LEADER 05240nam 2200637 450 001 9910823990103321 005 20200520144314.0 010 $a3-527-67153-6 010 $a3-527-67151-X 010 $a3-527-67154-4 035 $a(CKB)2550000001123454 035 $a(EBL)1411629 035 $a(OCoLC)862828505 035 $a(OCoLC)861536748 035 $a(MiAaPQ)EBC1411629 035 $a(Au-PeEL)EBL1411629 035 $a(CaPaEBR)ebr10768950 035 $a(CaONFJC)MIL525171 035 $a(PPN)18631728X 035 $a(EXLCZ)992550000001123454 100 $a20131011h20142014 uy| 0 101 0 $aeng 135 $aur|n|---||||| 181 $2rdacontent 182 $2rdamedia 183 $2rdacarrier 200 00$aNon-diffractive waves /$fedited by Hugo E. Herna?ndez-Figueroa, Erasmo Recami, and Michel Zamboni-Rached 210 1$aWeinheim :$cWiley-VCH,$d[2014] 210 4$dİ2014 215 $a1 online resource (509 p.) 300 $aDescription based upon print version of record. 311 $a3-527-41195-X 311 $a1-299-93920-1 320 $aIncludes bibliographical references and index. 327 $aNon-Diffracting Waves; Title Page; Copyright; Contents; Preface; List of Contributors; Chapter 1 Non-Diffracting Waves: An Introduction; 1.1 A General Introduction; 1.1.1 A Prologue; 1.1.2 Preliminary, and Historical, Remarks; 1.1.3 Definition of Non-Diffracting Wave (NDW); 1.1.4 First Examples; 1.1.5 Further Examples: The Non-Diffracting Solutions; 1.2 Eliminating Any Backward Components: Totally Forward NDW Pulses; 1.2.1 Totally Forward Ideal Superluminal NDW Pulses; 1.3 Totally Forward, Finite-Energy NDW Pulses; 1.3.1 A General Functional Expression for Whatever Totally-Forward NDW Pulses 327 $a1.4 Method for the Analytic Description of Truncated Beams1.4.1 The Method; 1.4.2 Application of the Method to a TB Beam; 1.5 Subluminal NDWs (or Bullets); 1.5.1 A First Method for Constructing Physically Acceptable, Subluminal Non-Diffracting Pulses; 1.5.2 Examples; 1.5.3 A Second Method for Constructing Subluminal Non-Diffracting Pulses; 1.6 ``Stationary'' Solutions with Zero-Speed Envelopes: Frozen Waves; 1.6.1 A New Approach to the Frozen Waves; 1.6.2 Frozen Waves in Absorbing Media; 1.6.3 Experimental Production of the Frozen Waves 327 $a1.7 On the Role of Special Relativity and of Lorentz Transformations1.8 Non-Axially Symmetric Solutions: The Case of Higher-Order Bessel Beams; 1.9 An Application to Biomedical Optics: NDWs and the GLMT (Generalized Lorenz-Mie Theory); 1.10 Soliton-Like Solutions to the Ordinary Schroedinger Equation within Standard Quantum Mechanics (QM); 1.10.1 Bessel Beams as Non-Diffracting Solutions (NDS) to the Schroedinger Equation; 1.10.2 Exact Non-Diffracting Solutions to the Schroedinger Equation; 1.10.3 A General Exact Localized Solution; 1.11 A Brief Mention of Further Topics 327 $a1.11.1 Airy and Airy-Type Waves1.11.2 ``Soliton-Like'' Solutions to the Einstein Equations of General Relativity and Gravitational Waves; 1.11.3 Super-Resolution; Acknowledgments; References; Chapter 2 Localized Waves: Historical and Personal Perspectives; 2.1 The Beginnings: Focused Wave Modes; 2.2 The Initial Surge and Nomenclature; 2.3 Strategic Defense Initiative (SDI) Interest; 2.4 Reflective Moments; 2.5 Controversy and Scrutiny; 2.6 Experiments; 2.7 What's in a Name: Localized Waves; 2.8 Arizona Era; 2.9 Retrospective; Acknowledgments; References 327 $aChapter 3 Applications of Propagation Invariant Light Fields3.1 Introduction; 3.2 What Is a ``Non-Diffracting'' Light Mode?; 3.2.1 Linearly Propagating ``Non-Diffracting'' Beams; 3.2.2 Accelerating ``Non-Diffracting'' Beams; 3.2.3 Self-Healing Properties and Infinite Energy; 3.2.4 Vectorial ``Non-Diffracting'' Beams; 3.3 Generating ``Non-Diffracting'' Light Fields; 3.3.1 Bessel and Mathieu Beam Generation; 3.3.2 Airy Beam Generation; 3.4 Experimental Applications of Propagation Invariant Light Modes; 3.4.1 Microscopy, Coherence, and Imaging 327 $a3.4.2 Optical Micromanipulation with Propagation Invariant Fields 330 $aThis continuation and extension of the successful book ""Localized Waves"" by the same editors brings together leading researchers in non-diffractive waves to cover the most important results in their field and as such is the first to present the current state.The well-balanced presentation of theory and experiments guides readers through the background of different types of non-diffractive waves, their generation, propagation, and possible applications. The authors include a historical account of the development of the field, and cover different types of non-diffractive waves, including A 606 $aLocalized waves$xResearch 606 $aWaves$xResearch 615 0$aLocalized waves$xResearch. 615 0$aWaves$xResearch. 676 $a532.0593 701 $aHerna?ndez-Figueroa$b Hugo E$01602936 701 $aRecami$b Erasmo$050020 701 $aZamboni-Rached$b Michel$01602937 801 0$bMiAaPQ 801 1$bMiAaPQ 801 2$bMiAaPQ 906 $aBOOK 912 $a9910823990103321 996 $aNon-diffractive waves$93927085 997 $aUNINA LEADER 04259nam 2201153z- 450 001 9910557726203321 005 20220111 035 $a(CKB)5400000000046062 035 $a(oapen)https://directory.doabooks.org/handle/20.500.12854/76627 035 $a(oapen)doab76627 035 $a(EXLCZ)995400000000046062 100 $a20202201d2021 |y 0 101 0 $aeng 135 $aurmn|---annan 181 $ctxt$2rdacontent 182 $cc$2rdamedia 183 $acr$2rdacarrier 200 00$aAdvances in Design by Metallic Materials: Synthesis, Characterization, Simulation and Applications 210 $aBasel, Switzerland$cMDPI - Multidisciplinary Digital Publishing Institute$d2021 215 $a1 online resource (234 p.) 311 08$a3-0365-0746-9 311 08$a3-0365-0747-7 330 $aVery recently, a great deal of attention has been paid by researchers and technologists to trying to eliminate metal materials in the design of products and processes in favor of plastics and composites. After a few years, it is possible to state that metal materials are even more present in our lives and this is especially thanks to their ability to evolve. This Special Issue is focused on the recent evolution of metals and alloys with the scope of presenting the state of the art of solutions where metallic materials have become established, without a doubt, as a successful design solution thanks to their unique properties. 517 $aAdvances in Design by Metallic Materials 606 $aTechnology: general issues$2bicssc 610 $aartificial neural network 610 $aArtificial Neural Network (NN) 610 $aaustenitic stainless steel 610 $abainitic microstructure 610 $acase hardening depth 610 $acermet 610 $acoating 610 $acompact graphite cast iron (CGI) 610 $acomposite hardness models 610 $aconnection 610 $aConstructal Design 610 $acopper coatings 610 $acreep resistance 610 $adeflection 610 $aductile fracture 610 $aductile/spheroidal cast iron (SGI) 610 $aexperiment 610 $aexperimental data analysis 610 $aextended finite element method (xFEM) 610 $afatigue crack growth 610 $aforging 610 $agrain growth 610 $ahardness 610 $ahigh-temperature oxidation resistance 610 $ahybrid composite 610 $ahybrid materials 610 $ak-nearest neighbours (kNN) 610 $alarge-strain plasticity 610 $alinear regression 610 $along-term operated metals 610 $aMachine Learning (RF) 610 $amaterial properties prediction 610 $amicromagnetic testing 610 $amicrostructure 610 $aMIV analysis 610 $amodified damage model 610 $amoment-rotation curve 610 $an/a 610 $anumerical analysis 610 $anumerical simulation 610 $apack aluminizing 610 $apallet rack 610 $apattern recognition 610 $aphase-field modeling 610 $aplates 610 $apolarization curve 610 $apulsating current (PC) 610 $aRandom Forest (RF) 610 $aretained austenite 610 $aS355J2+N steel 610 $aslurry erosion 610 $aspheroidal graphite cast iron 610 $astiffeners 610 $astress intensity factors (SIF) 610 $atensile properties 610 $athermomechanical processing 610 $atribology 610 $atwo-stage yield function 610 $awear 610 $awear performance 610 $aZA27 alloy 615 7$aTechnology: general issues 700 $aFragassa$b Cristiano$4edt$01303396 702 $aEpp$b Jeremy$4edt 702 $aLesiuk$b Grzegorz$4edt 702 $aZivkovic$b Miroslav$4edt 702 $aFragassa$b Cristiano$4oth 702 $aEpp$b Jeremy$4oth 702 $aLesiuk$b Grzegorz$4oth 702 $aZivkovic$b Miroslav$4oth 906 $aBOOK 912 $a9910557726203321 996 $aAdvances in Design by Metallic Materials: Synthesis, Characterization, Simulation and Applications$93026995 997 $aUNINA