The document calculates the dead loads, live loads, and ultimate loads on various beams and slabs for the first and ground floors of a building. It summarizes the load contributions from beam self-weight, brick walls, and concrete slabs. It then calculates the total dead load, live load, and ultimate load and determines the reaction forces at supports using equations of equilibrium. Bending moment diagrams are also presented.
This document analyzes a two-way concrete slab and its supporting beams. It determines that three slab sections are two-way slabs based on their length-to-width ratios. It then calculates the dead and live loads on the slabs and beams. The ultimate loads are found by applying load factors to the dead and live loads. Reactions at the supports are calculated as 121.96 kN and 76.85 kN using the method of sections. The shear and bending moment diagrams are drawn.
The document analyzes material selection for the shelf and front cover of a product. For the shelf, polyvinylchloride (PVC) is identified as the best option based on its mechanical properties, cost, and mass. Specifically, PVC rigid molding and extrusion is selected with a thickness of 5mm. For the front cover, injection molding is specified with a maximum thickness of 6mm and force range of 90-120N. The document establishes constraints on the material's modulus of elasticity, yield strength and deformation to meet the design requirements.
This document discusses using fuzzy matrix rules for watermarking digital images. It describes how watermarking can be used for authentication and restricting unauthorized usage of images. There are two types of watermarks: visible and invisible. The document then explains how encryption is done using fuzzy matrices. Fuzzy rules are defined on fuzzy sets, which are derived from crisp sets using membership functions. The fuzzy sets assign membership values between 0 and 1 to elements. Various fuzzy compositions are used for encryption and embedding encrypted files in images at different locations to create an invisible watermark. Decryption extracts the encrypted files from the watermarked image. The method provides robust watermarking that is resistant to attacks like compression or noise filtering.
This document contains calculations for the dead loads, live loads, and ultimate loads on various beams and slabs in a building. It first calculates the loads on beam C-D, finding the total ultimate load to be 35.14 kN/m. It then calculates loads on beam C/2-3, with ultimate loads of 37.514 kN/m and 21.7 kN/m. Similar load calculations are provided for beams A1/3-4.1 and A1-B/3.1 and 4, finding ultimate point loads on these beams. The document includes details on the slab thicknesses, beam sizes, densities, and live load assumptions used in the calculations.
1) The document discusses calculating the density of silicon using its diamond crystal structure and lattice constant of 5.43 Angstrom. The density is calculated to be 2342.38 kg/m3.
2) The number density of silicon is calculated to be approximately 5×1022 atoms/cm3 based on its lattice constant and unit cell volume.
3) An equation is presented for the Liedemann model of melting, which states that melting occurs when the amplitude of atomic vibrations exceeds a critical fraction of the interatomic spacing. The melting temperature depends on factors like the force constant, lattice constant, and elastic modulus.
The document provides calculations for determining the required reinforcement of a concrete beam (balok) with the following information:
- Concrete compressive strength is 20 MPa
- Steel yield strength is 400 MPa
- Beam dimensions are 25cm x 40cm
- Loads include wall weight, floor finish weight, and live loads from balconies
Bending moments are calculated at different points along the beam due to the varying loads. Required steel reinforcement is then determined based on the bending moment values and reinforcement ratios from code tables. Reinforcement amounts are provided for three sections of the beam labeled A-B, B-C, and C-D.
This document provides calculations and reinforcement details for the design of a water tank. It calculates the required capacity, dimensions, and structural properties of the tank. Moment and shear force calculations are performed based on the tank geometry and material properties. Reinforcement amounts, sizes, and spacing are designed for the long wall based on resisting the calculated hogging moment and shear force. Stress checks are also performed to ensure design code compliance.
This document analyzes a two-way concrete slab and its supporting beams. It determines that three slab sections are two-way slabs based on their length-to-width ratios. It then calculates the dead and live loads on the slabs and beams. The ultimate loads are found by applying load factors to the dead and live loads. Reactions at the supports are calculated as 121.96 kN and 76.85 kN using the method of sections. The shear and bending moment diagrams are drawn.
The document analyzes material selection for the shelf and front cover of a product. For the shelf, polyvinylchloride (PVC) is identified as the best option based on its mechanical properties, cost, and mass. Specifically, PVC rigid molding and extrusion is selected with a thickness of 5mm. For the front cover, injection molding is specified with a maximum thickness of 6mm and force range of 90-120N. The document establishes constraints on the material's modulus of elasticity, yield strength and deformation to meet the design requirements.
This document discusses using fuzzy matrix rules for watermarking digital images. It describes how watermarking can be used for authentication and restricting unauthorized usage of images. There are two types of watermarks: visible and invisible. The document then explains how encryption is done using fuzzy matrices. Fuzzy rules are defined on fuzzy sets, which are derived from crisp sets using membership functions. The fuzzy sets assign membership values between 0 and 1 to elements. Various fuzzy compositions are used for encryption and embedding encrypted files in images at different locations to create an invisible watermark. Decryption extracts the encrypted files from the watermarked image. The method provides robust watermarking that is resistant to attacks like compression or noise filtering.
This document contains calculations for the dead loads, live loads, and ultimate loads on various beams and slabs in a building. It first calculates the loads on beam C-D, finding the total ultimate load to be 35.14 kN/m. It then calculates loads on beam C/2-3, with ultimate loads of 37.514 kN/m and 21.7 kN/m. Similar load calculations are provided for beams A1/3-4.1 and A1-B/3.1 and 4, finding ultimate point loads on these beams. The document includes details on the slab thicknesses, beam sizes, densities, and live load assumptions used in the calculations.
1) The document discusses calculating the density of silicon using its diamond crystal structure and lattice constant of 5.43 Angstrom. The density is calculated to be 2342.38 kg/m3.
2) The number density of silicon is calculated to be approximately 5×1022 atoms/cm3 based on its lattice constant and unit cell volume.
3) An equation is presented for the Liedemann model of melting, which states that melting occurs when the amplitude of atomic vibrations exceeds a critical fraction of the interatomic spacing. The melting temperature depends on factors like the force constant, lattice constant, and elastic modulus.
The document provides calculations for determining the required reinforcement of a concrete beam (balok) with the following information:
- Concrete compressive strength is 20 MPa
- Steel yield strength is 400 MPa
- Beam dimensions are 25cm x 40cm
- Loads include wall weight, floor finish weight, and live loads from balconies
Bending moments are calculated at different points along the beam due to the varying loads. Required steel reinforcement is then determined based on the bending moment values and reinforcement ratios from code tables. Reinforcement amounts are provided for three sections of the beam labeled A-B, B-C, and C-D.
This document provides calculations and reinforcement details for the design of a water tank. It calculates the required capacity, dimensions, and structural properties of the tank. Moment and shear force calculations are performed based on the tank geometry and material properties. Reinforcement amounts, sizes, and spacing are designed for the long wall based on resisting the calculated hogging moment and shear force. Stress checks are also performed to ensure design code compliance.
Este plan de negocios describe una compañía que ofrece [PRODUCTO O SERVICIO]. Detalla el mercado, la competencia y la estrategia de marketing. El equipo de administración tiene experiencia relevante. Se requiere capital para establecer operaciones y alcanzar las metas de ventas proyectadas en los primeros años. De ser exitoso, este negocio podría [BENEFICIO FINAL].
Evidence: Describing my kitchen. ENGLISH DOT WORKS 2. SENA... ..
Evidence: Describing my kitchen. SENA.
ENGLISH DOT WORKS 2. SENA.
3. describing my kitchen. ENGLISH DOT WORKS 2.
activity 3 week 1. ENGLISH DOT WORKS 2.
actividad 3 semana 1. ENGLISH DOT WORKS 2.
El documento presenta una introducción al manual de estudios de mercado. Explica que la investigación de mercados proporciona datos sobre el mercado para ayudar a la dirección a adoptar una orientación al mercado. Luego describe brevemente los diferentes tipos de investigación (exploratoria, descriptiva y causal) y sus objetivos respectivos. Finalmente, indica que la investigación de mercados es una herramienta poderosa para la toma de decisiones a corto y largo plazo cuya misión principal es obtener información para reducir riesgos.
2. describing cities and places. ENGLISH DOT WORKS 2. SENA. semana 4 acitivda..... ..
Evidence: describing cities and places.ENGLISH DOT WORKS 2. SENA. ENGLISH DOT WORKS 2.
semana 4 acitivdad 2.ENGLISH DOT WORKS 2.
week 4 acitivty 2. ENGLISH DOT WORKS 2.
3.Evidence: Getting to Bogota.ENGLISH DOT WORKS 2. SENA.semana 4 actividad 3... ..
vidence: Getting to Bogota / Evidencia: Llegando a Bogotá.
ENGLISH DOT WORKS 2. SENA.
ENGLISH DOT WORKS 2.
semana 4 actividad 3.ENGLISH DOT WORKS 2.
week 4 activity 3.ENGLISH DOT WORKS 2. SENA.
Evidence: Going to the restaurant . ENGLISH DOT WORKS 2. SENA... ..
El documento describe una conversación entre un mesero y dos clientes en un restaurante. El mesero les da la bienvenida y les muestra su mesa. Les entrega los menús y toma su orden, que incluye espaguetis de mariscos, una hamburguesa y papas fritas, una Coca-Cola y agua. Luego les trae la comida y les pregunta cómo estuvo todo, a lo que responden que estaba delicioso. Uno de los clientes pide papas fritas adicionales. Al final, el mesero les trae
Evidence: I can’t believe it.ENGLISH DOT WORKS 2. semana 3 actividad 1.SENA... ..
Evidence: I can’t believe it.ENGLISH DOT WORKS 2. SENA.
ENGLISH DOT WORKS 2.
semana 3 actividad 1.ENGLISH DOT WORKS 2.
week 3 activity 1.ENGLISH DOT WORKS 2.
Evidence: I can’t believe it. SENA.
Evidence: Memorable moments.ENGLISH DOT WORKS 2. SENA. semana 2 actividad 2... ..
Evidence: Memorable moments.ENGLISH DOT WORKS 2. SENA. ENGLISH DOT WORKS 2.
week 2 activity 2.ENGLISH DOT WORKS 2.
semana 2 actividad 2. ENGLISH DOT WORKS 2.
Evidence: Planning my trip. ENGLISH DOT WORKS 2. SENA. semana 4 actividad 1... ..
Evidence: Planning my trip. ENGLISH DOT WORKS 2. SENA.
ENGLISH DOT WORKS 2.
semana 4 actividad 1.ENGLISH DOT WORKS 2.
week 4 activity 1.ENGLISH DOT WORKS 2.
3. Your next holiday destination ACTIVIDAD 3 SEMANA 3 ENGLISH DOT WORKS 2... ..
3. Your next holiday destination. ACTIVIDAD 3 SEMANA 3 ENGLISH DOT WORKS 2.SENA.
ENGLISH DOT WORKS 2. week 3 activity 3.
ENGLISH DOT WORKS 2. ACTIVIDAD 3 SEMANA 3
Your next holiday destination. ENGLISH DOT WORKS 2.
This chapter follows Christie as she marries Zeeshan under a deal that allows her to later divorce him and marry Grady. At their dysfunctional wedding, fights break out between Amylu and Sadie. After just five minutes of marriage, Christie divorces a heartbroken Zeeshan to pursue Grady, leaving Zeeshan devastated.
Este documento propone la creación de un nuevo Código Fiscal para el Estado de Zacatecas y sus municipios, debido a que el Código Fiscal actual data de 1984 y requiere actualizarse. El nuevo Código Fiscal unificaría la normatividad fiscal estatal y municipal, fortalecería la seguridad jurídica de los contribuyentes y ampliaría las facultades de las autoridades fiscales. El documento describe la estructura y contenido propuesto para el nuevo Código Fiscal.
The poem is about hiding tears and sadness from a parting lover by pretending the tears are just rain. The speaker is saying goodbye but will appear unaffected because "you can't see tears in the rain." They will cry in vain and the other person will never know their pain or see that it matters to them. The rain provides cover for the speaker's true emotions as they turn the page and let go of the relationship.
Este documento presenta las directrices para realizar un Análisis Situacional Integral de Salud (ASIS) en Ecuador. El ASIS es una herramienta que permite caracterizar la situación de salud de una población y analizar los determinantes sociales que afectan la salud. El proceso del ASIS incluye producir un diagnóstico situacional inicial, conformar un comité local de salud, priorizar problemas, elaborar un plan local de salud, e implementar y dar seguimiento al plan. El objetivo es mejorar la gestión de salud a través de la particip
JULIOPARI - Elaborando un Plan de NegociosJulio Pari
Este documento presenta un bosquejo de curso para elaborar un plan de negocios. El curso consta de 10 secciones que explican conceptos clave como la misión, visión, objetivos, clientes, competidores y proyecciones financieras. El curso ayudará a los participantes a comprender qué es un plan de negocios y cómo crear uno efectivo para diferentes propósitos como obtener financiamiento. El bosquejo resume brevemente el contenido de cada sección con el fin de guiar a los estudiantes en la elaboración exitosa de su propio plan de neg
El emprendedor y el empresario profesional certMaestros Online
Este documento proporciona información sobre un servicio de asesoría y resolución de ejercicios para estudiantes. Incluye instrucciones para actividades individuales y colaborativas relacionadas con temas de emprendimiento, como definir ventajas y desventajas de pequeñas empresas, comparar características de empresarios tradicionales y profesionales, y desarrollar ideas de negocio. También incluye preguntas sobre pasiones personales y admiración por figuras públicas.
Beam and Column Analysis | Individual ComponentJoyce Wee
This document provides calculations for the dead loads, live loads, and ultimate loads on several beams in a building structure. For beam A-B/4, the total dead load is 13.34kN/m and total live load is 4.24kN/m, resulting in an ultimate load of 25.46kN/m. The reaction forces at supports A and B are calculated to be 39.46kN and 39.5kN respectively. Similar load calculations are provided for several other beams.
The document analyzes the structural framing of a two-storey bungalow divided into three parts by three students. Roy Yiek analyzes beams and columns in his assigned zone. He calculates the loads on Beam 4/A-E on the first floor, including self-weight, wall weight, slab weight and live loads. He determines the shear force and bending moment diagrams. Roy also analyzes secondary Beam C/3-4 and Beam A/1-3, calculating their ultimate loads.
Este plan de negocios describe una compañía que ofrece [PRODUCTO O SERVICIO]. Detalla el mercado, la competencia y la estrategia de marketing. El equipo de administración tiene experiencia relevante. Se requiere capital para establecer operaciones y alcanzar las metas de ventas proyectadas en los primeros años. De ser exitoso, este negocio podría [BENEFICIO FINAL].
Evidence: Describing my kitchen. ENGLISH DOT WORKS 2. SENA... ..
Evidence: Describing my kitchen. SENA.
ENGLISH DOT WORKS 2. SENA.
3. describing my kitchen. ENGLISH DOT WORKS 2.
activity 3 week 1. ENGLISH DOT WORKS 2.
actividad 3 semana 1. ENGLISH DOT WORKS 2.
El documento presenta una introducción al manual de estudios de mercado. Explica que la investigación de mercados proporciona datos sobre el mercado para ayudar a la dirección a adoptar una orientación al mercado. Luego describe brevemente los diferentes tipos de investigación (exploratoria, descriptiva y causal) y sus objetivos respectivos. Finalmente, indica que la investigación de mercados es una herramienta poderosa para la toma de decisiones a corto y largo plazo cuya misión principal es obtener información para reducir riesgos.
2. describing cities and places. ENGLISH DOT WORKS 2. SENA. semana 4 acitivda..... ..
Evidence: describing cities and places.ENGLISH DOT WORKS 2. SENA. ENGLISH DOT WORKS 2.
semana 4 acitivdad 2.ENGLISH DOT WORKS 2.
week 4 acitivty 2. ENGLISH DOT WORKS 2.
3.Evidence: Getting to Bogota.ENGLISH DOT WORKS 2. SENA.semana 4 actividad 3... ..
vidence: Getting to Bogota / Evidencia: Llegando a Bogotá.
ENGLISH DOT WORKS 2. SENA.
ENGLISH DOT WORKS 2.
semana 4 actividad 3.ENGLISH DOT WORKS 2.
week 4 activity 3.ENGLISH DOT WORKS 2. SENA.
Evidence: Going to the restaurant . ENGLISH DOT WORKS 2. SENA... ..
El documento describe una conversación entre un mesero y dos clientes en un restaurante. El mesero les da la bienvenida y les muestra su mesa. Les entrega los menús y toma su orden, que incluye espaguetis de mariscos, una hamburguesa y papas fritas, una Coca-Cola y agua. Luego les trae la comida y les pregunta cómo estuvo todo, a lo que responden que estaba delicioso. Uno de los clientes pide papas fritas adicionales. Al final, el mesero les trae
Evidence: I can’t believe it.ENGLISH DOT WORKS 2. semana 3 actividad 1.SENA... ..
Evidence: I can’t believe it.ENGLISH DOT WORKS 2. SENA.
ENGLISH DOT WORKS 2.
semana 3 actividad 1.ENGLISH DOT WORKS 2.
week 3 activity 1.ENGLISH DOT WORKS 2.
Evidence: I can’t believe it. SENA.
Evidence: Memorable moments.ENGLISH DOT WORKS 2. SENA. semana 2 actividad 2... ..
Evidence: Memorable moments.ENGLISH DOT WORKS 2. SENA. ENGLISH DOT WORKS 2.
week 2 activity 2.ENGLISH DOT WORKS 2.
semana 2 actividad 2. ENGLISH DOT WORKS 2.
Evidence: Planning my trip. ENGLISH DOT WORKS 2. SENA. semana 4 actividad 1... ..
Evidence: Planning my trip. ENGLISH DOT WORKS 2. SENA.
ENGLISH DOT WORKS 2.
semana 4 actividad 1.ENGLISH DOT WORKS 2.
week 4 activity 1.ENGLISH DOT WORKS 2.
3. Your next holiday destination ACTIVIDAD 3 SEMANA 3 ENGLISH DOT WORKS 2... ..
3. Your next holiday destination. ACTIVIDAD 3 SEMANA 3 ENGLISH DOT WORKS 2.SENA.
ENGLISH DOT WORKS 2. week 3 activity 3.
ENGLISH DOT WORKS 2. ACTIVIDAD 3 SEMANA 3
Your next holiday destination. ENGLISH DOT WORKS 2.
This chapter follows Christie as she marries Zeeshan under a deal that allows her to later divorce him and marry Grady. At their dysfunctional wedding, fights break out between Amylu and Sadie. After just five minutes of marriage, Christie divorces a heartbroken Zeeshan to pursue Grady, leaving Zeeshan devastated.
Este documento propone la creación de un nuevo Código Fiscal para el Estado de Zacatecas y sus municipios, debido a que el Código Fiscal actual data de 1984 y requiere actualizarse. El nuevo Código Fiscal unificaría la normatividad fiscal estatal y municipal, fortalecería la seguridad jurídica de los contribuyentes y ampliaría las facultades de las autoridades fiscales. El documento describe la estructura y contenido propuesto para el nuevo Código Fiscal.
The poem is about hiding tears and sadness from a parting lover by pretending the tears are just rain. The speaker is saying goodbye but will appear unaffected because "you can't see tears in the rain." They will cry in vain and the other person will never know their pain or see that it matters to them. The rain provides cover for the speaker's true emotions as they turn the page and let go of the relationship.
Este documento presenta las directrices para realizar un Análisis Situacional Integral de Salud (ASIS) en Ecuador. El ASIS es una herramienta que permite caracterizar la situación de salud de una población y analizar los determinantes sociales que afectan la salud. El proceso del ASIS incluye producir un diagnóstico situacional inicial, conformar un comité local de salud, priorizar problemas, elaborar un plan local de salud, e implementar y dar seguimiento al plan. El objetivo es mejorar la gestión de salud a través de la particip
JULIOPARI - Elaborando un Plan de NegociosJulio Pari
Este documento presenta un bosquejo de curso para elaborar un plan de negocios. El curso consta de 10 secciones que explican conceptos clave como la misión, visión, objetivos, clientes, competidores y proyecciones financieras. El curso ayudará a los participantes a comprender qué es un plan de negocios y cómo crear uno efectivo para diferentes propósitos como obtener financiamiento. El bosquejo resume brevemente el contenido de cada sección con el fin de guiar a los estudiantes en la elaboración exitosa de su propio plan de neg
El emprendedor y el empresario profesional certMaestros Online
Este documento proporciona información sobre un servicio de asesoría y resolución de ejercicios para estudiantes. Incluye instrucciones para actividades individuales y colaborativas relacionadas con temas de emprendimiento, como definir ventajas y desventajas de pequeñas empresas, comparar características de empresarios tradicionales y profesionales, y desarrollar ideas de negocio. También incluye preguntas sobre pasiones personales y admiración por figuras públicas.
Beam and Column Analysis | Individual ComponentJoyce Wee
This document provides calculations for the dead loads, live loads, and ultimate loads on several beams in a building structure. For beam A-B/4, the total dead load is 13.34kN/m and total live load is 4.24kN/m, resulting in an ultimate load of 25.46kN/m. The reaction forces at supports A and B are calculated to be 39.46kN and 39.5kN respectively. Similar load calculations are provided for several other beams.
The document analyzes the structural framing of a two-storey bungalow divided into three parts by three students. Roy Yiek analyzes beams and columns in his assigned zone. He calculates the loads on Beam 4/A-E on the first floor, including self-weight, wall weight, slab weight and live loads. He determines the shear force and bending moment diagrams. Roy also analyzes secondary Beam C/3-4 and Beam A/1-3, calculating their ultimate loads.
This document calculates loads and reactions for two slab sections. It determines that Slab 3b-4a/C-E, Slab 3b-4a/D-E, and Slab 2-3b/C-E are two-way slabs. It calculates dead loads from self-weight and brick walls. Live loads are also calculated. Ultimate loads are determined by multiplying dead and live loads by load factors. Reactions are calculated at Rb=90.17kN and Ra=146.69kN. The shear and bending moment diagrams are drawn.
This document contains calculations for analyzing 4 beams (C/1-2, D/1-3, D-F/3, F/3-4) and determining their ultimate loads. For each beam, the total dead load, live load, and ultimate load are calculated. The total loads are then used to calculate the reaction forces, shear force, and bending moment diagrams. In summary, the document analyzes structural components and determines their load carrying capacities.
The document appears to be a structural analysis report for a bungalow project completed by a group of students. It includes floor plans, structural plans, and individual calculations for various beams and columns. The beam calculations determine the ultimate load, reaction forces, shear forces, and bending moments. The column calculations determine the dead loads, live loads, and total ultimate loads from the roof, first floor, and ground floor.
This document provides details on the structural analysis of a double storey bungalow building. It includes floor plans, structural plans, load calculations, load distribution diagrams, and tributary area calculations. Dead and live loads acting on the structure are quantified. Beam and column calculations are presented for key structural elements, including determination of ultimate loads and checking of moment and shear forces. The analysis aids in understanding the building structure and ensuring safety under different loads and forces.
1) The document analyzes several two-way slabs and calculates their dead and live loads. It then determines the ultimate loads and reaction forces for beams E/3-5 and E/5-5a.
2) The total dead loads on beam E/3-5 is 22.89 kN/m and on beam E/5-5a is 29.31 kN/m. The total live loads are 5.75 kN/m and 9.32 kN/m respectively.
3) The ultimate loads are 41.25 kN/m and 55.95 kN/m respectively. The reaction forces are calculated to be Ra = 135.86kN
This document provides an analysis of the structural components of a bungalow project. It includes floor plans, structural plans, load calculations, and beam and column analysis reports. Key information includes:
- The project analyzes the structural design of two unusual bungalow floor plans.
- Load calculations are provided for dead and live loads based on material densities and code allowances.
- Beam and slab configurations are identified as one-way or two-way based on dimensional ratios.
- Sample beam analysis calculations are shown for beams 4/F-G and 3.1/E-F, including load diagrams, shear and moment diagrams, and reaction forces.
This document provides structural analysis details for a 2-storey bungalow, including:
1) Calculations of dead and live loads acting on beams and columns from roof/floor slabs, walls, and structural elements.
2) Analysis of Shear Force and Bending Moment diagrams for selected beams.
3) Determination of total loads on Columns 1/E and 2/E from combination of dead and live loads at each level, finding the maximum load on Column 2/E to be 306.37 kN.
This document outlines an assignment for a building structures course. It includes an introduction to the assignment which has two tasks - a group task analyzing floor plans and identifying structural elements, and an individual task analyzing selected beams and columns. It then provides an introduction to the case study which is a two-story house in Mexico. The remainder of the document includes architectural plans, structural plans, load plans, and sections of the house as well as calculations for selected beams and columns.
This document provides structural analysis details for a proposed 450 square meter bungalow. It includes:
1) Floor plans, structural plans, and a 3D model of the bungalow structure showing its columns and beams.
2) Calculations of dead and live loads for structural elements like beams, slabs, and columns based on material properties and intended room uses.
3) Beam analysis reports with load distribution plans, bending moment diagrams, and shear force diagrams to determine beam sizes for rooms.
4) A column analysis report estimating column loads and suggesting column sizes.
The analysis follows standard procedures to ensure the bungalow's structural integrity and safety.
Building Structure Project 2 (Taylor's lakeside campus)Ong Seng Peng Jeff
This document provides structural analysis details for a proposed 450 square meter bungalow. It includes:
1) Floor plans, structural plans, and a 3D model of the bungalow structure showing its columns and beams.
2) Calculations of dead and live loads for structural elements like beams, slabs, and columns based on material properties and intended room uses.
3) Beam analysis reports with load distribution plans, bending moment diagrams, and shear force diagrams to determine beam sizes for rooms.
4) A column analysis report estimating column loads and suggesting column sizes.
The analysis follows standard procedures to ensure the bungalow's structural integrity and safety.
The document provides details on a group project to analyze the structural components of a bungalow design. It includes architectural and structural plans for two floors showing beam and column layout. Formulas are given for calculating loads on beams and columns, including self-weight, slab weight, wall weight and live loads. The document then shows calculations for selected beams and columns on the ground floor, determining reaction forces, shear forces and bending moments. In particular, it analyzes beams between columns C1-D, D-E, and the long beam spanning 1-4 along column D.
1. The document analyzes the load distribution and reactions for beams and slabs in a building ground floor plan. It calculates dead loads from slabs, beams, and walls. Live loads are also determined.
2. Ultimate loads are calculated by applying load factors to dead and live loads. Reactions and shear and bending moment diagrams are drawn for Beams 5/A-B, A/4-6, and B/4-6.
3. The largest reaction force is found to be R6=170.23 kN for Beam B/4-6. The positive bending moment area is largest for this beam at 329.24m2.
The document analyzes beams and slabs in a two-story building. It identifies various slabs as either one-way or two-way slabs based on ratios of dimensions. It then calculates dead loads, live loads, ultimate loads, reactions and bending moments for different beam and slab combinations using given properties and load values. Diagrams and calculations are shown for Beams A-B/6, A/2-8, B/2-6, B/6-8, and B-H/6.
This document contains details of a structural engineering student project to propose an extension to an existing reinforced concrete bungalow. It includes 3D sketches of the existing building and proposed extension, floor plans showing slab and structural details, load calculations, and beam analysis calculations. The student provides information on dead loads, live loads, load distributions, and calculates reactions and bending moments for various ground floor beams.
This document describes a student's proposed extension to an existing reinforced concrete structure. The student proposes adding a two-story extension with a garage, gym, library, and wine storage on the ground and first floors. Dead and live loads are quantified for each structural component. Beam analysis is conducted to size structural members, including calculating reactions, shear forces, and bending moments. Load diagrams are provided to illustrate load distribution and transfer from slabs to beams.
This document outlines the analysis of beams and columns for a two-storey bungalow project. It includes architectural plans, structural plans, assumptions on loads, and beam and column analysis reports from three students. The beam analysis reports calculate the dead loads, live loads, ultimate loads, reactions, shear forces, and bending moments for various primary beams on the ground and first floors. The column analysis reports will be in a later section.
1) The document analyzes three slabs and determines they are all two-way slabs based on ratios of lengths.
2) It then calculates the dead and live loads on each slab and beam based on slab and beam sizes and densities.
3) The ultimate loads and reaction forces at supports are determined, with the maximum reaction force being 185.02kN.
4) Bending moment and shear diagrams are drawn to visualize the internal forces.
This document contains sketches and drawings for a proposed redevelopment project located at 44 Lebuh King, Georgetown, Penang. It includes floor plans, elevations, sections, and details for a visitor interpretative centre, urban community library, and bicycle and recreational centre across multiple levels. Measured drawings of the existing building are also included.
This document contains sketches and drawings for 6 different building projects completed over multiple semesters. It includes floor plans, elevations, sections, and perspective views of a visitor interpretive centre, elderly geriatric centre, urban community library, and bicycle & recreational centre. Measured drawings are also included for 44 Lebuh King in Georgetown, Penang.
The document contains contents pages for three sections: a community library project spanning pages 1-12, a bike hub project on pages 13-24, and a section on measured drawing techniques on pages 25-44. Floor plans, elevations, sections, and perspective views are included for both the library and bike hub projects, along with explanatory diagrams.
- The client, Taylor's University Lakeside Campus, requested a new recreational area with a budget of RM1,500,000.
- The proposed recreational area would provide indoor and outdoor spaces for staff and students including offices, lounges, cafeterias, and recreation areas.
- The design for the recreational area involved using repurposed shipping containers to create a lightweight and sustainable structure that incorporates landscaping and maximizes natural ventilation and lighting.
The document provides details of a design project for a bicycle hub in Titiwangsa Park, Kuala Lumpur. It includes an analysis of the site context, user groups, activities in the area, and design strategies. The proposed bicycle hub aims to create a gathering space for the community and encourage sports participation. It will contain a bicycle park, workshop, resting area, and cafe. The spatial planning zones public and private areas. The design considers the site's context, views, and relationship to the park to activate the public realm and attract visitors.
The document describes the development of Titiwangsa Lake area in Kuala Lumpur from the 1970s to present. It discusses how the former tin mining land was transformed into a recreational park and urban development arose around it. Diagrams show the growth of infrastructure and buildings over time, from early residential areas to current high-rise developments. The document analyzes different zones in the area based on land use and user activities. It also examines two specific sites through observations of human behavior and case studies of precedents to inform future programming. The goal is to understand who the area is for now and propose programs that cater to different user groups in the community.
This document is a comparative analysis essay analyzing the architecture, urban forms, activities, and contact points in Sejong Daero Street in Seoul, Korea and Jalan Tar in Kuala Lumpur, Malaysia. It finds that Sejong Daero Street has more contact points due to its spacious junctions and straight layout that encourages movement and interaction. In contrast, Jalan Tar's narrow alleys and focus on transportation over pedestrian comfort results in fewer contact points. Climate also influences activities, with Kuala Lumpur's heat decreasing walkability compared to Seoul. Both streets demonstrate how the built environment and activities can affect social interaction and intensity of contact in cities.
The document discusses daylight factor and artificial lighting calculations for two spaces - a kids corner and a popular shop. For the kids corner, the daylight factor is calculated to be 8.45%, providing 1691 lux of illumination which is very bright. 30 downlights are required to meet the 300 lux standard. For the popular shop, 15 pendant lights are needed based on the lumen method calculation. Arrangement of the lights is also discussed.
The document discusses lighting analysis methods and calculations. It provides definitions for daylight factor and natural illumination levels. It also gives fixture properties for two types of lights - a 40W LED commercial pendant light and a 2000lm 28W slim downlight. Calculations are shown for determining the number of lights needed for a kids corner and admin office space using the lumen method. For the admin office, 15 40W pendants are required arranged in 5 rows of 3 lights each. For the kids corner, 12 of the same pendants arranged in 4 rows of 3 lights are sufficient while avoiding strong lighting.
1) Kuala Lumpur began as tin mining sites along the Klang and Gombak Rivers in the late 19th century and has since transformed into a major commercial and administrative center.
2) Jalan TAR in Chow Kit is now a major business district with a diverse mix of local and corporate businesses.
3) The site is located alongside a valued local landmark cafe at the transition between a shopping street and heritage zone, welcoming different nearby communities.
The student interned at the architecture firm Hajeedar And Associates, where he observed the work processes and gained practical knowledge. The firm's founder, Dato' Ar. Hajeedar Abdul Majib, has over 39 years of experience and has completed many major projects in Malaysia. During the internship, the student observed project planning, design development, meetings with clients and consultants, and dealing with local authorities. The student learned that an architect's role extends beyond just design to encompass full project management. The internship provided valuable real-world insights into the architecture profession compared to classroom learning. The student is grateful for the knowledge and guidance received from the supervisor and senior architect.
Petaling Street has adapted to accommodate people from diverse cultural backgrounds who visit and reside there. It is a densely populated area with (1) many residents who speak multiple languages, (2) a high rate of mixed marriages between different ethnic and religious groups, and (3) various religious buildings and restaurants clustered together representing the area's religious diversity.
The document provides details on the fire protection systems for a proposed 3-storey elderly center building in Selangor, Malaysia. It discusses the building design and intended uses. It then analyzes the passive and active fire protection systems that will be incorporated into the building to comply with fire safety regulations, including fire walls, doors, sprinklers, alarms, and portable fire extinguishers. Diagrams are provided showing how these systems will be arranged and installed in the building. Requirements from the Uniform Building By-Laws regarding fire protection in the building are also outlined.
The document describes a proposed landscape design for a 10m x 10m site located at Taylor's University Block E Level 2. The design aims to create a quiet, relaxing recreational area for students with good views of the nearby lake. Key elements of the design include gazebos near the lake view, grass planting, trees for shade and noise reduction, lights along the walkway for night use, a central fountain, recycling bins, and benches for resting. The existing site is currently unused with cracks on the floor and only a cement surface. The proposal seeks to take advantage of the lake views and provide an outdoor space for students to destress with surrounding herb plants.
The document proposes constructing an event hall and café on a 30m x 30m plot of land within a university campus. The concept is to build a multipurpose event hall measuring 13.5m x 19.5m that can be used for parties, dining, and badminton. An adjacent café would provide food/drinks and a small library for studying. Site analysis found the location next to sports courts lacked rest areas. The proposal provides rationales for benefits and materials lists the estimated costs. Construction approval documents are also outlined.
Mr. Chang Yuh Fah is a Malaysian architect who has worked in the field since 1988. He was born in Sabah and graduated from Plymouth Polytechnic in the UK. For over 26 years, he owned and operated his own architecture firm, designing buildings such as an office complex on Jalan Cerdas in Kuala Lumpur. Some of his advice for aspiring architects includes enjoying their work, gaining experience by working for others early in their career, and studying abroad to increase their skills and reputation.
Interior architecture is the process of designing the interior spaces of buildings, taking into account how people will use and interact with the structural spaces. An interior designer's responsibilities include meeting with clients to understand their needs and budget, developing design concepts, creating drawings and finding furnishings. There are several types of interior design specializations including residential, commercial, hospitality, healthcare, universal and exhibition design. To be an interior designer requires creativity, practical and project management skills, as well as the ability to communicate effectively and find solutions within clients' budgets.
The document discusses various technologies and initiatives aimed at improving security, waste management, and transportation in cities. It describes security cameras and patrols to reduce street crimes, waste management systems that generate energy from garbage and detect pollution, and innovative transportation solutions like buses that transport bicycles and allow passengers to cycle part of the journey.
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1. Heng Wei Yen’s
BEAM F/2-3 FIRST FLOOR
DEAD LOAD
BEAM SELF WEIGHT
= Beam width x Beam height x Concreate density
= 0.2 x 0.3 x 24
= 1.44 kn/m
BRICK WALL WEIGHT
= Wall Height x Wall thickness x Brick density
= 3 x 0.15 x 19
= 8.55 kn/m
DEAD LOAD OF SLAB (F-G/2-3)
= Concrete density x (shortest length/2) x Thickness of slab
= 24 x (2.03/2) x 0.15
= 3.65 kn/m
DEAD LOAD OF SLAB (D-F/2-3)
=Concrete density x (shortest length/2) x Thickness of slab x (2/3)
= 24 x (2.03/2) x 0.15 x (2/3)
= 5.52 kn/m
TOTAL DEAD LOAD
=1.44 + 8.55 + 3.65 + 5.52
=19.16 kn/m
LIVE LOAD
Slab F-G/2-3
=Space live load x (Beam length/2)
=1.5 x (4.6/2)
=3.45 kn/m
Slab C-F/2-3
=Space live load x (Beam length/2)
=1.5 x (2.03/2)
=1.52kn/m
TOTAL LIVE LOAD
=3.45 + 1.52
=4.97 kn/m
ULTIMATE LOAD
Dead load
19.16 x 1.4 = 21 kn/m
Live load
4.97 x 1.6 = 7.95 kn/m
Ultimate load
21 + 7.95 = 28.95 kn/m
F2 F3
1.44 kn/m
8.55 kn/m
3.65 kn/m
5.52 kn/m
4.6 m
2. Lam Si Chu’s
REACTION FORCE
TOTAL LOAD
= Ultimate force x Beam Length
= 28.97 x 4.6
= 113.26 kn/m
B3 D3
1.44 kn/m
5.7m
DEAD LOADMR2 - MR1 = 0
(54.6 x Ra) – (133.26 x 2.3) = 0
Ra = 66.63 kn/m
∑fy= 0
0 = Ra + Rb – 133.26
Rb = 108.56 – 217.12
Rb = -66.63 kn/m
66.63 kn/m
-66.63 kn/m
BENDING MOMENT DIAGRAM
(4.6 x 0.5) x 76.62
2
= 76.62
76.67
3. Heng Wei Yen’s
BEAM E-G/3 (FIRST FLOOR)
DEAD LOAD
BEAM SELF WEIGHT
= Beam width x Beam height x Concreate density
= 0.2 x 0.3 x 24
= 1.44 kn/m
BRICK WALL WEIGHT
= Wall Height x Wall thickness x Brick density
= 3 x 0.15 x 19
= 8.55 kn/m
DEAD LOAD OF SLAB E-G/3-5a
= Concrete density x (shortest length/2) x Thickness of slab x (2/3)
= 24 x (3.48/2) x 0.15 x (2/3)
= 4.18 kn/m
DEAD LOAD OF SLAB D-F/2-3
=Concrete density x (shortest length/2) x Thickness of slab
= 24 x (4.6/2) x 0.15
= 8.28 kn/m
TOTAL DEAD LOAD E3-F3
=1.44 + 8.55 + 4.18
= 14.17 kn/m
LIVE LOAD
SLAB E-G/3-5a
=Space live load x (Beam length/2)
=1.5 x (3.48/2) x (2/3)
=1.74 kn/m
SLAB D-F/2-3
=Space live load x (Beam length/2)
=4 x (4.6/2)
=9.2 kn/m
TOTAL LIVE LOAD
= 1.74 + 9.2
=10.94
ULTIMATE LOAD
E3-F3
Dead load – 14.17 x 1.4 = 19.84 kn/m
Live load – 1.74 x 1.6 = 2.78 kn/m
F3-G3
Dead load – 22.45 x 1.4 = 31.43 kn/m
Live load – 10.94 x 1.6 = 17.504 kn/m
Ultimate load
E3-F3 = 22.62 kn/m
F3-G3 = 48.93 kn/m
E3 G3
1.44 kn/m
8.55 kn/m
F3
2.03m 1.44m
DEAD LOAD
14.17 kn/m 22.45kn/m
TOTAL
4.18 kn/m
8.28kn/m
TOTAL DEAD LOAD F3-G3
=1.44 + 8.55 + 4.18 + 8.28
= 22.45 kn/m
5. Heng Wei Yen’s
BEAM E/4-6 (FIRST FLOOR)
DEAD LOAD
BEAM SELF WEIGHT
= Beam width x Beam height x Concreate density
= 0.2 x 0.3 x 24
= 1.44 kn/m
BRICK WALL WEIGHT
= Wall Height x Wall thickness x Brick density
= 3 x 0.15 x 19
= 8.55 kn/m
DEAD LOAD OF SLAB E-G/3-5a
= Concrete density x (shortest length/2) x Thickness of slab x (2/3)
= 3.6 x (3.48/2)
= 6.26 kn/m
DEAD LOAD OF SLAB D-F/2-3
=Concrete density x (shortest length/2) x Thickness of slab
= 3.6 x (3.08/2) x 2/3
= 3.7kn/m
DEAD LOAD E3-F3
=3.6 x 4/2 x 2/3
= 4.8 kn/m
LIVE LOAD
SLAB E-G/3-5a
=Space live load x (Beam length/2)
=1.5 x (3.48/2)
=2.61
SLAB D-F/2-3
=Space live load x (Beam length/2) x 2/3
=4 x (3.08/2) x 2/3
=1.54 kn/m
SLAB
= 1.5 x 4/2 x 2/3
=2
SLAB
= 1.5 x 3.08/2 x 2/3
=1.54
ULTIMATE LOAD
E3-F3
Dead load – 14.17 x 1.4 = 19.84 kn/m
Live load – 1.74 x 1.6 = 2.78 kn/m
F3-G3
Dead load – 22.45 x 1.4 = 31.43 kn/m
Live load – 10.94 x 1.6 = 17.504 kn/m
Ultimate load
E3-F3 = 22.62 kn/m
F3-G3 = 48.93 kn/m
E3 G3
1.44 kn/m
8.55 kn/m
F3
2.03m 1.44m
DEAD LOAD
14.17 kn/m 22.45kn/m
TOTAL
4.18 kn/m
8.28kn/m
DEAD LOAD F3-G3
= 3.6 3.08/2 x 2/3
= 3.7
6.
7. Lam Si Chu’s
BEAM B/2-4
DEAD LOAD
BEAM SELF WEIGHT
= Beam width x Beam height x Concreate density
= 0.2 x 0.3 x 24
= 1.44 kn/m
BRICK WALL WEIGHT
= Wall Height x Wall thickness x Brick density
= 3 x 0.15 x 19
= 8.55 kn/m
DEAD LOAD OF SLAB B-C/2-3
= Concrete density x (shortest length/2) x Thickness of slab x (2/3)
= 24 x (4.6/2) x 0.15 x (2/3)
= 5.52 kn/m
DEAD LOAD OF SLAB A-B/2-3
=Concrete density x (shortest length/2) x Thickness of slab
= 24 x (3.93/2) x 0.15
= 7.07 kn/m
TOTAL DEAD LOAD
=1.44 + 8.55 + 5.52 + 7.07
= 22.58 kn/m
LIVE LOAD
SLAB B-C/2-3
=Space live load x (Beam length/2)
=1.5 x (4.6/2) x (2/3)
=2.3 kn/m
SLAB A-B/2-3
=Space live load x (Beam length/2)
=1.5 x (3.93/2)
=2.95 kn/m
TOTAL LIVE LOAD
=3.45 + 1.52
=5.25
ULTIMATE LOAD
B2-B3
Dead load -- 22.58 x 1.4 = 31.61 kn/m
Live load -- 5.25 kn/m x 1.6 = 8.4 kn/m
B3-B4
9.99 x 1.4 = 13.99 kn/m
Ultimate load
B2-B3 = 40.01 kn/m
B3-B4 = 13.99 kn/m
B2 B4
1.44 kn/m
8.55 kn/m
B3
5.52 kn/m
7.07 kn/m
4.60m 1.88m
0 kn/m5.25 kn/m
5.25 kn/m
DEAD LOAD
LIVE LOAD
22.58 kn/m 9.99kn/m
TOTAL
TOTAL
9. Lam Shi Chu’s
BEAM F/2-3 GROUND FLOOR
DEAD LOAD
BEAM SELF WEIGHT
= Beam width x Beam height x Concreate density
= 0.2 x 0.3 x 24
= 1.44 kn/m
BRICK WALL WEIGHT
= Wall Height x Wall thickness x Brick density
= 3 x 0.15 x 19
= 8.55 kn/m
DEAD LOAD OF ONE WAY SLAB -----------------------
= Concrete density x (shortest length/2) x Thickness of slab
= 24 x (2.03/2) x 0.15
= 3.65 kn/m
DEAD LOAD OF TWO WAY SLAB ------------------------------------------
=Concrete density x (shortest length/2) x Thickness of slab x (2/3)
= 24 x (2.03/2) x 0.15 x (2/3)
= 5.52 kn/m
TOTAL DEAD LOAD
=1.44 + 8.55 + 3.65 + 5.52
=19.16 kn/m
LIVE LOAD
Slab F-G/2-3
=Space live load x (Beam length/2)
=1.5 x (4.6/2)
=3.46
Slab C-F/2-3
=Space live load x (Beam length/2)
=1.5 x (2.03/2)
=1.52
TOTAL LIVE LOAD
=3.45 + 1.52
=4.98 kn/m
ULTIMATE LOAD
Dead load
19.16 x 1.4 = 21 kn/m
Live load
4.98 x 1.6 = 7.97 kn/m
Ultimate load
21 + 7.97 = 28.97 kn/m
F2 F3
19.16 kn/m
4.97 kn/m
10. Lam Si Chu’s
REACTION FORCE
TOTAL LOAD
= Ultimate force x Beam Length
= 28.97 x 4.6
= 113.26 kn/m
B3 D3
1.44 kn/m
5.7m
DEAD LOADMR2 - MR1 = 0
(54.6 x Ra) – (133.26 x 2.3) = 0
Ra = 66.63 kn/m
∑fy= 0
0 = Ra + Rb – 133.26
Rb = 108.56 – 217.12
Rb = -66.63 kn/m
66.63 kn/m
-66.63 kn/m
BENDING MOMENT DIAGRAM
(4.6 x 0.5) x 76.62
2
= 76.62
76.67
11. Lam Si Chu’s
BEAM A-B/3
DEAD LOAD
BEAM SELF WEIGHT
= Beam width x Beam height x Concreate density
= 0.2 x 0.3 x 24
= 1.44 kn/m
BRICK WALL WEIGHT
= Wall Height x Wall thickness x Brick density
= 3 x 0.15 x 19
= 8.55 kn/m
DEAD LOAD OF SLAB A-B/2-3
= Concrete density x (shortest length/2) x Thickness of slab x (2/3)
= 24 x (3.93/2) x 0.15 x (2/3)
= 4.716 kn/m
DEAD LOAD OF SLAB A-B/3-4
=Concrete density x (shortest length/2) x Thickness of slab
= 24 x (1.88/2) x 0.15
= 3.38 kn/m
TOTAL DEAD LOAD
=1.44 + 8.55 + 4.716 + 3.38
= 18.09 kn/m
LIVE LOAD
SLAB A-B/2-3
=Space live load x (Beam length/2) x (2/3)
=2 x (3.93/2) x (2/3)
=2.26 kn/m
SLAB A-B/3-4
=Space live load x (Beam length/2)
=2 x (1.88/2)
=1.88 kn/m
TOTAL LIVE LOAD
=2.26 + 1..88
=4.14 kn/m
ULTIMATE LOAD
Dead load
18.09 x 1.4 = 25.33 kn/m
Live load
4.14 x 1.6 = 6.62 kn/m
Ultimate load
25.33 + 6.62 = 31.95 kn/m
A3 B3
1.44 kn/m
8.55 kn/m
5.52 kn/m
7.07 kn/m
3.93m
0 kn/m5.25 kn/m
5.25 kn/m
DEAD LOAD
LIVE LOAD
22.58 kn/m 9.99kn/m
TOTAL
TOTAL
12. Lam Si Chu’s
REACTION FORCE
TOTAL LOAD
= Ultimate force x Beam Length
= 31.95 x 3.93
= 125.56 kn/m
A3 B3
125.56 kn/m
3.93m
MR2 - MR1 = 0
(3.9 x Ra) – (125.56 x 1.97) = 0
Ra = 62.78 kn/m
∑fy= 0
0 = Ra + Rb – 125.56
Rb = 62.78 kn/m
62.78 kn/m
62.78 kn/m
BENDING MOMENT DIAGRAM
(3.94/2) x 125.56
2
= 123.68
123.68
R1 R2
13. Lam Si Chu’s
BEAM E-G/3
DEAD LOAD
BEAM SELF WEIGHT
= Beam width x Beam height x Concreate density
= 0.2 x 0.3 x 24
= 1.44 kn/m
BRICK WALL WEIGHT
= Wall Height x Wall thickness x Brick density
= 3 x 0.15 x 19
= 8.55 kn/m
DEAD LOAD OF SLAB E-G/3-5a
= Concrete density x (shortest length/2) x Thickness of slab x (2/3)
= 24 x (3.48/2) x 0.15 x (2/3)
= 4.18 kn/m
DEAD LOAD OF SLAB D-F/2-3
=Concrete density x (shortest length/2) x Thickness of slab
= 24 x (4.6/2) x 0.15
= 8.28 kn/m
TOTAL DEAD LOAD
=1.44 + 8.55 + 4.18 + 8.28
= 22.45 kn/m
LIVE LOAD
SLAB E-G/3-5a
=Space live load x (Beam length/2)
=1.5 x (3.48/2) x (2/3)
=1.63 kn/m
SLAB D-F/2-3
=Space live load x (Beam length/2)
=1.5 x (4.6/2)
=3.8 kn/m
TOTAL LIVE LOAD
= 1.63 + 3.8
=5.43
ULTIMATE LOAD
E3-F3
Dead load – 14.17 x 1.4 = 19.84 kn/m
Live load – 1.63 x 1.6 = 2.61 kn/m
F3-G3
Dead load – 22.45 x 1.4 = 31.43 kn/m
Live load – 5.43 x 1.6 = 8.69 kn/m
Ultimate load
E3-F3 = 22.45 kn/m
F3-G3 = 40.12 kn/m
E3 G3
1.44 kn/m
8.55 kn/m
F3
2.03m 1.44m
0 kn/m5.25 kn/m
DEAD LOAD
LIVE LOAD
14.17 kn/m 22.45kn/m
TOTAL
TOTAL
4.18 kn/m
8.28kn/m
3.8kn/m
15. Lam Si Chu’s
BEAM B-D/3
DEAD LOAD
BEAM SELF WEIGHT
= Beam width x Beam height x Concreate density
= 0.2 x 0.3 x 24
= 1.44 kn/m
BRICK WALL WEIGHT
= Wall Height x Wall thickness x Brick density
= 3 x 0.15 x 19
= 8.55 kn/m
DEAD LOAD OF SLAB B-D/2-3
= Concrete density x (shortest length/2) x Thickness of slab
= 24 x (4.6/2) x 0.15
= 8.28 kn/m
DEAD LOAD OF SLAB B-D/3-4
=Concrete density x (shortest length/2) x Thickness of slab
= 24 x (1.88/2) x 0.15
= 3.38 kn/m
TOTAL DEAD LOAD
=1.44 + 8.55 + 8.28 + 3.38
= 21.65 kn/m
LIVE LOAD
SLAB B-D/2-3
=Space live load x (Beam length/2)
=1.5 x (4.6/2)
= 3.45kn/m
SLAB B-D/3-4
=Space live load x (Beam length/2)
=1.5 x (1.88/2)
=1.41 kn/m
TOTAL LIVE LOAD
=3.45 + 1.41
=4.86 kn/m
ULTIMATE LOAD
Dead load
21.65 x 1.4 = 30.31 kn/m
Live load
4.86 x 1.6 = 7.78 kn/m
Ultimate load
30.31 + 7.78 = 38.09 kn/m
B3 D3
1.44 kn/m
8.55 kn/m
5.7m
5.25 kn/m
4.86 kn/m
DEAD LOAD
LIVE LOAD
21.65 kn/m
TOTAL
TOTAL
8.28 kn/m
3.38 kn/m
16. Lam Si Chu’s
REACTION FORCE
TOTAL LOAD
= Ultimate force x Beam Length
= 38.09 x 5.7
= 217.11 kn/m
B3 D3
217.11 kn/m
5.7m
DEAD LOADMR2 - MR1 = 0
(5.7 x Ra) – (217.11 x 2.85) = 0
Ra = 618.76/5.7
Ra = 108.56 kn/m
∑fy= 0
0 = Ra + Rb + 217.11
Rb = 108.56 – 217.12
Rb = -108.56 kn/m
108.56 kn/m
-108.56 kn/m
BENDING MOMENT DIAGRAM
(5.7 x 0.5) x 108.56
2
= 154.7
154.7
17. Lam Si Chu’s
BEAM G/2-3
DEAD LOAD
BEAM SELF WEIGHT
= Beam width x Beam height x Concreate density
= 0.2 x 0.3 x 24
= 1.44 kn/m
BRICK WALL WEIGHT
= Wall Height x Wall thickness x Brick density
= 3 x 0.15 x 19
= 8.55 kn/m
DEAD LOAD OF SLAB F-G/2-3
= Concrete density x (shortest length/2) x Thickness of
slab
= 24 x (5.88/2) x 0.15
= 10.58 kn/m
TOTAL DEAD LOAD
=1.44 + 8.55 + 10.58
= 20.56 kn/m
LIVE LOAD
SLAB B-D/2-3
=Space live load x (Beam length/2)
=1.5 x (4.6/2)
= 3.45kn/m
SLAB B-D/3-4
=Space live load x (Beam length/2)
=1.5 x (1.88/2)
=1.41 kn/m
TOTAL LIVE LOAD
=3.45 + 1.41
=4.86 kn/m
ULTIMATE LOAD
Dead load
21.65 x 1.4 = 30.31 kn/m
Live load
4.86 x 1.6 = 7.78 kn/m
Ultimate load
30.31 + 7.78 = 38.09 kn/m
G2 G3
1.44 kn/m
8.55 kn/m
5.7m
4.86 kn/m
4.86 kn/m
DEAD LOAD
LIVE LOAD
TOTAL
TOTAL
10.58 kn/m
20.56 kn/m
7.78 kn/m
18. Lam Si Chu’s
REACTION FORCE
TOTAL LOAD
= Ultimate force x Beam Length
= 171x 4.6
= 178.66 kn/m
B3 D3
78.66 kn/m
4.6m
DEAD LOADMR2 - MR1 = 0
(4.6 x Ra) – (78.66) = 0
Ra = 39.33 kn/m
∑fy= 0
0 = Ra + Rb - 100.21
Rb = 39.33 kn/m
39.33 kn/m
39.33 kn/m
BENDING MOMENT DIAGRAM
4.6 x 78.66
2
= 180.918
180.918
R1 R2