Materials Map

Discover the materials research landscape. Find experts, partners, networks.

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The Materials Map is an open tool for improving networking and interdisciplinary exchange within materials research. It enables cross-database search for cooperation and network partners and discovering of the research landscape.

The dashboard provides detailed information about the selected scientist, e.g. publications. The dashboard can be filtered and shows the relationship to co-authors in different diagrams. In addition, a link is provided to find contact information.

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The Materials Map is still under development. In its current state, it is only based on one single data source and, thus, incomplete and contains duplicates. We are working on incorporating new open data sources like ORCID to improve the quality and the timeliness of our data. We will update Materials Map as soon as possible and kindly ask for your patience.

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Naji, M.
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University of Strathclyde

in Cooperation with on an Cooperation-Score of 37%

Topics

Publications (22/22 displayed)

  • 20243-Dimensional residual neural architecture search for ultrasonic defect detection5citations
  • 2023Application of eddy currents for inspection of carbon fibre compositescitations
  • 2023Application of machine learning techniques for defect detection, localisation, and sizing in ultrasonic testing of carbon fibre reinforced polymers citations
  • 2023In-process non-destructive evaluation of metal additive manufactured components at build using ultrasound and eddy-current approaches11citations
  • 2023Mapping SEARCH capabilities to Spirit AeroSystems NDE and automation demand for compositescitations
  • 2023Using neural architecture search to discover a convolutional neural network to detect defects From volumetric ultrasonic testing data of compositescitations
  • 2023Phased array inspection of narrow-gap weld LOSWF defects for in-process weld inspectioncitations
  • 2022Transfer learning for classification of experimental ultrasonic non-destructive testing images from synthetic datacitations
  • 2022Autonomous and targeted eddy current inspection from UT feature guided wave screening of resistance seam weldscitations
  • 2022Mechanical stress measurement using phased array ultrasonic systemcitations
  • 2022Automated bounding box annotation for NDT ultrasound defect detectioncitations
  • 2022Multi-sensor electromagnetic inspection feasibility for aerospace composites surface defectscitations
  • 2022Investigating ultrasound wave propagation through the coupling medium and non-flat surface of wire + arc additive manufactured components inspected by a PAUT roller-probecitations
  • 2022Automated multi-modal in-process non-destructive evaluation of wire + arc additive manufacturingcitations
  • 2022Dual-tandem phased array inspection for imaging near-vertical defects in narrow gap weldscitations
  • 2022Targeted eddy current inspection based on ultrasonic feature guided wave screening of resistance seam weldscitations
  • 2022In-process non-destructive evaluation of wire + arc additive manufacture components using ultrasound high-temperature dry-coupled roller-probecitations
  • 2022Collaborative robotic Wire + Arc Additive Manufacture and sensor-enabled in-process ultrasonic Non-Destructive Evaluation16citations
  • 2022Automated real time eddy current array inspection of nuclear assets16citations
  • 2020In-process calibration of a non-destructive testing system used for in-process inspection of multi-pass welding29citations
  • 2020Laser-assisted surface adaptive ultrasound (SAUL) inspection of samples with complex surface profiles using a phased array roller-probecitations
  • 2019Ultrasonic phased array inspection of a Wire + Arc Additive Manufactured (WAAM) sample with intentionally embedded defects74citations

Places of action

Chart of shared publication
Tunukovic, Vedran
6 / 6 shared
Mackinnon, Christopher
3 / 3 shared
Wathavana Vithanage, Randika Kosala
11 / 11 shared
Ohare, Tom
5 / 5 shared
Mcknight, Shaun
7 / 7 shared
Macleod, Charles N.
21 / 45 shared
Pierce, Stephen
19 / 51 shared
Munro, Gavin
1 / 1 shared
Burnham, Kenneth Charles
1 / 1 shared
Foster, Euan
5 / 8 shared
Dobie, Gordon
4 / 21 shared
Obrien-Oreilly, J.
3 / 3 shared
Pyle, Richard
2 / 2 shared
Munro, G.
3 / 3 shared
Ohare, T.
3 / 3 shared
Mcknight, S.
3 / 3 shared
Halavage, Steven
4 / 6 shared
Loukas, Charalampos
8 / 13 shared
Ding, Jialuo
6 / 39 shared
Williams, Stewart
6 / 39 shared
Rizwan, Muhammad Khalid
3 / 4 shared
Misael, Pimentel Espirindio E. Silva
4 / 5 shared
Mckegney, Scott
4 / 6 shared
Lines, David
12 / 18 shared
Foster, Euan A.
1 / 2 shared
Zimermann, Rastislav
7 / 9 shared
Fitzpatrick, Stephen
4 / 14 shared
Vasilev, Momchil
10 / 17 shared
Poole, A.
1 / 2 shared
Mcinnes, M.
2 / 2 shared
Hifi, A.
1 / 1 shared
Gomez, R.
1 / 3 shared
Shields, M.
1 / 1 shared
Nicolson, Ewan
3 / 5 shared
Tant, Katherine Margaret Mary
1 / 5 shared
Mcinnes, Martin
3 / 3 shared
Gachagan, Anthony
9 / 76 shared
Bernard, Robert
3 / 5 shared
Bolton, Gary
3 / 5 shared
Hutchison, Alistair
1 / 1 shared
Mehnen, Jorn
1 / 4 shared
Lotfian, Saeid
1 / 22 shared
Javadi, Yashar
5 / 31 shared
Lawley, Alistair
1 / 1 shared
Foster, E.
1 / 2 shared
Burnham, K.
1 / 1 shared
Gover, H.
1 / 1 shared
Paton, S.
1 / 1 shared
Grosser, M.
1 / 2 shared
Macdonald, Charles
1 / 1 shared
Pierce, Stephen Gareth
1 / 3 shared
Foster, Euan Alexander
1 / 1 shared
Stratoudaki, Theodosia
1 / 7 shared
Mineo, Carmelo
2 / 15 shared
Qiu, Zhen
2 / 14 shared
Sweeney, Nina E.
1 / 3 shared
Su, Riliang
1 / 3 shared
Chart of publication period
2024
2023
2022
2020
2019

Co-Authors (by relevance)

  • Tunukovic, Vedran
  • Mackinnon, Christopher
  • Wathavana Vithanage, Randika Kosala
  • Ohare, Tom
  • Mcknight, Shaun
  • Macleod, Charles N.
  • Pierce, Stephen
  • Munro, Gavin
  • Burnham, Kenneth Charles
  • Foster, Euan
  • Dobie, Gordon
  • Obrien-Oreilly, J.
  • Pyle, Richard
  • Munro, G.
  • Ohare, T.
  • Mcknight, S.
  • Halavage, Steven
  • Loukas, Charalampos
  • Ding, Jialuo
  • Williams, Stewart
  • Rizwan, Muhammad Khalid
  • Misael, Pimentel Espirindio E. Silva
  • Mckegney, Scott
  • Lines, David
  • Foster, Euan A.
  • Zimermann, Rastislav
  • Fitzpatrick, Stephen
  • Vasilev, Momchil
  • Poole, A.
  • Mcinnes, M.
  • Hifi, A.
  • Gomez, R.
  • Shields, M.
  • Nicolson, Ewan
  • Tant, Katherine Margaret Mary
  • Mcinnes, Martin
  • Gachagan, Anthony
  • Bernard, Robert
  • Bolton, Gary
  • Hutchison, Alistair
  • Mehnen, Jorn
  • Lotfian, Saeid
  • Javadi, Yashar
  • Lawley, Alistair
  • Foster, E.
  • Burnham, K.
  • Gover, H.
  • Paton, S.
  • Grosser, M.
  • Macdonald, Charles
  • Pierce, Stephen Gareth
  • Foster, Euan Alexander
  • Stratoudaki, Theodosia
  • Mineo, Carmelo
  • Qiu, Zhen
  • Sweeney, Nina E.
  • Su, Riliang
OrganizationsLocationPeople

document

Mechanical stress measurement using phased array ultrasonic system

  • Hutchison, Alistair
  • Mehnen, Jorn
  • Wathavana Vithanage, Randika Kosala
  • Mohseni, Ehsan
  • Lotfian, Saeid
  • Zimermann, Rastislav
  • Gachagan, Anthony
  • Javadi, Yashar
  • Macleod, Charles N.
  • Pierce, Stephen
Abstract

Background, Motivation and Objective ‎<br/>In this paper, a new ultrasonic system is developed to measure the mechanical stresses. The ‎study is part of a larger research project to use the Phased Array Ultrasonic Testing (PAUT) ‎system for the residual stress measurement of high-value manufacturing and safety-critical ‎components, like aerospace, wind turbines and nuclear structures. The stress measurement ‎using the ultrasonic method is explained by the acoustoelastic effect which is based on the ‎sound velocity change in an elastic material subjected to the static stress field. ‎<br/><br/>Statement of Contribution/Methods ‎<br/>Single element transducers are conventionally used for stress measurement using the ultrasonic ‎method while the PAUT system is innovatively used in this paper. The mechanical stresses, ‎tensile and compressive, are applied using a customized tensile test machine and vice clamp ‎system. The ultrasonic arrays are 5 MHz transducers manufactured by IMASONIC (France) and ‎configured in Longitudinal Critically Refracted (LCR) setup (see Fig. 1). The transmitter array ‎generates 8 ultrasonic waves ‎which are ‎received by 8 elements of the receiver array. ‎Therefore, ‎a matrix of 8 × 8 ‎acoustic paths can be generated. This has resulted in higher stress ‎measurement ‎accuracy, compared to the traditional setup ‎in which only one acoustic path can ‎be generated using two single element transducers, through minimization of the Time of Flight ‎‎(ToF) measurement error, created by transmitter triggering uncertainty, wave speed changes in ‎the transducers/wedge, positioning uncertainty, transducer alignment and material texture ‎effects. Additionally, a higher measurement resolution was achieved because of the lower ‎distance between the elements, array pitch was 0.5 mm compared to the &gt;10 mm transducers ‎distance in the single element setup.‎<br/><br/>Results/Discussion ‎<br/>The PAUT-LCR system was able to detect variations in ToFs of the sample subjected to the stress ‎changes. Therefore, the mechanical stress was successfully measured using this newly ‎developed PAUT-LCR system. Using the acoustoelasticity law, the novel setup was also used to ‎measure the acoustoelastic coefficient required for future residual stress measurement.‎<br/>

Topics
  • impedance spectroscopy
  • texture
  • ultrasonic