Reprint

Ultrasonic Modelling for Non-destructive Testing

Edited by
May 2024
336 pages
  • ISBN978-3-7258-0757-4 (Hardback)
  • ISBN978-3-7258-0758-1 (PDF)

This book is a reprint of the Special Issue Ultrasonic Modelling for Non-destructive Testing that was published in

Biology & Life Sciences
Chemistry & Materials Science
Computer Science & Mathematics
Engineering
Environmental & Earth Sciences
Physical Sciences
Summary

Ultrasonic techniques are used for non-destructive purposes to assess the properties and state of structures designed for a wide range of applications (engineering, construction materials, medicine, etc.). Different types of material properties (mechanical, chemical, physical, biological, etc.) with different physical states/compositions (solid, liquid, heterogeneous, inhomogeneous, complex, moving, etc.) can be studied. This reprint delves into mutually dependent subfields including, but not restricted to, ultrasonic wave techniques for classical non-destructive testing (NDT) and structural health monitoring; new methods for imaging; ultrasonic characterization; non-linear acoustics; acoustic emission; laser ultrasonics; sensors; signal and noise analysis. This Special Issue explores notably some advances in ultrasonic modeling methods for understanding or predicting NDT inspections. The simulation tools developed can be based on different mathematical/physical theories or assumptions; for example, semi-analytical, numerical, and hybrid models can be used for direct simulation and model benchmarking, inversion theory for imaging and damage localization, as well as artificial intelligence. The reprint constructs a comprehensive collection of research and development trends that will serve as a convenient reference for NDT experts, as well as new practitioners.

Format
  • Hardback
License and Copyright
© 2024 by the authors; CC BY-NC-ND license
Keywords
real-time electronics; structural health monitoring; Lamb wave; piezoelectric sensors; impact localization; ultrasonic guided waves; ice-coupled ultrasonic testing; full waveform inversion; complex structure; defect detection; ultrasounds; fluid dynamics; liquid metal; monitoring; nondestructive testing; high-performance computing; nonlinear systems; Hammerstein model; pulse compression; ultrasonic systems; guided waves; CFRC composite plate; impact point damage; 3D-FE modeling; photoacoustic imaging; finite element method; laser array; wavefront superposition; Non-destructive Testing/Evaluation (NDT/NDE); ultrasonic imaging and inversion; ultrasonic characterization; explainable Augmented Intelligence; ultrasound; immersed guided waves; topological energy method; nondestructive testing; air-coupled ultrasonic; Lamb waves; finite element modeling; plastic films; n/a; spec-radiation; acoustic holography; non-destructive testing; layered media; flaw detection; smart repair patch; structural health monitoring (SHM); embedded PZT transducers; damage detection and localization; delay-and-sum (DAS) algorithm; Non-Destructive Testing (NDT); ultrasounds; crack; scattering; numerical models comparison; experimental validation; data-driven modeling; spatio-temporal datasets; ultrasonic wave propagation; deep learning; RNN; ConvLSTM; finite element; elasticity; plates; Lamb waves; corner behaviour; trapped-mode; thorax imaging; ultrasound traveltime tomography; supervised descent method; Marchenko equation; Green’s function retrieval; elastodynamic wave propagation; pressurized spherical shell; corrosion; non-destructive method; critical load; critical thickness; service life; NDT data; fiber-reinforced polymer (FRP); ground penetrating radar (GPR); ultrasonic testing (UT); phased array ultrasonic (PAU); non-destructive testing (NDT); reinforced concrete; n/a

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