Structural And Stress Analysis – Fourth Edition Free PDF

Structural And Stress Analysis – Fourth Edition Free PDF

By T.H.G. Megson

 

The purpose of this book is to provide, in a unified form, a text covering the associated topics of structural and stress analysis for students of civil engineering during the first two years of their degree course.

The book is also intended for students studying for Higher National Diplomas, Higher National Certificates, and related courses in civil engineering.

Frequently, textbooks on these topics concentrate on structural analysis or stress analysis, and often they are lectured as two separate courses. There is, however, a degree of overlap between the two subjects and, moreover, they are closely related.

In this book, therefore, they are presented in a unified form which illustrates their interdependence. This is particularly important at the first-year level where there is a tendency for students to ‘compartmentalize’ subjects so that an overall appreciation of the subject is lost.

Content :
  • 1. Introduction
  • 2. Principles of Statics
  • 3. Normal Force, Shear Force, Bending Moment, and Torsion
  • 4. Analysis of Pin-Jointed Trusses
  • 5. Cables
  • 6. Arches
  • 7. Stress and Strain
  • 8. Properties of Engineering Materials
  • 9. Bending of Beams
  • 10. Shear of Beams
  • 11. Torsion of Beams
  • 12. Composite Beams
  • 13. Deflection of Beams
  • 14. Complex Stress and Strain
  • 15. Virtual Work and Energy Methods
  • 16. Analysis of Statically Indeterminate Structures
  • 17. Matrix Methods of Analysis
  • 18. Plastic Analysis of Beams and Frames
  • 19. Yield Line Analysis of Slabs
  • 20. Influence Lines
  • 21. Structural Instability

 

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Tall Buildings Structural Design Of Concrete Buildings Up to 300m tall

Tall Buildings Structural Design Of Concrete Buildings Up to 300m tall

 

Tall buildings are now a common feature on the skyline of many cities throughout the world with concrete as
the predominant building material used in their construction.

Concrete provides a strong, durable, economic and versatile material which can be engineered to respond to demands placed on it when used in the foundations, columns, walls and floors of tall buildings.

The design and detailing of tall buildings requires detailed knowledge, experience and expertise to properly understand their behaviour.

Guidance on the design of tall buildings is provided in many of the national codes and standards however as the clients, architects and engineers push the boundaries of what is possible our understanding of the structural behaviour is constantly being updated.

 

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Sky High Living: Contemporary High-rise Apartment

Sky High Living: Contemporary High-rise Apartment

 

Sky High Living explores a range of a number of the foremost sensational residential tall buildings from round the world, preponderantly from North America and Asia.

The book is compiled by Georges Binder, building and information knowledgeable on high-rise style.

The publication options the firm’s style for Cityfront Center Plaza, a modern, 65-story edifice and residential high-rise planned on the Chicago stream.

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Structural Analysis and Design of Tall Buildings

Structural Analysis and Design of Tall Buildings

 

Bridging the gap between the conceptual approach and computer analysis,

Structural Analysis and Design of Tall Buildings:

Steel and Composite Construction integrates the design aspects of steel and composite buildings in one volume.

 

Using conceptual thinking and basic strength of material concepts as foundations, the book shows engineers how to use imperfect information to estimate the answer to larger and more complex design problems by breaking them down into more manageable pieces.

Written by an accomplished structural engineer, this book discusses the behavior and design of lateral load-resisting systems; the gravity design of steel and composite floors and columns; and methods for determining wind loads.

It also examines the behavior and design of buildings subject to inelastic cyclic deformation during large earthquakes—with an emphasis on visual and descriptive analysis – as well as the anatomy of seismic provisions and the rehabilitation of seismically vulnerable steel buildings.

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Structural Elements for Architects and Builders Jonathan Ochshorn

Structural Elements for Architects and Builders

Jonathan Ochshorn

Asis well known, architects and builders rarely design the structural elements and systems within their buildings, instead engaging the services of (and, it is to be hoped, collaborating with) structural engineers, or relying upon standard practices sanctioned by building codes. Where architects or builders wish to be adventurous with their structures, some knowledge of structural behavior and the potential of structural materials is certainly useful. On the other hand, where they are content to employ generic structural systems — platform framing in wood, simple skeletal frames in steel or reinforced concrete — one can get by with little actual knowledge of structural design, relying instead on the expertise of structural consultants and the knowledge of common spans, heights, and cross-sectional dimensions around which many ordinary buildings can be planned.

The heroic stage of modernism, in which architects often sought to reconcile structural behavior and overall building form — some finding inspiration in the structural frame or the load-bearing wall — was also the heroic stage of structural education for architects: it was hardly necessary, in that context, to explain why architects needed to learn about structures. Some of the same excitement about the potential of structure in architecture still remains, but it is also true that a “ mannerist ” tendency has emerged, interested not necessarily in renouncing the role of structure inarchitecture, but rather reveling in its potential to distort, twist, fragment, and otherwise subvert modernist conventions and the architectural forms they support.

Yet all structures, whether hidden from view or boldly expressed, follow the same laws of equilibrium, are exposed to the same types of forces and are constrained by the same material properties and manufacturing practices. It is, therefore, appropriate for architects and builders to study structures in such a way that the basic principles underlying all structural form become clear. This can be accomplished in three phases: (1) by studying the concepts of statics and strength of materials, (2) by learning how these concepts are applied to the design of common structural elements fabricated from real materials, and (3) by gaining insight into the design of structural systems comprised of structural elements interconnected in a coherent pattern.

Much of the material presented in this text can be found elsewhere; the basic conditions of equilibrium, historical insights into structural behavior that form the basis for structural design, and recommendations for design procedures incorporated into building codes are all widely disseminated through industry-published manuals, government-sanctioned codes, and academic texts. Many excellent structures texts have been written specifically for architects and builders.

Content :
  • CHAPTER 1 Statics
  • CHAPTER 2 Loads
  • CHAPTER 3 Material properties
  • CHAPTER 4 Sectional properties
  • CHAPTER 5 Design approaches
  • CHAPTER 6 Tension elements
  • CHAPTER 7 Columns
  • CHAPTER 8 Beams
  • CHAPTER 9 Connections

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Building Materials, Third Edition

Building Materials, Third Edition – S. K. Duggal

The book is considerably modified version of the 2000 edition. In third edition of the book
extensive revisions have been made. New materials have been introduced due to the advances
in the technology and progress in industry. The information presented includes characteristics
of the materials in regards to their physical and mechanical properties with emphasis on their
strength and durability qualities. The material presented can be supplemented by the information
from I.S. Codes and various product manufacturers.

This edition embodies material changes in the chapters dealing with Cement, Concrete,
Lime and many others. Testing procedures of the materials have been updated for most of the
materials as some of the codes have been revised. Especially, in chapter 3 on Rocks and Stones
the section on testing of Stones has been completely rewritten.

Chapter 8 on Lime has been completely rewritten to make it more reader friendly. Logical
changes in chapter 5 on Cement, chapter 10 on Concrete and chapter 20 on Special Cements
and Cement Concretes have been made. Admixtures for concrete have been placed in chapter
10 and section on Pointing has been removed from chapter 12 on Building Mortars. Many
newer and upcoming more important concretes such as Self compacting Concrete, Bacterial
Concrete have been introduced in chapter 20 on special Cements and Cement Concrete.

Numerous revision of data and substitutions in description have been made not only in these
chapters but in other chapters also. Smart materials and composite materials have been
introduced in chapter 21 on Miscellaneous Materials.
The author will be grateful to the readers for their comments and suggestions for further
improvement of the book.

Building materials have an important role to play in this modern age of technology. Although
their most important use is in construction activities, no field of engineering is conceivable
without their use. Also, the building materials industry is an important contributor in our
national economy as its output governs both the rate and the quality of construction work.
There are certain general factors which affect the choice of materials for a particular scheme.
Perhaps the most important of these is the climatic background.

Obviously, different materials
and forms of construction have developed in different parts of the world as a result of climatic
differences. Another factor is the economic aspect of the choice of materials. The rapid advance
of constructional methods, the increasing introduction of mechanical tools and plants, and
changes in the organisation of the building industry may appreciably influence the choice of
materials.

Content :
  • Principal Properties of Building Materials
  • Structural Clay Products
  • Rocks and Stones
  • Wood and Wood Products
  • Materials for Making Concrete-I Cement
  • Materials for Making Concrete-II Aggregates
  • Materials for Making Concrete-III Water
  • Materials for Making Concrete-IV Lime
  • Puzzolanas
  • Concrete
  • Concrete Mix Design
  • Building Mortars
  • Ferrous Metals
  • Non-Ferrous Metals
  • Ceramic Materials
  • Polymeric Materials
  • Paints, Enamels and Varnishes
  • Tar, Bitumen and Asphalt
  • Special Cements and Cement Concretes

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Parking Structures: Recommended Practice for Design and Construction

Parking Structures: Recommended Practice for Design and Construction

 

Parking structures have become important elements in today’s urban and suburban environments. Owners have realized that parking services represent the first and last impression a visitor receives of the facility, and that can be a pivotal factor when consumers decide where to do business. Even more, owners and designers both are acknowledging that parking structures must be designed specifically for the types of visitors that structure will serve, based on the  acilities they support and the flow of daily traffic.

The need to create a parking structure that precisely fits the needs of the users can-not be stressed enough. Unless the facility is user-friendly, projecting a safe, secure, and easy to use environment, parkers will find other options. These needs have become too vital to their peace of mind to be left unmet by the owner and designer.

As a result, creating the best parking structure for the site, users, and budget requires a careful balance of all elements and a logical plan from start to finish. From the initial conception basics are decided until the parking structure opens, a host of choices must be made that will affect the final design and cost of the project—which ultimately will impact its value to the customer.

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Fundamentals of Structural Analysis Fifth Edition 2018

Fundamentals of Structural Analysis Fifth Edition 2018

Kenneth M. Leet
Professor Emeritus, Northeastern University
Chia-Ming Uang
Professor, University of California, San Diego
Joel T. Lanning
Assistant Professor, California State University, Fullerton
Anne M. Gilbert, PE, SECB
Structural Engineer Consultant

This text introduces engineering and architectural students to the basic
techniques required for analyzing the majority of structures and the elements of which most structures are composed, including beams, frames, trusses, arches, and cables. Although the authors assume that readers have completed basic courses in statics and strength of materials, we briefly review the basic techniques from these courses the first time we mention them. To clarify the discussion, we use many carefully chosen examples to illustrate the various analytic techniques introduced, and whenever possible, we select examples confronting engineers in real-life professional practice

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Examples in Structural Analysis Second Edition

Examples in Structural Analysis Second Edition

The design of structures, of which analysis is an integral part, is frequently undertaken
using computer software. This can only be done safely and effectively if those undertaking
the design fully understand the concepts, principles and assumptions on which the
computer software is based. It is vitally important therefore that design engineers develop
this knowledge and understanding by studying and using hand-methods of analysis based
on the same concepts and principles, e.g. equilibrium, energy theorems, elastic,
elasto-plastic and plastic behaviour and mathematical modelling.
In addition to providing a mechanism for developing knowledge and understanding,
hand-methods also provide a useful tool for readily obtaining approximate solutions during
preliminary design and an independent check on the answers obtained from computer
analyses.

The methods explained and illustrated in this text, whilst not exhaustive, include those
most widely used in typical design offices, e.g. method-of-sections/joint resolution/unit
load/McCaulay’s method/moment distribution/plastic analysis etc.
In Chapter 7 a résumé is given of the direct stiffness method; the technique used in
developing most computer software analysis packages. The examples and problems in this
case have been restricted and used to illustrate the processes undertaken when using
matrix analysis; this is not regarded as a hand-method of analysis.
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345 Solved Seismic Design Problems preference

345 Solved Seismic Design Problems preference

 

This book introduces you to the seismic exam and tells you how to use 345 Solved Seismic Design Problem. It also explains how to relate this book to reference materials, such as the California Building Code, Seismic Design of Building Structure, and others. Using this book as a study guide, you will be surprised to discover how effectively you can learn seismic principles and fundamental earthquake engineering of structure to successfully pass the special seismic exam.
This book gives you the opportunity to work problems of the same format and difficulty as those on the seismic portion of the California Special Civil Engineer exam. Every problem is fully solved.
Content:
Seismology principles, Earthquake Characteristics, and basiic structural dynamics.
Codes and regulatory provisions
Diaphragm theory
Details of structure
Design problems
A. useful conversion factors
B. reference and suggested reading

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