Abstract
The present chapter introduces several basic aspects of Nondestructive Evaluation (NDE). Its purpose is to explain what characterizes NDE. A brief overview of various methods used for NDE with respect to the challenges of NDE 4.0 will be given. The physical basics will be introduced for the most important methods, including X-ray imaging, thermography, ultrasonic and electromagnetic testing, for instance. Typical NDE tasks and how NDE is applied in the industrial production, service, and research and development will be discussed briefly at the end of the chapter.
References
NDE Resource Center on the WEB.: https://www.nde-ed.org/GeneralResources/IntroToNDT/GenIntroNDT.htm
Wolter B, Dobmann G. Nuclear magnetic resonance as a tool for the characterization of concrete in different stages on its development. In: Schickert G, Wiggenhauser H, editors. Non-destructive testing in civil engineering 1995, vol. 1. Berlin; 1995. (DGZfP-Berichtsbände 48.1) S.181–188.
Bloem P, Greubel D, Dobmann G, Lorentz OK, Wolter B. NMR for non-destructive testing of materials. In: Saarton LA, Zeedijk HB (eds) Proceedings of the 5th European conference on advanced materials and processes and applications. Vol. 4: Characterization and production/design: EUROMAT 97, Maastricht, 21–23 April 1997. Zwijndrecht: Netherlands Society for Materials Science; 1997. ISBN: 90-803513-4-2, p.135–138.
Altpeter I, Tschuncky R, Szielasko K. Electromagnetic techniques for materials characterization. In: Hübschen G, Altpeter I, Herrmann H-G (eds) Materials characterization using nondestructive evaluation (NDE) methods, ScienceDirect (2016). https://www.sciencedirect.com/science/article/pii/B9780081000403000080
Schreiber J, Meyendorf N. New sensor principles based on Barkhausen noise. In: Proceedings of SPIE 6530, sensor systems and networks: phenomena, technology, and applications for NDE and health monitoring (2007), 65300C (2007, 10 April). https://doi.org/10.1117/12.717214
Arunachalam K, Melapudi VR, Udpa L, Udpa SS. Microwave NDT of cement-based materials using far-field reflection coefficients. NDT&E Int. 2006;39:585–93.
Park J, Nguyen C. An ultrawide-band microwave radar sensor for nondestructive evaluation of pavement subsurface. IEEE Sensors J. 2005;5:942–9.
Kharkovsky S, Akay MF, Hasar UC, Atis CD. Measurement and monitoring of microwave reflection and transmission properties of cement-based specimens. IEEE Trans. Instrum. Meas. 2002;51:1210–8.
Mukherjee S, Tamburrino A, Haq M, Udpa S, Udpa L. Far field microwave NDE of composite structures using time reversal mirror. NDT&E Int. 2018;93:7–17.
Stuchly M, Stuchly S. Coaxial line reflection methods for measuring dielectric properties of biological substances at radio and microwave frequencies—a review. IEEE Trans Instrum Meas IM. 1980;29:176–83.
Travassos XL, DAG V, Ida N, Vollaire C, Nicolas A. Characterization of inclusions in a nonhomogeneous GPR problem by artificial neural networks. IEEE Trans Magnet. 2008;44(6):1630–3.
Yang Y. Development of a real-time ultra-wideband see through wall imaging radar system. PhD dissertation, University of Tennessee, Knoxville, TN; 2008.
Yang X, Zheng YR, Ghasr MT, Donnell KM. Microwave imaging from sparse measurements for near-field synthetic aperture radar. IEEE Trans Instr Meas. 2017;66:2680–92.
Ida N. Microwave and Millimeter wave nondestructive testing and evaluation. In: Ida N, Meyendorf N, editors. Handbook of advanced NDE. Cham: Springer; 2019. p. 929–66. https://doi.org/10.1007/978-3-319-26553-7.
Anlage SM, Talanov VV, Schwartz AR. Principles of near-field microwave microscopy. In: Kalinin SV, Gruverman A, editors. Scanning probe microscopy: electrical and electromechanical phenomena at the nanoscale, vol. 1. New York: Springer; 2007. p. 215–53.
Chen G, Hu B, Takeuchi I, Chang KS, Xiang XD, Wang G. Quantitative scanning evanescent microwave microscopy and its applications in characterization of functional materials libraries. Meas Sci Technol. 2005;16:248–60. https://doi.org/10.1088/0957-0233/16/1/033.
Rosner BT, Van der Weide DW. High-frequency near field microscopy. Rev Scientific Instrum. 2002;73:2505–25.
Razvan C, Ida N. Transmission line matrix model for detection of local changes in permeability using a microwave technique. IEEE Trans Mag. 2004;40:651–4.
Tabib-Azar M, Garcia-Valenzuela A, Ponchak G. Evanescent microwave microscopy for high resolution characterization of materials. Norwell: Kluwer; 2002.
Bakhtiari S, Ganchev S, Zoughi R. Open-ended rectangular waveguide for nondestructive thickness measurement and variation detection of lossy dielectric slabs backed by a conducting plate. IEEE Trans Instrum Meas. 1993;42:19–24.
Mazlumi F, Sadeghi SHH, Moini R. Interaction of an open-ended rectangular waveguide probe with an arbitrary shape surface crack in a lossy conductor. IEEE Trans Microwave Theory Tech. 2006;54:3706–11.
Qaddoumi NN, Saleh WM, Abou-Khousa M. Innovative near-field microwave nondestructive testing of corroded metallic structures utilizing open-ended rectangular waveguide probes. IEEE Trans Instrum. Meas. 2007;56:1961–6.
Ida N. Open resonator microwave sensor systems for industrial gauging: a practical design approach. London: IET; 2018.
Li Y, Bowler N, Johnson DB. A resonant microwave patch sensor for detection of layer thickness or permittivity variations in multilayered dielectric structures. IEEE Sensors J. 2011;11:5–15.
Jonuscheit J. Terahertz techniques in NDE. In: Ida N, Meyendorf N, editors. Handbook of advanced NDE. Cham: Springer; 2019. p. 967–85. https://doi.org/10.1007/978-3-319-26553-7.
Armstrong CM. The truth about terahertz. IEEE Spect. 2012;49(9):36–41. https://doi.org/10.1109/MSPEC.2012.6281131.
https://en.wikipedia.org/wiki/Terahertz_time-domain_spectroscopy
https://en.wikipedia.org/wiki/Continuous-wave_radar
May T, Heinz E, Peiselt K, Zieger G, Born D, Zakosarenko V, Brömel A, Anders S, Meyer H-G. Next generation of a sub-millimetre wave security camera utilising superconducting detectors. IOP Publ J Instrum. 2013;8 https://doi.org/10.1088/1748-0221/8/01/P01014.
Luukanen A, Grönberg L, Helistö P, Penttilä JS, Seppä H, Sipola H, Dietlein CR, Grossman EN. Passive Euro-American terahertz camera (PEAT-CAM): passive indoors THz imaging at video rates for security applications. Proc SPIE. 2007;6548 https://doi.org/10.1117/12.719778.
Dong J, Bianca Jackson J, Melis M, et al. Terahertz frequency wavelet domain deconvolution for stratigraphic and subsurface investigation of art painting. Opt Express. 2016;24(23):26972–85.
Fukuchi T, Fuse N, Okada M, et al. Topcoat thickness measurement of thermal barrier coating of gas turbine blade using terahertz wave. Electr Eng Jpn. 2014;189(1):1–8.
Catapano I, Soldovieri F, Mazzola L, Toscano C. THz imaging as a method to detect defects of aeronautical coating. J Infrared Millimeter Terahertz Waves. 2017;3810:1264–77.
Ho L, Müller R, Gordon KC, et al. Terahertz pulsed imaging as an analytical tool for sustained-release tablet film coating. Eur J Pharm Biopharm. 2009;71(1):117–23.
Stoik CD, Bohn MJ, Blackshire JL. Nondestructive evaluation of aircraft composites using transmissive terahertz time domain spectroscopy. Opt Express. 162:17039–51.
Cristofani E, Friederich F, Wohnsiedler S, Beigang R. Non-destructive testing potential evaluation of a THz frequency-modulated continuous-wave imager for composite materials inspection. Opt Eng. 2014;53(03) https://doi.org/10.1117/1.OE.53.3.031211.
Krebber K. Fiber optic sensors for SHM – from laboratory to industrial applications. In: OSA conference “Applied Industrial Optics: Spectroscopy, Imaging and Metrology (AIO), Seattle, WA, USA, 2014, June .
López-Higuera JM, Rodriguez L, Quintela A, Cobo A. Fiber optics in structural health monitoring. In: Proceedings of SPIE – the international society for optical engineering 7853, 2010, November.
Meyendorf N Frankenstein B, Schubert L. Structural health monitoring for aircraft, ground transportation vehicles, wind turbines and pipes – prognosis. In: Paipetis AS (eds) Emerging technologies in non-destructive testing V: proceedings of the fifth conference on emerging technologies in NDT, Ioannina, Greece, 19 – 21 September 2011 Boca Raton, FL: CRC Press, 2012. ISBN: 0-415-62131-3 ISBN: 978-0-415-62131-1 ISBN: 978-0-203-11445-2, p.15–22.
Minakuchi S, Takeda N. Recent advancement in optical fiber sensing for aerospace composite structures. Photon Sens. 2013;3:345–54. Springer open access.
Shell EB, Khobaib M, Hoying J, Simon L, Kacmar C, Kramb V, Donley M, Eylon D. Optical detection of surface damage. In: NGH M, Nagy RSI, editors. Nondestructive materials characterization – with applications to aerospace materials. Springer; 2003.
Günther H Im Reiche Röntgens – Eine Einführung in die Röntgentechnik. Stuttgart: Kosmos – Gesellschaft der Naturfreunde, Franckh’sche Verlagshandlung; 1930.
Ardenne MV. Neue Widerstandsverstärker mit hohen Verstärkungsgraden. Radiotechnische Monatsschrift, year VI, issue 12/1929. Wien: Radio Amateur; 1929. German; 1929.
Oppermann M. Zerstörungsfreie Analyse- und Prüfverfahren zur Detektion von Fehlern und Ausfällen in elektronischen Baugruppen. Templin: Verlag Dr. Markus A. Detert; 2014.
Schumacher D. Beitrag zur ZfP von photonenzählenden und spektralauflösenden Röntgenmatrixdetektoren am Beispiel von Werkstoffverbunden. PhD Thesis, TU Dresden, 2019.
Pohle R. Digital image processing for automated weld inspection. PhD Thesis, TU Magdeburg, 1994.
Kastner J, Heinzl C. X-ray tomography. In: Ida N, Meyendorf N (eds) Handbook of advanced nondestructive evaluation. Springer; 2019. p. 1095.
Eberhard H. Lehmann. Anlagen und Möglichkeiten für Neutronen Imaging am PSI. 18. Sitzung Fachaussschuss Durchstrahlungsprüfung der DGzfP, 25. November. am Paul Scherrer Institut; 2015.
Staab TEM, Zschech E, Krause-Rehberg R. Positron lifetime measurements for characterization of nano-structural changes in the age hardenable AlCuMg 2024 alloy. J Mat Sci. 2000;35:4667–72.
Coffey E. Acoustic resonance testing. In: Proceedings of future of instrumentation international workshop (FIIW) 8–9 October 2012, Gatlinburg, USA, 2012.
Vivek Hari Sankaran, Low cost inline NDT system fir internal defect detection in automotive components using acoustic resonance testing. In: Proceedings of the national seminar & exhibitionon non-destructive evaluation NDE, December 8–10, 2011.
Kühnicke E.. Elastische Wellen in geschichteten Festkörpersystemen: Modellierungen mit Hilfe von Integraltransformationsmethoden. Simulationsrechnungen für Ultraschallanwendungen. Bonn: TIMUG e.V; 2001.
Wolter K, Bieberle M, Budzier H, Zerna T. Zerstörungsfreie Prüfung elektronischer Baugruppen mittels bildgebender Verfahren. Templin: Verlag Dr. Markus A. Detert; 2012. p. 2012.
Krestel E. (publisher, 1988). “Bildgebende Systeme für die medizinische Diagnostik”, 2nd edition. Berlin/München: Siemens Aktiengesellschaft; 1988.
von Bernus L, Bulavinov, A, Jonet D, Kroning M, Dalichov M, Reddy KM, Sampling phased array a new technique for signal processing and ultrasonic imaging. ECNDT 2006 – We.3.1.2.
Tweedie A, O'Leary RL, Harvey G, Gachagan A, Holmes C, Wilcox PD, Drinkwater BW, Total focussing method for volumetric imaging in immersion non destructive evaluation, published in: 2007 IEEE Ultrasonics symposium proceedings, date of conference: 28–31 Oct. 2007.
Corl P, Kino G. A real-time synthetic aperture imaging system. In: Acoustical imaging. Springer; 1980. p. 341–55.
Jensen JA, Nikolov SI, Gammelmark KL, Pedersen MH. Synthetic aperture ultrasound imaging. Ultrasonics. 2006;44:e5–e15.
NG Meyendorf, P Heilmann, LJ Bond, NDE4.0 in manufacturing: challenges and opportunities for NDE in the 21st century. Mater Eval, 78, Issue 7, 2020.
Dobmann G, Meyendorf N, Schneider E. Nondestructive characterization of materials A growing demand for describing damage and service-life-relevant aging processes in plant components. Nuclear Eng Design. 171(1–3):95–112.
Meyendorf NGH, Rösner H, Kramb V, Sathish S. Thermo-acoustic fatigue characterization. Ultrasonics. 40(1–8):427–34.
Beckhoff B, Kanngießer B, Langhoff N, Wedell R, Wolff H. Handbook of practical X-ray fluorescence analysis. Springer.
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Meyendorf, N., Ida, N., Oppermann, M. (2021). Basic Concepts of NDE. In: Meyendorf, N., Ida, N., Singh, R., Vrana, J. (eds) Handbook of Nondestructive Evaluation 4.0. Springer, Cham. https://doi.org/10.1007/978-3-030-48200-8_35-1
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DOI: https://doi.org/10.1007/978-3-030-48200-8_35-1
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Basic Concepts of NDE- Published:
- 05 October 2021
DOI: https://doi.org/10.1007/978-3-030-48200-8_35-2
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Basic Concepts of NDE- Published:
- 18 August 2021
DOI: https://doi.org/10.1007/978-3-030-48200-8_35-1