07064nam a2200769 i 45000010014000000030004000140050017000180060019000350070015000540080041000690200025001100200024001350200025001590200027001840240035002110350025002460350022002710400040002930500024003330720016003570720023003731000044003962450061004402640098005013000071005993360021006703370026006913380032007174900027007494900034007765000043008105040041008535050180008945050105010745050161011795050101013405050256014415050254016975050256019515050195022075050177024025050137025795050136027165050144028525050707029965060075037035200826037785210256046045300029048605380036048895380078049255450729050035880057057326500035057896500028058246500032058526500031058846500043059156500059059587100061060177760049060788300038061278300041061658560059062069420012062659990017062779780750349116IOP20251030124828.0m    eo  d        cr cn |||m|||a240715s2024    enka   fob    000 0 eng d  a9780750349116qebook  a9780750349109qmobi  z9780750349093qprint  z9780750349123qmyPrint7 a10.1088/978-0-7503-4911-62doi  a(CaBNVSL)thg00083953  a(OCoLC)1441750175  aCaBNVSLbengerdacCaBNVSLdCaBNVSL 4aQA927b.L576 2024eb 7aTHR2bicssc 7aTEC0070002bisacsh1 aLissenden, Cliff Jesse,eauthor.9969001 aNonlinear ultrasonic guided waves /cCliff J. Lissenden. 1aBristol [England] (Temple Circus, Temple Way, Bristol BS1 6HG, UK) :bIOP Publishing,c[2024]  a1 online resource (various pagings) :billustrations (some color).  atext2rdacontent  aelectronic2isbdmedia  aonline resource2rdacarrier1 a[IOP release $release]1 aIOP ebooks. [2024 collection]  a"Version: 20240601"--Title page verso.  aIncludes bibliographical references.  apart I. Analysis techniques. 1. Introduction -- 1.1. Motivation -- 1.2. Brief perspective on nonlinear ultrasonic guided waves -- 1.3. Approach -- 1.4. Content -- 1.5. Closure8 a2. Preliminaries -- 2.1. Notation -- 2.2. Continuum mechanics -- 2.3. Elastodynamics -- 2.4. Closure8 a3. Nonlinear elastic waves -- 3.1. Bulk longitudinal waves -- 3.2. Bulk shear waves -- 3.3. Attenuation -- 3.4. Measurements of nonlinearity -- 3.5. Closure8 a4. Boundary value problem formulation -- 4.1. Linear BVPs -- 4.2. Nonlinear BVPs -- 4.3. Closure8 a5. Ultrasonic guided waves--linear features -- 5.1. Physical characteristics of waves -- 5.2. Rayleigh waves -- 5.3. Waves in plates -- 5.3.1 Shear-horizontal (SH) waves -- 5.4. Hollow cylinder waves -- 5.5. Other types of guided waves -- 5.6. Closure8 apart II. Modeling nonlinearity. 6. Nonlinear analysis of plates -- 6.1. Reciprocity -- 6.2. Orthogonality -- 6.3. Completeness -- 6.4. Normal mode expansion -- 6.5. Perturbation approach -- 6.6. Internal resonance -- 6.7. Wave mixing -- 6.8. Closure8 a7. Internal resonance in plates -- 7.1. Power flow for self-interaction -- 7.2. Power flow for mutual interaction -- 7.3. Effect of directionality -- 7.4. Synchronism -- 7.5. Group velocity matching -- 7.6. Comments on hollow cylinders -- 7.7. Closure8 a8. Selecting primary waves -- 8.1. Self-interaction in plates -- 8.2. Mutual interaction in plates -- 8.3. Hollow cylinders -- 8.4. Arbitrary cross-section -- 8.5. Half-space -- 8.6. Closure8 a9. Finite amplitude pulse loading -- 9.1. Descriptors of nonlinearity -- 9.2. Experimental results from laser generation -- 9.3. Modeling waveform evolution -- 9.4. Closure8 apart III. Applications. 10. Numerical simulations -- 10.1. Methods -- 10.2. Software tools -- 10.3. Sample problems -- 10.4. Closure8 a11. Making measurements -- 11.1. Instrumentation -- 11.2. Generation -- 11.3. Reception -- 11.4. Signal processing -- 11.5. Closure8 a12. Highlights of experimental testing -- 12.1. Self-interaction -- 12.2. Mutual interaction -- 12.3. Quasi-Rayleigh waves -- 12.4. Closure8 a13. Perspective -- 13.1. Separation of material nonlinearity from measurement system nonlinearity -- 13.2. Link with the structural design that identifies hot spots to be monitored and a plan for inclusion of nonlinear ultrasonic guided waves in the operations management and maintenance planning -- 13.3. Standards for test methods that are broad enough to be applicable to the emerging needs for offline inspection and in-service monitoring -- 13.4. Define specifications needed to build monitoring systems into self-aware smart structures -- 13.5. Solid connection between nonlinear wave propagation characteristics and the material microstructure that dictates its strength and fracture properties.  aFull-text restricted to subscribers or individual document purchasers.3 aThe book sets the stage for nonlinear ultrasonic guided waves by introducing nonlinear wave propagation in 1D and the fundamental mathematical and continuum mechanics background necessary for the nonlinear wave propagation physics. It develops the so-called internal resonance criteria and its application to different guided wave types. An important and unique aspect covered is the selection of primary wave modes and frequencies for cumulative second harmonic generation and wave mixing. Numerical simulations will demonstrate the results of effective selection choices. Experimental methods and signal processing are critical for detecting the subtle results of nonlinearity. Finally, the author provides perspective on the future development of nonlinear ultrasonic guided wave methods for nondestructive evaluation.  aResearchers and practitioners in the nondestructive evaluation and condition monitoring communities that service mechanical equipment, ground/water/air/space vehicles, power generation and distribution systems, civil infrastructure, and manufacturing.  aAlso available in print.  aMode of access: World Wide Web.  aSystem requirements: Adobe Acrobat Reader, EPUB reader, or Kindle reader.  aCliff Lissenden is a professor of engineering science and mechanics at Penn State. He joined the Department of Engineering Science and Mechanics in 1995 and gained a joint appointment in Acoustics in 2011. He is an ASME Fellow and the founding director of the Ben Franklin Center of Excellence in Structural Health Monitoring. His current research is mainly for nondestructive characterization of materials using ultrasonic guided waves and is broadly applicable to metals, composites, concrete, rock, and bone. Characterization systems use piezoelectric, magnetostrictive, electromagnetic, and laser-based transduction of ultrasonic waves for nondestructive testing, inspection, and monitoring, often in harsh environments.  aTitle from PDF title page (viewed on July 15, 2024).  aWave-motion, Theory of.964528  aNonlinear waves.996901  aOptical wave guides.996902  aUltrasonic testing.996903 7aElectrical engineering.2bicssc965586 7aTECHNOLOGY & ENGINEERING / Electrical.2bisacsh9968152 aInstitute of Physics (Great Britain),epublisher.917702 8iPrint version:z9780750349093z9780750349123 0aIOP (Series).pRelease 24.996904  aIOP ebooks.p2024 collection.9969054 uhttps://iopscience.iop.org/book/mono/978-0-7503-4911-6  cE-Books  c68462d68462