Author: W. J. Stronge | Size: 10.00 MB | Format:PDF | Publisher: Cambridge University Press | Year: March 25, 2004 | pages: 304 | ISBN: 0521602890, 9780521602891
Impact mechanics is concerned with the reaction forces that develop during a collision and the dynamic response of structures to these reaction forces. The subject has a wide range of engineering applications, from designing sports equipment to improving the crashworthiness of automobiles. This book develops several different methodologies for analysing collisions between structures. These range from rigid body theory for structures that are stiff and compact, to vibration and wave analyses for flexible structures. The emphasis is on low-speed impact where damage is local to the small region of contact between the colliding bodies. The analytical methods presented give results that are more robust or less sensitive to initial conditions than have been achieved hitherto. As a text, Impact Mechanics builds upon foundation courses in dynamics and strength of materials. It includes numerous industrially relevant examples and end-of-chapter homework problems drawn from industry and sports. Practising engineers will also find the methods presented in this book useful in calculating the response of a mechanical system to impact.
Review:
'A delightful book, it is clear and beautifully prepared in a stimulating manner, which will encourage frequent reference and further reading in the several references provided. Practising engineers will also find the methods presented in this book very useful in calculating the response of mechanical systems to impact.' Current Engineering Practice
'... the book is unsurpassed in the masterly cogent treatment of intricate problems. We may paraphrase the words of the Spanish poet Garcia Lorca, when we predict that a considerable period will elapse before a book of comparable excellence will be published on impact theory.' Piero Villaggio, Zentralblatt für Mathematik
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Not mine upload. The book is paginated, not-bookmarked, without cover image and not searchable. Links checked and alive on Oct/13/2011. Password is useful only for the mirror links
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Product Description
Impact mechanics is concerned with the reaction forces that develop during a collision and the dynamic response of structures to these reaction forces. The subject has a wide range of engineering applications, from designing sports equipment to improving the crashworthiness of automobiles. This book develops several different methodologies for analysing collisions between structures. These range from rigid body theory for structures that are stiff and compact, to vibration and wave analyses for flexible structures. The emphasis is on low-speed impact where damage is local to the small region of contact between the colliding bodies. The analytical methods presented give results that are more robust or less sensitive to initial conditions than have been achieved hitherto. As a text, Impact Mechanics builds upon foundation courses in dynamics and strength of materials. It includes numerous industrially relevant examples and end-of-chapter homework problems drawn from industry and sports. Practising engineers will also find the methods presented in this book useful in calculating the response of a mechanical system to impact.
Review:
'A delightful book, it is clear and beautifully prepared in a stimulating manner, which will encourage frequent reference and further reading in the several references provided. Practising engineers will also find the methods presented in this book very useful in calculating the response of mechanical systems to impact.' Current Engineering Practice
'... the book is unsurpassed in the masterly cogent treatment of intricate problems. We may paraphrase the words of the Spanish poet Garcia Lorca, when we predict that a considerable period will elapse before a book of comparable excellence will be published on impact theory.' Piero Villaggio, Zentralblatt für Mathematik
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Not mine upload. The book is paginated, bookmarked, covered and searchable. Links checked and alive on Oct/13/2011. Password is useful only for the mirror links
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This great book has been revised, in line with the latest Australian codes. For more details continue reading below.
If anyone has a copy, please share:
Design of Portal Frame Buildings, 4th Edition S. T. Woolcock, S. Kitipornchai, M. A. Bradford, G. A. Haddad
This book presents limit states design procedures for the design of portal frame buildings based on Australian standards.
Portal framed steel clad structures are the most common type of industrial buildings.
They find extensive use as industrial factory and warehouse structures, and as indoor sporting venues.
The major components of a portal frame building are a series of parallel portal shaped frames as the major framing elements.
Each frame is rigid, and resists horizontal wind forces and gravity loads in the plane of the frame by flexural action.
The new 4th edition has been almost completely rewritten to account for changes in the loading codes particularly the new wind code, the availability of new purlin and girt sections and ASI’s publication of new connection manuals.
New design capacity tables for horizontal SHS struts up to 400x16 Grade 450 SHS are included and design capacity tables for crane runway beams and monorails have been updated and expanded.
The information and design guidance on monorail cranes has been significantly expanded and design examples added.
A method of dealing with elongated local pressure patches is presented including patches with the new local pressure factor of 3.0.
There has also been the opportunity to correct previous errors and to generally refine and update the previous edition.
The book should prove of great assistance to practising engineers as well as students.
Discusses the boundary element method applied to three-dimensional anisotropic elasticity and includes examples to show the versatility of BEM. Beginning with a fundamental theory of elastostatics, this title covers approaches such as the dual reciprocity method and numerical integration.
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1.1.About the Product
CALCULUS I WITH PRECALCULUS, developed for one-year courses, is ideal for instructors who wish to successfully bring students up to speed algebraically within precalculus and transition them into calculus. The Larson Calculus program has a long history of innovation in the calculus market. It has been widely praised by a generation of students and professors for its solid and effective pedagogy that addresses the needs of a broad range of teaching and learning styles and environments. Each title is just one component in a comprehensive calculus course program that carefully integrates and coordinates print, media, and technology products for successful teaching and learning. Two primary objectives guided the authors in writing this book: to develop precise, readable materials for students that clearly define and demonstrate concepts and rules of calculus and to design comprehensive teaching resources for instructors that employ proven pedagogical techniques and saves the instructor time.
1.2.Features
The explanations, theorems, and definitions have been thoroughly and critically reviewed. Exercise sets have been carefully and extensively examined to ensure they cover calculus and precalculus topics appropriately.
Questions involving skills, writing, critical thinking, problem-solving, applications, and real-data applications are included throughout the text. Exercises are presented in a variety of question formats, including matching, free response, true/false, modeling, and fill-in the blank.
To address the changing needs of today's instructors and students and recognizing that the calculus course is presented in a variety of teaching and learning environments, the program resources are available in print and online formats.
1.3.About the Author
Ron Larson
Ron Larson received his Ph.D. in mathematics from the University of Colorado and has been a professor of mathematics at The Pennsylvania State University since 1970. He has pioneered the use of multimedia to enhance the learning of mathematics, having authored over 30 software titles since 1990. Dr. Larson has also conducted numerous seminars and in-service workshops for math teachers around the country about using computer technology as a teaching tool and motivational aid. His INTERACTIVE CALCULUS (a complete text on CD-ROM) received the 1996 Texty Award for the most innovative mathematics instructional material at the college level, and was the first mainstream college textbook to be offered on the Internet.
1.4. Previous Editions
2006
2002
2.Table of Contents
P. PREREQUISITES.
Solving Equations. Solving Inequalities. Graphical Representation of Data. Graphs of Equations. Linear Equations in Two Variables. 1. FUNCTIONS AND THEIR GRAPHS.
Functions. Analyzing Graphs of Functions. Transformations of Functions. Combinations of Functions: Composite Functions. Inverse Functions. Mathematical Modeling and Variation. 2. POLYNOMIAL AND RATIONAL FUNCTIONS.
Quadratic Functions and Models. Polynomial Functions of Higher Degree. Polynomial and Synthetic Division. Complex Numbers. The Fundamental Theorem of Algebra. Rational Functions. 3. LIMITS AND THEIR PROPERTIES.
A Preview of Calculus. Finding Limits Graphically and Numerically. Evaluating Limits Analytically. Continuity and One-Sided Limits. Infinite Limits. 4. DIFFERENTIATION
The Derivative and the Tangent Line Problem. Basic Differentiation Rules and Rates of Change. Product and Quotient Rules and Higher-Order Derivatives. The Chain Rule. Implicit Differentiation. Related Rates. 5. APPLICATIONS OF DIFFERENTIATION.
Extrema on an Interval. Rolle's Theorem and the Mean Value Theorem. Increasing and Decreasing Functions and the First Derivative Test. Concavity and the Second Derivative Test. Limits at Infinity. A Summary of Curve Sketching. Optimization Problems. Differentials. 6. INTEGRATION.
Antiderivatives and Indefinite Integration. Area. Riemann Sums and Definite Integrals. The Fundamental Theorem of Calculus. Integration by Substitution. Applications of Integration. 7. EXPONENTIAL AND LOGARITHMIC FUNCTIONS.
Exponential Functions and Their Graphs. Logarithmic Functions and Their Graphs. Using Properties of Logarithms. Exponential and Logarithmic Equations. Exponential and Logarithmic Models. 8. EXPONENTIAL AND LOGARITHMIC FUNCTIONS AND CALCULUS.
Exponential Functions: Differentiation and Integration. Logarithmic Functions and Differentiation. Logarithmic Functions and Integration. Differential Equations: Growth and Decay. 9. TRIGONOMETRIC FUNCTIONS.
Radian and Degree Measure. Trigonometric Functions: The Unit Circle. Right Triangle Trigonometry. Trigonometric Functions of Any Angle. Graphs of Sine and Cosine Functions. Graphs of Other Trigonometric Functions. Inverse Trigonometric Functions. Applications and Models. 10. ANALYTIC TRIGONOMETRY.
Using Fundamental Identities. Verifying Trigonometric Identities. Solving Trigonometric Equations. Sum and Difference Formulas. Multiple-Angle and Product-Sum Formulas. 11. TRIGONOMETRIC FUNCTIONS AND CALCULUS.
Limits of Trigonometric Functions. Trigonometric Functions: Differentiation. Trigonometric Functions: Integration. Inverse Trigonometric Functions: Differentiation. Inverse Trigonometric Functions: Integration. Hyperbolic Functions. 12. TOPICS IN ANALYTIC GEOMETRY.
Introduction to Conics: Parabolas. Ellipses and Implicit Differentiation. Hyperbolas and Implicit Differentiation. Parametric Equations and Calculus. Polar Coordinates and Calculus. Graphs of Polar Coordinates. Polar Equations of Conics. 13. ADDITIONAL TOPICS IN TRIGONOMETRY.
Law of Sines. Law of Cosines. Vectors in the Plane. Vectors and Dot Products. Trigonometric Form of a Complex Number.
3.New to this Edition
Table of Contents Update: Chapter 14 has been omitted.
NEW! Chapter Summary gives a concise review of key terms and concepts covered in each chapter.
NEW! Chapter Tests have been added to each chapter and are one page assessments of problems covering key topics.
NEW! Explorations, an optional discovery feature, help students develop intuitive understanding of calculus concepts. These can be deleted without loss of continuity.
UPDATED! Appropriate exercises will be labeled as Writing About the Concepts.
NEW! CalcChat.com reference has been added to text exercise sets.
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The combined finite discrete element method is a relatively new computational tool aimed at problems involving static and / or dynamic behaviour of systems involving a large number of solid deformable bodies. Such problems include fragmentation using explosives (e.g rock blasting), impacts, demolition (collapsing buildings), blast loads, digging and loading processes, and powder technology.
The combined finite-discrete element method - a natural extension of both discrete and finite element methods - allows researchers to model problems involving the deformability of either one solid body, a large number of bodies, or a solid body which fragments (e.g. in rock blasting applications a more or less intact rock mass is transformed into a pile of solid rock fragments of different sizes, which interact with each other). The topic is gaining in importance, and is at the forefront of some of the current efforts in computational modeling of the failure of solids.
* Accompanying source codes plus input and output files available on the Internet
* Important applications such as mining engineering, rock blasting and petroleum engineering
* Includes practical examples of applications areas
Essential reading for postgraduates, researchers and software engineers working in civil and mechanical engineering.
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Author: Arul M. Britto, Michael John Gunn | Size: ~15 MB | Format:PDF | Publisher: John Wiely & Sons | Year: 1987 | pages: 244 | ISBN: 9780853129370
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Engineers have to predict the behaviour of various materials when they are loaded by mechanical forces. Geotechnical engineers are no different to other engineers in this respect : they have to predict the behaviour of soil whereas other engineers deal with steel, concrete, wood, plastics or fluids. In describing the behaviour of materials, engineers use a number of conceptual 'models' which are simplifications of real behaviour. Examples of these models include linear elastic solids, perfectly plastic solids and viscous fluids. If we compare the behaviour of each engineering material with the appropriate conceptual model, then we will always find some differences in detail. However, the important point is that the conceptual model is often sufficiently accurate for the purposes of engineering analysis and design. Associated with each of the examples listed above there is a collection of standard solutions to commonly occurring problems to which the engineer can refer (i.e. the theories of elasticity, plasticity and fluid mechanics) .
Soil behaviour conforms less to the models of material behaviour that we have mentioned so far than do most engineering materials. This is because soil is a two-phase material consisting of solid particles and wa ter. Its response to being loaded is inheren tly more complex than the response of steel or concrete, for example. Another complicating factor arises because the distribution of soil properties in a typical deposit (such as stiffness and strength) is non-uniform. In particular, soil properties always vary with the depth below the ground surface and this will usually have to be taken into account in engineering design.
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Proceedings of the IABSE-IASS SYMPOSIUM "Taller, Longer, Lighter"
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