kN
ROOF LIVE LOAD
Live Load = (1.800m x 3.925m x 0.50kN/m2) + (1.200m x 1.533m x 0.50kN/m2)
= 4.45kN
ROOF ULTIMATE LOAD
Ultimate Dead Load = 1.4 x 16.48kN
= 23.07kN
Ultimate Live Load = 1.6 x 4.45kN
= 7.12kN
TOTAL ROOF LOAD
= 23.07kN + 7.12kN
= 30.19kN
152. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 144
SHUM WEN JUN 0325151
COLUMN LOAD B3
COLUMN DEAD LOAD (B3)
Concrete slab
= 4.575m x 3.925m x 3.60kN/m2
= 21.56kN
Beam self weight
= 1.08kN/m x (4.575 + 3.925 + 1.533 )
= 10.84kN
Brick wall
= 11.97kN/m x (4.575 + 3.925 + 1.533 )
= 120.10kN
Column self weight
= 1.08kN/m x (4.200 + 0.300)
= 4.86kN
Total Dead Load
=21.56 + 10.84 + 120.10 + 4.86
= 157.36kN
COLUMN LIVE LOAD (B3)
Live Load for guest room and living area
= [(4.575 x 3.925) – (2.775 x 1.533) – (1.800 x
0.467)] x 1.50kN/m2
= 19.29kN
Live Load for bathroom
= [(2.775 x 1.533) + (1.800 x 0.467)] x 2.00kN/m2
= 10.19kN
Total live load
= 19.29 + 10.19
= 29.48kN
2.775m
3.925m
4.575m
1.800m
1.533m
0.467m
2.775m
Brick wall
Guest room 2
1.50kN/m2
Bath 1
2.00kN/m2
Bath 2
2.00kN/m2
Living area
1.50kN/m2Guest room 1
1.50kN/m2
LOAD DISTRIBUTION
STRUCTURAL PLAN
COLUMN ULTIMATE LOAD (B3)
Ultimate Dead Load
= 1.4 x 157.36kN
= 220.30kN
Ultimate Live Load
= 1.6 x 29.48kN
= 47.17kN
TOTAL LOAD
= 220.30kN + 47.17kN
= 267.47kN
153. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 145
SHUM WEN JUN 0325151
COLUMN LOAD B3
TOTAL COLUMN LOAD (B3) = 296.47kN + 54.69kN
= 351.16kN
3.925m
4.575m
ROOF PLAN
ROOF DEAD LOAD
Roof = 3.925m x 4.575m x 1.00kN/m2
= 17.96kN
Roof beam self weight = 1.08kN/m x (3.925 + 4.575 + 1.533)
= 10.84kN
Total Dead Load = 17.96 + 10.84
= 28.80kN
ROOF LIVE LOAD
Live Load = 3.925m x 4.575m x 0.50kN/m2
= 8.98kN
ROOF ULTIMATE LOAD
Ultimate Dead Load = 1.4 x 28.80kN
= 40.32kN
Ultimate Live Load = 1.6 x 8.98kN
= 14.37kN
TOTAL ROOF LOAD
= 40.32kN + 14.37kN
= 54.69kN
154. STRUCTURAL ANALYSIS OF A RC BUNGALOW l BLD 61203 l GROUP PROJECT
COLUMN ANALYSIS 146
SAHIL GUNESH (0328569)
COLUMN A4
COLUMN B4