05318nam 2200661 a 450 991045160310332120200520144314.01-280-66972-19786613646651981-4374-06-7(CKB)2550000000101562(EBL)919060(OCoLC)794328361(SSID)ssj0000657955(PQKBManifestationID)12208402(PQKBTitleCode)TC0000657955(PQKBWorkID)10680906(PQKB)10664314(MiAaPQ)EBC919060(WSP)00002605(Au-PeEL)EBL919060(CaPaEBR)ebr10563545(CaONFJC)MIL364665(EXLCZ)99255000000010156220120611d2012 uy 0engur|n|---|||||txtccrPhysical basis of plasticity in solids[electronic resource] /Jean-Claude TolédanoSingapore World Scientific Pub. Co.20121 online resource (280 p.)Description based upon print version of record.981-4374-05-9 Includes bibliographical references and index.Contents; Preface; 1. Introduction; 1.1 Plasticity; 1.1.1 Mechanical properties of solids; 1.1.2 Microscopic mechanisms; Elastic behaviour; Plastic behaviour; 1.2 Organization and contents of the chapters; 1.3 General References; 2. The structure of crystalline solids; 2.1 Introduction; 2.2 Crystal geometry; 2.2.1 Ideal crystal; 2.3 Bravais lattices; 2.3.1 Definition; 2.3.2 Properties; Non-unicity of the generating translations; Lattice planes and rows; Symmetry of the Bravais lattice; Constraints on the rotation angles; 2.4 Unit cells; 2.4.1 Primitive unit cells2.4.2 Conventional unit cells2.4.3 Classification of the Bravais lattices. Cubic lattices; a) Simple cubic lattice (abbreviated as SC); b) Body centered cubic lattice (abbreviated as BCC); c) Face centered cubic lattice (abbreviated as FCC); 2.5 Examples of crystal structures; 2.5.1 Simple monoatomic structure packings; Cubic close-packing; Hexagonal close-packing; Relationship between close-packings; Body centered cubic packing; 2.5.2 Physical realizations in metals; Metallic alloys; 2.5.3 Simple covalent structures; 2.6 Non-crystalline solids; 3. Mechanics of deformable solids3.1 Introduction3.2 Fundamental tensors; 3.2.1 Strain and stress; 3.2.2 Stiffness; 3.3 Coordinate changes; 3.4 Stiffness tensor and crystal symmetry; 3.4.1 General constraints; 3.4.2 Crystal symmetry; 3.4.3 Mathematical transformation of tensors; 3.5 Isotropic solids; 3.5.1 Stiffness tensor; 3.5.2 Basic equations; 4. Vacancies, an example of point defects in crystals; 4.1 Classification of defects in crystals; 4.2 Stability of point-defects in solids; 4.2.1 Statistical equilibrium; 4.2.2 Concentration of defects at thermal equilibrium; 4.3 Formation of vacancies; 4.3.1 Formation energyDescription of the elastic modelDisplacement field; Induced strain and stress; Elastic energy of a vacancy; Energy of a vacancy in a metal; 4.3.2 Random displacement of vacancies, diffusion; Frequency of jumps; Average free path of the vacancies; Macroscopic diffusion of vacancies; Self-diffusion of atoms; Other types of point defects; 5. The geometry of dislocations; 5.1 Introduction; 5.2 Straight edge dislocation; 5.2.1 Hypothetical procedures of formation; Addition or substraction of a half atomic plane; Formation by partial slipping; Amplitude of the slipping and primitive translationsGeneral definition of a dislocation5.2.2 Burgers circuit and Burgers vector; Burgers circuit; Sign of the Burgers vector of an edge dislocation; Physical meaning of the Burgers vector; 5.2.3 Edge dislocation loops; Rectangular loop; Dislocation-loop of arbitrary shape; 5.3 Other types of dislocations; 5.3.1 Screw dislocation; Formation by slipping; Burgers vector; 5.3.2 Mixed dislocation-loops; 5.3.3 General properties of the Burgers vector; 5.4 Volterra process of formation; 5.4.1 Edge and screw dislocations; Edge-dislocation formed by slippingEdge dislocation generated by adding or removing matterThis book introduces the physical mechanism of the plastic deformation of solids, which relies essentially on the occurrence and motion of dislocations. These are linear defects, specific of crystalline solids whose motion under external stresses explains the relative ease by which solids (metals in particular) can be deformed in order to give them desired shapes. The objective is to introduce the topic to undergraduate students, restricting to the main ideas and showing their relevance in interpreting phenomena well known to everyone (e.g. why are certain metals harder than others?), and finaPlasticitySolidsElectronic books.Plasticity.Solids.620.1/1232620.11232Tolédano Jean-Claude998157MiAaPQMiAaPQMiAaPQBOOK9910451603103321Physical basis of plasticity in solids2289559UNINA01512nam 2200397Ia 450 991069588220332120070510114545.0(CKB)5470000002372966(OCoLC)124094560(EXLCZ)99547000000237296620070510d2007 ua 0engurbn|||||||||txtrdacontentcrdamediacrrdacarrierEstimated water use and availability in the Pawtuxet and Quinebaug River basins, Rhode Island, 1995-99 /by Emily C. Wild and Mark T. Nimiroski ; prepared in cooperation with the Rhode Island Water Resources BoardReston, Va. :U.S. Dept. of the Interior, U.S. Geological Survey,2007.vii, 68 pages digital, PDF fileScientific investigations report ;2006-5154Title from title screen (viewed May 9, 2007)Includes bibliographical references (pages 62-66).Water useRhode IslandWater-supplyRhode IslandWater useWater-supplyWild Emily C1397440Nimiroski Mark T1397439Geological Survey (U.S.)Rhode Island.Water Resources Board.GPOGPOBOOK9910695882203321Estimated water use and availability in the Pawtuxet and Quinebaug River basins, Rhode Island, 1995-993547894UNINA