LEADER 00000cam a2200649Mi 4500 
001    ocn938434735 
003    OCoLC 
005    20211008041809.0 
006    m     o  d         
007    cr ||||||||||| 
008    140722s2015    enk     o     001 0 eng d 
019    957737395|a958083969|a1117869556|a1166991661 
020    9781316156438|q(electronic book) 
020    1316156435|q(electronic book) 
020    9781316691908|q(electronic book) 
020    131669190X|q(electronic book) 
020    1107096766 
020    9781107096769 
020    |z9781107096769|q(hardback) 
035    (OCoLC)938434735|z(OCoLC)957737395|z(OCoLC)958083969
       |z(OCoLC)1117869556|z(OCoLC)1166991661 
040    UAB|beng|erda|epn|cUAB|dYDXCP|dOCLCO|dOCLCF|dOCLCQ|dN$T
       |dIDEBK|dOCLCQ|dEBLCP|dYDX|dDEBBG|dIDB|dNRC|dOCLCQ|dLEAUB
       |dUKAHL|dOCLCQ|dLVT|dOCLCQ|dLUN|dOCLCQ|dK6U|dOCLCO 
049    RIDW 
050  4 TA409|b.M336 2015 
072  7 TEC|x009000|2bisacsh 
072  7 TEC|x035000|2bisacsh 
082 04 620.1/126|223 
090    TA409|b.M336 2015 
100 1  Maiti, Surjya Kumar,|0https://id.loc.gov/authorities/names
       /n2015013424|eauthor. 
245 10 Fracture Mechanics :|bFundamentals and Applications /
       |cSurjya Kumar Maiti. 
264  1 Cambridge :|bCambridge University Press,|c2015. 
300    1 online resource (295 pages) 
336    text|btxt|2rdacontent 
337    computer|bc|2rdamedia 
338    online resource|bcr|2rdacarrier 
347    text file|2rdaft 
500    Title from publisher's bibliographic system (viewed on 09 
       Feb 2016). 
505 0  Cover; Fracture Mechanics; Title; Copyright; Dedication; 
       Contents; List of Figures; List of Tables; Preface; 1 
       Introduction; 1.1 Introduction; 1.2 Linear Elastic 
       Fracture Mechanics; 1.3 Elastic Plastic or Yielding 
       Fracture Mechanics; 1.4 Mixed Mode Fracture; 1.5 Fatigue 
       Crack Growth; 1.6 Computational Fracture Mechanics; 1.7 
       Scope of the Book; References; 2 Linear Elastic Fracture 
       Mechanics; 2.1 Introduction; 2.2 Calculation of 
       Theoretical Strength; 2.3 Griffth's Explanation Based on 
       Stress Concentration; 2.4 Griffth's Theory of Brittle 
       Fracture; 2.4.1 Irwin-Orowan Modifcation. 
505 8  2.5 Stress Intensity Factor (SIF) Approach2.5.1 
       Relationship between G and K; 2.6 Concepts of Strain 
       Energy and Potential Energy Release Rates; 2.6.1 Crack 
       Extension Under Load Control (Soft Loading); 2.6.2 Crack 
       Extension Under Displacement Control (Hard Loading); 2.7 
       Irwin Plastic Zone Size Correction; 2.8 Dugdale-Barenblatt
       Model for Plastic Zone Size; 2.9 Crack-Tip Plastic Zone 
       Shape; 2.9.1 Mode I Plastic Zone; 2.9.2 Plane Strain 
       Constraint; 2.9.3 Mode II and Mode III Plastic Zones; 2.10
       Triaxiality at Crack Front; 2.11 Thickness Dependence of 
       Fracture Toughness Kc. 
505 8  2.12 Design ApplicationsAPPENDIX 2.1 Stress Intensity 
       Factors for Various Configurations; Exercise; References; 
       3 Determination of Crack-Tip Stress Field; 3.1 
       Introduction; 3.2 Airy Stress Function Approach; 3.3 
       Kolosoff-Muskhelishvili Potential Formulation; 3.4 
       Examples of Analytic and Stress Functions; 3.5 Westergaard
       Stress Function Approach; 3.5.1 Mode I Crack-Tip Field; 
       3.5.2 Mode II Crack-Tip Field; 3.6 Mode III Solution; 3.7 
       Williams' Eigenfunction Expansion for Mode I; 3.8 
       Williams' Eigenfunction Expansion for Mode II and Mixed 
       Mode; Exercise; References. 
505 8  4 Crack Opening Displacement, J Integral, and Resistance 
       Curve4.1 Introduction; 4.2 Crack Opening Displacement; 4.3
       Special Integrals; 4.4 Rice's Path-Independent Integral J;
       4.5 J As Potential Energy Release Rate; 4.6 Graphical 
       Representation of J for Non-linear Elastic Case; 4.7 
       Resistance Curve; 4.8 Stability of Crack Growth; Exercise;
       References; 5 Determination of Stress Intensity Factors; 
       5.1 Introduction; 5.2 Analytical Methods; 5.2.1 Boundary 
       Collocation Method; 5.2.2 Green's Function Approach; 5.2.3
       Method of Superposition; 5.2.4 Weight Function Method. 
505 8  5.3 Numerical Technique: Finite Element Method5.3.1 
       Displacement and Stress-Based Methods for Extraction of 
       SIFs; 5.3.2 Energy-based Methods for Determination of 
       SIFs; 5.4 FEM-Based Calculation of G Associated with 
       Kinking of Crack; 5.5 Other Numerical Methods; 5.6 
       Experimental Methods; 5.6.1 Strain Gauge Technique; 5.6.2 
       Photoelasticity; Exercise; References; 6 Mixed Mode 
       Brittle Fracture; 6.1 Introduction; 6.2 Theory based on 
       Potential Energy Release Rate; 6.3 Maximum Tangential 
       Stress Criterion; 6.4 Maximum Tangential Principal Stress 
       Criterion; 6.5 Strain Energy Density Criterion. 
520    Fracture mechanics studies the development and spreading 
       of cracks in materials. The study uses two techniques 
       including analytical and experimental solid mechanics. The
       former is used to determine the driving force on a crack 
       and the latter is used to measure material's resistance to
       fracture. The text begins with a detailed discussion of 
       fundamental concepts including linear elastic fracture 
       mechanics (LEFM), yielding fracture mechanics, mixed mode 
       fracture and computational aspects of linear elastic 
       fracture mechanics. It explains important topics including
       Griffith theory of brittle crack propagation and its Irwin
       and Orowan modification, calculation of theoretical 
       cohesive strength of materials through an atomic model and
       analytical determination of crack tip stress field. This 
       book covers MATLAB programs for calculating fatigue life 
       under variable amplitude cyclic loading. The experimental 
       measurements of fracture toughness parameters KIC, JIC and
       crack opening displacement (COD) are provided in the last 
       chapter. 
590    eBooks on EBSCOhost|bEBSCO eBook Subscription Academic 
       Collection - North America 
650  0 Fracture mechanics.|0https://id.loc.gov/authorities/
       subjects/sh85051154 
650  7 Fracture mechanics.|2fast|0https://id.worldcat.org/fast/
       933536 
650  7 TECHNOLOGY & ENGINEERING|xEngineering (General)|2bisacsh 
650  7 TECHNOLOGY & ENGINEERING|xReference.|2bisacsh 
655  0 Electronic books. 
655  4 Electronic books. 
776 08 |iErscheint auch als:|nDruck-Ausgabe|aMaiti, Surjya Kumar.
       Fracture Mechanics .|tFundamentals and Applications 
856 40 |uhttps://rider.idm.oclc.org/login?url=https://
       search.ebscohost.com/login.aspx?direct=true&scope=site&
       db=nlebk&AN=1196930|zOnline ebook via EBSCO. Access 
       restricted to current Rider University students, faculty, 
       and staff. 
856 42 |3Instructions for reading/downloading the EBSCO version 
       of this ebook|uhttp://guides.rider.edu/ebooks/ebsco 
901    MARCIVE 20231220 
948    |d20211213|cEBSCO|tEBSCOebooksacademic NEW Oct-Nov 5018
       |lridw 
994    92|bRID