Sachpazis_Trapezoid Foundation Analysis & Design. Calculation according to EN...Dr.Costas Sachpazis
油
The document summarizes the calculation of foundations and reinforcement for a trapezoidal pad foundation supporting a column. Soil properties, foundation geometry, loads, and limit states are defined. Calculations are presented for bearing capacity, sliding resistance, uplift, bending moments, required reinforcement, and punching shear. The foundation dimensions were optimized, resulting in a wider and longer foundation with increased depths. All limit states checks passed requirements.
Roof Truss Design (By Hamza Waheed UET Lahore )Hamza Waheed
油
This presentation defines, describes and presents the most effective and easy way to design a roof truss with all the necessary steps and calculations based on Allowable Stress Design. Soft-wares like MD Solids, Truss Analysis have been used. It is most convenient way to design a roof truss which is being the most important structural components of All types of steel bridges.
This document provides a design of an isolated footing. It includes load calculations, soil properties, footing dimensions, reinforcement requirements, and a summary. The maximum and minimum soil pressures were calculated to be 220.7 kN/m^2 and 16.35 kN/m^2. The footing dimensions were determined to be 1500mm x 1500mm with a depth of 225mm. Reinforcement of 7 #4 bars at 225mm spacing was specified for the top and bottom in both directions to resist bending moments of up to 39.1 kN-m.
Foundation Reinforcement Calcs & Connection CalcsMagdel Kotze
油
This document provides calculations for the reinforcement design of concrete beams and foundations for the Gokwe Water Tank project. It includes:
1) Calculation of bending reinforcement for various sagging and hogging moments in concrete beams.
2) Calculation of reinforcement for uplift/hogging moments in concrete foundation strips due to column and soil loading.
3) Details and calculations for fixed beam-column connections including end plates, top plates, and cleat designs. Reinforcement and bolts are designed to resist shear, moment and tension forces determined from structural analysis models.
The document summarizes an internship project analyzing and designing a G+3 residential building. It includes modeling the building in ETABS, analyzing it to determine bending moments and shear forces, and designing structural elements like beams, columns, slabs, footings and stairs. The internship took place over 7 weeks at Zenith Constructions, where the student gained practical skills in structural design, analysis software, and site visits to understand real-world applications.
This document provides information about the design of a roof structure including:
1. Load calculations for dead loads from roofing materials and live loads from rain and workers.
2. Load factors are applied to calculate design loads.
3. Moment and shear force calculations are performed based on the design loads.
4. Steel I-beam profiles are selected to resist the maximum tensile and compressive forces calculated.
5. The profiles are checked against design strength limits for yielding, ultimate strength, and block shear.
Analysis and Design of Residential building.pptxDP NITHIN
油
Complete introduction to the design and design concepts, design of structural
members like slabs, beams, columns, footing etc. along with their calculation and
Detailing through structural drawings.
The document summarizes the design of a welded plate girder with the following specifications:
- Simply supported span of 30m
- Uniformly distributed load of 120kN/m plus two point loads of 1000kN each at 10m from supports
- Main dimensions and reinforcements of the girder are calculated including web, flange plates, stiffeners, and connections.
Design of Various Types of Industrial Buildings and Their ComparisonIRJESJOURNAL
油
This document describes the design and analysis of different types of industrial buildings. It compares steel truss industrial buildings of varying dimensions (14m x 31.5m, 20m x 50m, 28m x 70m) to pre-engineered buildings of the same dimensions. The design is based on Indian code IS 800-2007 and considers dead load, live load and wind load combinations. Analysis results like member forces and bending moments are obtained and compared between the steel truss and pre-engineered building designs. Key building elements like purlins, rafters, trusses, bracing and columns are also designed and their sizes optimized.
This document summarizes the analysis and design of an RC beam according to Eurocode standards. It provides details of the beam geometry, materials, loading, and results of the structural analysis. The summary analyzes the beam over two zones for positive and negative bending moments to check reinforcement requirements for strength and crack control are satisfied according to code specifications.
Baf Shaheen College (B+12) ETABS Dynamic Analysis.pptxDES Engineers Ltd
油
The document discusses the structural design of a 12-story educational building in Dhaka, Bangladesh. It covers loading considerations including dead loads, live loads, wind loads, and seismic loads. Load combinations are listed. The structural system is described as intermediate moment-resisting frames. Manual and ETABS calculations are shown for wind loads in the X and Y directions and for seismic base shear, with a deviation of approximately 5% between the manual and ETABS results.
This document details the design and calculation of a concrete bridge with plate girders. It includes the dimensions of the bridge components, loading assumptions, and structural analysis. The bridge is designed to carry 3 traffic lanes and a C-40 truck load, with a 19m span. Structural checks are performed for the plate, girders, and reinforcement sizing. Reinforcement is designed for critical moments in the supports, interior spans, and overhang.
This document contains calculations for the design of a two-way residential slab continuous on four edges. It includes design data, loading information, bending moment calculations, reinforcement requirements for midspan and edges, shear checks, serviceability checks for deflection and cracking, and a note about detailing the slab according to standard methods. Reinforcement is specified as Y10 bars at 200mm spacing for midspan and edges and Y8 bars at 200mm for distribution. The slab passes all design checks for strength and serviceability.
This document provides details for the design and calculation of a concrete slab and beam bridge with a span of 19 meters and 3 traffic lanes. It includes the dimensions and reinforcement design of the slab, interior and exterior beams, and abutments. Calculations are shown for loads, moments, shear forces, and reinforcement sizing for various bridge elements to verify structural capacity and design requirements are met.
The document summarizes the design of different foundation types for a 7-story building located on clay soil with an allowable bearing capacity of 182 kN/m2. It analyzes a mat foundation with dimensions of 579.4 m2 and verifies its structural adequacy. It also examines using a pile foundation with 8 piles that are 0.8 m in diameter and 15 m long to support a total service load of 5788 kN/m2. Dimensional details are provided for the pile cap design.
This document summarizes the design of a lead rubber bearing (LRB) for a building with a maximum height of 37.2 meters. It includes calculations to determine the required dimensions and properties of the LRB, including the diameter of 815 mm, thickness of 25 mm per rubber layer for a total of 14 layers, diameter of the lead plug of 65 mm, and total height of 436.4 mm. The design aims to provide the necessary energy dissipation and stiffness to isolate the building from seismic forces.
Intze Overhead Water Tank Design by Working Stress - IS Method.pdfEr. Suman Jyoti
油
Content;
1. Top spherical dome.
2. Top ring beam.
3. Cylindrical wall.
4. Bottom ring beam.
5. Conical dome.
6. Circular ring beam.
The basics of enticing water tank design and the related components are broadly calculated in this document. The next few documents will demonstrate the design of Intze tank members like column, bracing and foundation. Keep following the updates.....
The document provides calculations for the dead load, live load, and ultimate load on several beams (H'45, GJ'5, FC'5) in a building. It calculates the load contributions from slabs, walls, and the beam self-weight, then applies load factors to determine the ultimate load. It also calculates the reaction forces and draws the shear force and bending moment diagrams for each beam.
This document contains the structural design proposal and individual calculations for a reinforced concrete building project by 6 students. It includes:
1) A table of contents and list of students and their student IDs working on the project.
2) The structural proposal section containing foundation plan, beams and columns for ground and first floor, and roof proposal.
3) The individual calculations section containing each student's calculations for beams and columns to support the structural design.
4) An appendix section at the end. The document provides details of the building location, land area, and completion date in the introduction.
The document contains laboratory test results and calculations to determine the bearing capacity of soil. It includes soil properties like cohesion, internal friction angle, unit weight measured in the lab and field. It then shows calculations for ultimate bearing capacity and allowable bearing capacity of square foundations using Terzaghi's method for various depths and widths. The results are presented in tables with recommended allowable values between 1-2 kg/cm2 depending on the foundation size.
Structural analysis of a bungalow reportChengWei Chia
油
The document presents the structural analysis of a bungalow conducted by three students. It includes architectural plans, quantities of dead and live loads, structural plans, load distribution diagrams, tributary area diagrams, and individual analyses of structural components by each student. Student 1 analyzes beams and columns on the ground floor. Student 2 analyzes a beam spanning from the ground floor to the first floor. Student 3 analyzes point loads applied to beams. Calculations are shown for load quantities, load diagrams, and ultimate loads on structural elements.
Structural Analysis of a Bungalow Reportdouglasloon
油
Taylor's University Lakeside Campus
School of Architecture, Building & Design
Bachelor of Science (Hons) in Architecture
Building Structures (ARC 2523 / BLD 60103)
Project 2: Structural Analysis of a Bungalow
. マ留 裡留略龍侶: Foundation Analysis and Design: Single Piles
Welcome to this comprehensive presentation on "Foundation Analysis and Design," focusing on Single PilesStatic Capacity, Lateral Loads, and Pile/Pole Buckling. This presentation will explore the fundamental concepts, equations, and practical considerations for designing and analyzing pile foundations.
We'll examine different pile types, their characteristics, load transfer mechanisms, and the complex interactions between piles and surrounding soil. Throughout this presentation, we'll highlight key equations and methodologies for calculating pile capacities under various conditions.
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This document provides information about the design of a roof structure including:
1. Load calculations for dead loads from roofing materials and live loads from rain and workers.
2. Load factors are applied to calculate design loads.
3. Moment and shear force calculations are performed based on the design loads.
4. Steel I-beam profiles are selected to resist the maximum tensile and compressive forces calculated.
5. The profiles are checked against design strength limits for yielding, ultimate strength, and block shear.
Analysis and Design of Residential building.pptxDP NITHIN
油
Complete introduction to the design and design concepts, design of structural
members like slabs, beams, columns, footing etc. along with their calculation and
Detailing through structural drawings.
The document summarizes the design of a welded plate girder with the following specifications:
- Simply supported span of 30m
- Uniformly distributed load of 120kN/m plus two point loads of 1000kN each at 10m from supports
- Main dimensions and reinforcements of the girder are calculated including web, flange plates, stiffeners, and connections.
Design of Various Types of Industrial Buildings and Their ComparisonIRJESJOURNAL
油
This document describes the design and analysis of different types of industrial buildings. It compares steel truss industrial buildings of varying dimensions (14m x 31.5m, 20m x 50m, 28m x 70m) to pre-engineered buildings of the same dimensions. The design is based on Indian code IS 800-2007 and considers dead load, live load and wind load combinations. Analysis results like member forces and bending moments are obtained and compared between the steel truss and pre-engineered building designs. Key building elements like purlins, rafters, trusses, bracing and columns are also designed and their sizes optimized.
This document summarizes the analysis and design of an RC beam according to Eurocode standards. It provides details of the beam geometry, materials, loading, and results of the structural analysis. The summary analyzes the beam over two zones for positive and negative bending moments to check reinforcement requirements for strength and crack control are satisfied according to code specifications.
Baf Shaheen College (B+12) ETABS Dynamic Analysis.pptxDES Engineers Ltd
油
The document discusses the structural design of a 12-story educational building in Dhaka, Bangladesh. It covers loading considerations including dead loads, live loads, wind loads, and seismic loads. Load combinations are listed. The structural system is described as intermediate moment-resisting frames. Manual and ETABS calculations are shown for wind loads in the X and Y directions and for seismic base shear, with a deviation of approximately 5% between the manual and ETABS results.
This document details the design and calculation of a concrete bridge with plate girders. It includes the dimensions of the bridge components, loading assumptions, and structural analysis. The bridge is designed to carry 3 traffic lanes and a C-40 truck load, with a 19m span. Structural checks are performed for the plate, girders, and reinforcement sizing. Reinforcement is designed for critical moments in the supports, interior spans, and overhang.
This document contains calculations for the design of a two-way residential slab continuous on four edges. It includes design data, loading information, bending moment calculations, reinforcement requirements for midspan and edges, shear checks, serviceability checks for deflection and cracking, and a note about detailing the slab according to standard methods. Reinforcement is specified as Y10 bars at 200mm spacing for midspan and edges and Y8 bars at 200mm for distribution. The slab passes all design checks for strength and serviceability.
This document provides details for the design and calculation of a concrete slab and beam bridge with a span of 19 meters and 3 traffic lanes. It includes the dimensions and reinforcement design of the slab, interior and exterior beams, and abutments. Calculations are shown for loads, moments, shear forces, and reinforcement sizing for various bridge elements to verify structural capacity and design requirements are met.
The document summarizes the design of different foundation types for a 7-story building located on clay soil with an allowable bearing capacity of 182 kN/m2. It analyzes a mat foundation with dimensions of 579.4 m2 and verifies its structural adequacy. It also examines using a pile foundation with 8 piles that are 0.8 m in diameter and 15 m long to support a total service load of 5788 kN/m2. Dimensional details are provided for the pile cap design.
This document summarizes the design of a lead rubber bearing (LRB) for a building with a maximum height of 37.2 meters. It includes calculations to determine the required dimensions and properties of the LRB, including the diameter of 815 mm, thickness of 25 mm per rubber layer for a total of 14 layers, diameter of the lead plug of 65 mm, and total height of 436.4 mm. The design aims to provide the necessary energy dissipation and stiffness to isolate the building from seismic forces.
Intze Overhead Water Tank Design by Working Stress - IS Method.pdfEr. Suman Jyoti
油
Content;
1. Top spherical dome.
2. Top ring beam.
3. Cylindrical wall.
4. Bottom ring beam.
5. Conical dome.
6. Circular ring beam.
The basics of enticing water tank design and the related components are broadly calculated in this document. The next few documents will demonstrate the design of Intze tank members like column, bracing and foundation. Keep following the updates.....
The document provides calculations for the dead load, live load, and ultimate load on several beams (H'45, GJ'5, FC'5) in a building. It calculates the load contributions from slabs, walls, and the beam self-weight, then applies load factors to determine the ultimate load. It also calculates the reaction forces and draws the shear force and bending moment diagrams for each beam.
This document contains the structural design proposal and individual calculations for a reinforced concrete building project by 6 students. It includes:
1) A table of contents and list of students and their student IDs working on the project.
2) The structural proposal section containing foundation plan, beams and columns for ground and first floor, and roof proposal.
3) The individual calculations section containing each student's calculations for beams and columns to support the structural design.
4) An appendix section at the end. The document provides details of the building location, land area, and completion date in the introduction.
The document contains laboratory test results and calculations to determine the bearing capacity of soil. It includes soil properties like cohesion, internal friction angle, unit weight measured in the lab and field. It then shows calculations for ultimate bearing capacity and allowable bearing capacity of square foundations using Terzaghi's method for various depths and widths. The results are presented in tables with recommended allowable values between 1-2 kg/cm2 depending on the foundation size.
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The document presents the structural analysis of a bungalow conducted by three students. It includes architectural plans, quantities of dead and live loads, structural plans, load distribution diagrams, tributary area diagrams, and individual analyses of structural components by each student. Student 1 analyzes beams and columns on the ground floor. Student 2 analyzes a beam spanning from the ground floor to the first floor. Student 3 analyzes point loads applied to beams. Calculations are shown for load quantities, load diagrams, and ultimate loads on structural elements.
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Taylor's University Lakeside Campus
School of Architecture, Building & Design
Bachelor of Science (Hons) in Architecture
Building Structures (ARC 2523 / BLD 60103)
Project 2: Structural Analysis of a Bungalow
. マ留 裡留略龍侶: Foundation Analysis and Design: Single Piles
Welcome to this comprehensive presentation on "Foundation Analysis and Design," focusing on Single PilesStatic Capacity, Lateral Loads, and Pile/Pole Buckling. This presentation will explore the fundamental concepts, equations, and practical considerations for designing and analyzing pile foundations.
We'll examine different pile types, their characteristics, load transfer mechanisms, and the complex interactions between piles and surrounding soil. Throughout this presentation, we'll highlight key equations and methodologies for calculating pile capacities under various conditions.
"Zen and the Art of Industrial Construction"
Once upon a time in Gujarat, Plinth and Roofs was working on a massive industrial shed project. Everything was going smoothlyblueprints were flawless, steel structures were rising, and even the cement was behaving. That is, until...
Meet Ramesh, the Stressed Engineer.
Ramesh was a perfectionist. He measured bolts with the precision of a Swiss watchmaker and treated every steel beam like his own child. But as the deadline approached, Rameshs stress levels skyrocketed.
One day, he called Parul, the total management & marketing mastermind.
Ramesh (panicking): "Parul maam! The roof isn't aligning by 0.2 degrees! This is a disaster!"
Parul (calmly): "Ramesh, have you tried... meditating?"
、 Ramesh: "Meditating? Maam, I have 500 workers on-site, and you want me to sit cross-legged and hum Om?"
Parul: "Exactly. Mystic of Seven can help!"
Reluctantly, Ramesh agreed to a 5-minute guided meditation session.
He closed his eyes.
鏝 He breathed deeply.
He chanted "Om Namah Roofaya" (his custom version of a mantra).
When he opened his eyes, a miracle happened!
ッ His mind was clear.
The roof magically aligned (okay, maybe the team just adjusted it while he was meditating).
And for the first time, Ramesh smiled instead of calculating load capacities in his head.
Lesson Learned: Sometimes, even in industrial construction, a little bit of mindfulness goes a long way.
From that day on, Plinth and Roofs introduced tea breaks with meditation sessions, and productivity skyrocketed!
Moral of the story: "When in doubt, breathe it out!"
#PlinthAndRoofs #MysticOfSeven #ZenConstruction #MindfulEngineering
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Welcome to the March 2025 issue of WIPAC Monthly the magazine brought to you by the LinkedIn Group WIPAC Monthly.
In this month's edition, on top of the month's news from the water industry we cover subjects from the intelligent use of wastewater networks, the use of machine learning in water quality as well as how, we as an industry, need to develop the skills base in developing areas such as Machine Learning and Artificial Intelligence.
Enjoy the latest edition
Best KNow Hydrogen Fuel Production in the World The cost in USD kwh for H2Daniel Donatelli
油
The cost in USD/kwh for H2
Daniel Donatelli
Secure Supplies Group
Index
Introduction - Page 3
The Need for Hydrogen Fueling - Page 5
Pure H2 Fueling Technology - Page 7
Blend Gas Fueling: A Transition Strategy - Page 10
Performance Metrics: H2 vs. Fossil Fuels - Page 12
Cost Analysis and Economic Viability - Page 15
Innovations Driving Leadership - Page 18
Laminar Flame Speed Adjustment
Heat Management Systems
The Donatelli Cycle
Non-Carnot Cycle Applications
Case Studies and Real-World Applications - Page 22
Conclusion: Secure Supplies Leadership in Hydrogen Fueling - Page 27
2. Example : Checking of Pier suitable for 18.3 metre
span plate girder for MBG loading.
Data :
i) Super structure - Plate girder
ii) Span & weight including
track
- 18.3 metre
29.87 t
iii) Over all length of girder - 19.65 m
iv) Depth of girder - 1930 mm
v) Type of bearing - Sliding bearing
vi) Distance between centre of
bearing & centre of pier
- 0.2 m
vii) Height of bearing - 50 mm
3. viii) Material of const. - M-10 concrete
ix) Unit wt. of mass concrete - 2200 to 2400 kg/m3
x) Loading standard - MBG 1987
xi) Angle of internal friction &
wt. of soil
- 35, 1760 kg/m3
xii) Track structure on
approach
- 60 kg rail resting on
PSC sleeper
xiii) Seismic zone - Zone ( V)
5. CHECKING OF PIER SPAN 18.3m
FOR MBG LOADING - 1987
AREA AT THE TOP :
= 3.66 x 1.5 +(/4) x 1.52
= 7.257 m2
AREA AT 1m DEPTH FROM THE TOP :
= 3.66 x 1.537 + (/4) x 1.5372
= 7.481 m2
WIDTH OF SECTION AT 1.5m DEPTH = 1.5705m
AREA =3.66 x1.5705+ (/4) x 1.57052
= 7.685 m2
VOLUME OF BED BLOCK = 3.338 m3
WEIGHT OF BED BLOCK = 3.338 x 2.2 = 7.344 t
6. VOLUME OF PIER BETWEEN BED BLOCK
AND 1m DEPTH
=(7.257+7.481) x 0.54 / 2
= 3.979 m3
VOLUME OF PIER BETWEEN 1m AND 1.5m
DEPTH
=(7.481+ 7.685) x 0.5 / 2
= 3.792 m3
AREA OF PIER AT 12m DEPTH :
= 2.282 x 3.66 + (/4) x 2.2822
= 12.442 m2
VOLUME OF PIER BETWEEN 1.5m AND 12m
DEPTH
= 3.894 + (12.442 + 7.891) x 10 / 2
= 105.559 m3
BUOYANCY EFFECT : 105.559t x 0.15 5.10.2 SSC
7. TOTAL WEIGHT OF PIER AT 12m DEPTH
INCLUDING BUOYANCY EFFECT :
= Bed Block +Pier below bed block upto 1.5m+
Wt between 1.5m to 12m depth including
buoyancy
= 3.338 x 2.2 + (3.979 + 3.792) x 2.4 + (105.559
x2.4) 105.559 x 0.15
= 263.502 t
To be checked for single span & double span
loading conditions
Clause 5.3 c
SSC
8. LIVE LOAD :
SINGLE SPAN LOADED CONDITION
LOADED LENGTH = 19.65
EUDL FOR S.F.
= (231.64 222.29) x 0.65 + 222.29
= 227.72 t
5.3 c SSC
Appendix XX
III
BR
REACTION = 227.72/2 = 113.86 t
DOUBLE SPAN LOADED CONDITION
EUDL FOR B.M.
L = 2 x 19.8 = 39.6 m
EUDL for BM =(376.63-360.53) x 1.6/2 + 360.53
= 373.41 t
5.3 c SSC
Appendix XX
III
BR
REACTION = 373.41 / 2 = 186.7 t
9. LONGITUDINAL FORCE
Single Span :
TE1
= 75.0 BF1
= 50.6 Appendix XX
IV
BR
With Dispersion and Distribution 2.8.3.2 BR
TE1
= ( 75 75 x 0.25) x 0.4 = 22.5 2.8.2.4.1 BR
BF1
= ( 50.6 16.0 ) x 0.4 = 13.84
For Seismic condition 50% L.F. 2.8.5 BR
TE1
=22.5 / 2 = 11.25 t
BF1
= 13.84 / 2 = 6.92 t
10. DOUBLE SPAN :
With Dispersion and Distribution
TE2
= 126.0 BF2
= 80 Appendix XX
IV
BR
TE2
= 126 x 0.75 x 0.4 = 37.8 t
BF2
= 80 x 0.75 x 0.4 = 24.0 t
For Seismic condition 50% L.F. 2.8.5 BR
TE2
= 37.8 / 2 = 18.9 t
BF2
= 24.0 / 2 = 12.0 t
11. FORCE DUE TO WATER CURRENT :
Water Current flowing parallel to pier
P = KAV2
= 35 x (1.5705 + 2.282) x 10.5 x 32
/ 2 x 1000
= 6.371 t
Clause
5.9.2.1
5.9.2.2 (Tabl
e 4)
SSC
Water Current flowing perpendicular to Pier
=35x(1.5705+2.282)+(3.66+2.282)x10.5x32
/2x5x1000
= 3.695 t
Clause 5.9.2.
4
SSC
Moment at the Base along X-X direction i.e.
perpendicular to Pier
= 6.371 x 10.5 x 2 / 3 = 44.597 t-m
12. WIND LOAD :
Projected area of Girder & track
= (1.930 + 0.172 + 0.152) 19.65
= 2.254 x 19.65 = 43.45 m2
Since spacing of girder is not exceeding full
depth Hence Factor = 0.25
2.11.3.1(a)
BR
Projected Area of Girder
= 1.25 x 43.45 = 54.3 m2
Lever Arm from C.G. to top of Bed Block
= 2.254 / 2 + 0.05 = 1.177
Projected Area of Train (PAT)
= ( 4.115 0.6) 19.67 = 69.14 m2
2.11.3.1(b)
Note 1
BR
Lever Arm from C.G. to Top of Bed Block
= 3.515 / 2 + 0.6 + 2.254 +0.05 = 4.641 m
13. SECTIONAL PROPERTIES AT 12m DEPTH
AREA = (/4) x 2.2822
+ 3.66 x 2.282
= 12.442 m2
Ixx = (1 / 12) x 3.66 x 2.2823
+ (/4) x 2.2824
= 4.956 m4
Iyy = (1 / 12) x 2.282x 3.66 3
+ 0.2196 x 1.1414
+ x 1.141 x (0.5x3.66+0.42x1.141)2
= 31.592 m4
14. SINGLE SPAN LOADED CONDITION :
D.L. OF GIRDER + TRACK = 29.87
L.L. REACTION = 108.98
Wt. OF PIER = 263.502
402.352 t
MOMENT ALONG X-X AXIS
DUE TO L.F. = 22.5(12+0.05) = 271.125
DUE TO WATER CURRENT = 25.865
DUE TO L.L. = 108.98 x 0.2 = 21.796
318.786 t-n
MOMENT ALONG Y-Y AXIS
DUE TO WATER CURRENT = 44.597 t-m
STRESSES :
= (402.352/12.442) (318.786/4.956)x(2.282/2)
(44.597/31.592)x(3.66/2)
= 32.338 73.393 2.583
Max = 108.314 t/m2
Min = - 43.639 t/m2
15. NORMAL LOAD + OCCASSIONAL LOAD (W.L.)
DL. OF GIRDER + TRACK = 29.870
LIVE LOAD REACTION = 108.98
Wt. OF PIER = 263.502
402.352
MOMENT ALONG X-X AXIS
DUE TO LF = 22.5 ( 12 + 0.05) = 271.125
DUE TO WATER CURRENT = 25.865
DUE TO LL = 21.796
318.786
MOMENT ALONG Y-Y AXIS
DUE TO WATER CURRENT = 44.597
DUE TO WIND ON GIRDER
54.3x(1.177+12) 0.15 = 107.327
DUE TO WIND ON TRAIN
69.1 / 2 (4.641=12) x 0.15 = 86.242
238.166
(on one span only)
16. STRESSES :
= (402.352/12.442) (318.786/4.956)x(2.282/2)
(238.166/31.592)x(3.66/2)
= 32.338 73.393 13.796
Max = 119.527 t/m2
Min = -54.945 t/m2
17. DOUBLE SPAN LOADED CONDITION :
DL OF GIRDER + TRACK = 29.87
LL REACTION = 176.79
Wt. OF PIER = 263.502
470.162 t
MOMENT ALONG X-X AXIS
DUE TO L.F. = 30.00(12+0.05) = 361.50
DUE TO WATER CURRENT = 25.865
387.36 t-m
MOMENT ALONG Y-Y AXIS
DUE TO WATER CURRENT = 44.597 t-m
STRESSES :
= (470.162/12.442) (387.36/4.956)x(2.282/2)
(44.597/31.592)x(3.66/2)
= 37.788 88.95 2.583
Max = 37.788+88.95+2.583 = 129.31 t/m2
Min = -53.75 t/m2
18. NORMAL + OCL (DOUBLE SPAN LOADED CONDITION)
DL OF GIRDER + TRACK = 29.870
LL REACTION = 176.790
Wt. OF PIER = 263.502
470.162 t
MOMENT ALONG X-X AXIS = 387.36 t-m
MOMENT ALONG Y-Y AXIS :
DUE TO WATER CURRENT = 44.597
DUE TO WIND ON TRAIN
69.1(4.641+12.0) = 172.484
DUE TO WIND OF GIRDER
54.3(1.177+12.0) = 107.327
324.408 t-m
STRESSES :
= (470.162/12.442) (387.36/4.956)x(2.282/2)
(324.408/31.592)x(3.66/2)
= 37.788 89.18 18.792
Max = 145.76 t/m2
Min = -70.18 t/m2
19. SEISMIC & HYDRODYNAMIC FORCE
When the Horizontal Seismic acting parallel to traffic
SEISMIC HORIZONTAL COEFFICIENT
h
= 硫 I
I = 1.0
硫 = 1.2
= 0.08
2.12.4.2 BR
2.12.4.4 BR
2.12.4.3 BR
(Table)
2.12.3.3 BR
h
= 1.2 x 0.08 x1 = 0.096
HYDRO DYNAMIC FORCES
F = Ce
h
Wex
Ce
= Co-efficient taken from table 5 based on H/R
H / R = 10.5 / (5.942 / 2) = 3.534
Ce = (0.735 0.675) x 0.534 + 0.675 = 0.707
20. F = 291.206 x 0.096 x 0.707 = 19.765 t
h = H
C 1
= H / h = 10.5 / 10.5 = 1.0
C 2
= 1.0 C 3
= 1.0 C 4
= 0.4286
LEVER ARM = C4
H = 0.428 x 10.5 = 4.494
MOMENT = 19.765 x 4.494 = 88.824 t-m
Wex
= (/4) x 5.9422
x 10.5 x 1 = 291.206 t
21. SEISMIC FORCE IN HORIZONTAL DIRECTION
S.
No
.
DESCRIPTION MASS
h
SEISMI
C
FORCE
LEVE
R ARM
MOMENT
ABOUT
X-X
1 GIRDER +
TRACK
29.87 0.096 2.8675 13.177 37.79
2 BED BLOCK 7.344 0.096 0.705 11.77 8.298
3 Wt. OF PIER
BELOW BED
BLOCK
271.992
without
Bouancy
5.12.2(a)
SSC
0.096 26.111 5.77 150.662
196.752
L.L ignored in case of parallel to traffic 2.12.6 BR
22. SEISMIC FORCE IN VERTICAL DIRECTION
S.
No.
DESCRIPTION MASS
v
SEISMIC
FORCE
1 GIRDER + TRACK 29.87 0.096/2 1.434
2 BED BLOCK 7.344 0.096/2 0.352
3 Wt. OF PIER BELOW
BED BLOCK
271.992 0.096/2 13.056
4 LIVE LOAD ( SS ) 108.98 0.096/2 5.231
20.073
5 LIVE LOAD ( DS ) 176.79 0.096/2 8.486
23. When the Horizontal Seismic acting perpendicular to traffic
HYDRO DYNAMIC FORCES
F = Ce h Wex
H / R = 10.5 / (2.282 / 2) = 9.202
Ce = 0.730
Wex
= (/4) x 2.2822
x 10.5 x 1 = 42.945
F = 42.945 x 0.096 x 0.730 = 3.03 t
LEVER ARM = 0.428 x 10.5 = 4.494
MOMENT = 3.03 x 4.494 = 13.618 t-m
24. HORIZONTAL SEISMIC FORCE
S.
No
.
DESCRIPTION MASS
h
SEISMI
C
FORCE
LEVE
R ARM
MOMEN
T
ABOUT
X-X
1 GIRDER +
TRACK
29.87 0.09
6
2.868 13.177 37.792
2 BED BLOCK 7.344 0.09
6
0.705 11.77 8.298
3 Wt. OF PIER
BELOW BED
BLOCK
271.99
2
0.09
6
26.11 5.77 150.662
50% LIVE LOAD
( S.S.)
2.12.6 BR
108.98/
2
0.09
6
5.231 16.641 87.049
283.801
50% LIVE LOAD
( D.S.)
176.79/
2
0.09
6
8.486 16.641 141.24
337.992
25. VERTICAL EFFECT OF SEISMIC FORCE
S.
No
.
DESCRIPTION MASS
h
SEISMIC
FORCE
1 GIRDER + TRACK 29.87 0.048 1.434
2 BED BLOCK 7.344 0.048 0.352
3 Wt. OF PIER
BELOW BED
BLOCK
271.992 0.048 13.056
4 LIVE LOAD( S.S.) 108.98 0.048 5.231
20.073
D.S. LIVE LOADED
CONDITION LIVE
LOAD
176.79 0.048 8.486
23.328
26. STRESS CALCULATIONS :
SINGLE SPAN When the Seismic Force acting parallel to Traffic
DL OF GIRDER + TRACK = 29.870
LL REACTION = 108.98
Wt. OF PIER = 263.502
LESS SEISMIC FORCE = - 20.073
382.279 t
MOMENT ABOUT X-X AXIS
DUE TO 50% L.F. = ( 22.5 x 0.5) x 12.05 = 135.563 t-m
DUE TO WATER CURRENT = 25.865 t-m
DUE TO L.L. = 21.796 t-m
DUE TO SEISMIC FORCE = 196.752
DUE TO HYDRODYNAMIC FORCE = 088.824
468.800 t-m
MOMENT ABOUT Y-Y AXIS
DUE TO WATER CURRENT = 44.597 t-m
27. STRESSES
= (382.279/12.442) (468.80/4.956)x(2.282/2)
(44.597/31.592)x(3.66/2)
= 30.725 107.93 2.583
Max. = 30.725 + 107.93 + 2.583
= 141.238 t/m2
Max. Stress shall be 144.5 t/m2
if vertical component of seismic
force is taken downwards.
Min. = 30.725 - 107.93 2.583
= ( -) 79.788 t/m2
28. When the Seismic Force acting parallel to Traffic :
DL OF GIRDER + TRACK = 29.870
LL REACTION = 108.98
Wt. OF PIER = 263.502
LESS SEISMIC FORCE = - 20.073
382.279 t
MOMENT ABOUT X-X AXIS
DUE TO 50% L.F. = ( 22.5 x 0.5) x 12.05 = 135.563 t-m
DUE TO WATER CURRENT = 25.865 t-m
DUE TO L.L. = 21.796 t-m
183.224 t-m
MOMENT ABOUT Y-Y AXIS
DUE TO WATER CURRENT = 44.597 t-m
DUE TO SEISMIC FORCE = 283.801 t-m
DUE TO HYDRODYNAMIC FORCE = 13.618 t-m
TOTAL 342.016 t-m
30. DOUBLE SPAN :
When the Seismic Force acting parallel to traffic :
DL OF GIRDER + TRACK = 29.870
LL REACTION = 176.79
Wt. OF PIER = 263.502
LESS SEISMIC FORCE = - 23.328
446.834 t
MOMENT ABOUT X-X AXIS
DUE TO 50% L.F. = 15.00 x 12.05 = 180.75 t-m
DUE TO WATER CURRENT = 25.865 t-m
DUE TO SEISMIC FORCE = 196.752 t-m
DUE TO HYDRODYNAMIC FORCE = 88.824
492.191 t-m
MOMENT ABOUT Y-Y AXIS
DUE TO WATER CURRENT = 44.597 t-m
32. When the Seismic Force acting perpendicular to traffic :
DL OF GIRDER + TRACK = 29.870
LL REACTION = 176.79
Wt. OF PIER = 263.502
LESS SEISMIC FORCE = - 23.328
446.834 t
MOMENT ABOUT X-X AXIS
DUE TO 50% L.F. = 15.00 x 12.05 = 180.75 t-m
DUE TO WATER CURRENT = 25.865 t-m
1.t-m
MOMENT ABOUT Y-Y AXIS
DUE TO WATER CURRENT = 44.597 t-m
DUE TO SEISMIC FORCE = 337.992 t-m
DUE TO HYDRODYNAMIC FORCE = 13.614