Influence of the Microstructure on Magnetic Stray Fields of Low-Carbon Steel Welds

This study examines the relationship between the magnetic mesostructure with the microstructure of low carbon steel tungsten inert gas welds. Optical microscopy revealed variation in the microstructure of the parent material, in the heat affected and fusion zones, correlating with distinctive change...

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Veröffentlicht in:Journal of nondestructive evaluation 2018-09, Vol.37 (3), p.1-18, Article 66
Hauptverfasser: Stegemann, Robert, Cabeza, Sandra, Pelkner, Matthias, Lyamkin, Viktor, Pittner, Andreas, Werner, Daniel, Wimpory, Robert, Boin, Mirko, Kreutzbruck, Marc, Bruno, Giovanni
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container_issue 3
container_start_page 1
container_title Journal of nondestructive evaluation
container_volume 37
creator Stegemann, Robert
Cabeza, Sandra
Pelkner, Matthias
Lyamkin, Viktor
Pittner, Andreas
Werner, Daniel
Wimpory, Robert
Boin, Mirko
Kreutzbruck, Marc
Bruno, Giovanni
description This study examines the relationship between the magnetic mesostructure with the microstructure of low carbon steel tungsten inert gas welds. Optical microscopy revealed variation in the microstructure of the parent material, in the heat affected and fusion zones, correlating with distinctive changes in the local magnetic stray fields measured with high spatial resolution giant magneto resistance sensors. In the vicinity of the heat affected zone high residual stresses were found using neutron diffraction. Notably, the gradients of von Mises stress and triaxial magnetic stray field modulus follow the same tendency transverse to the weld. In contrast, micro-X-ray fluorescence characterization indicated that local changes in element composition had no independent effect on magnetic stray fields.
doi_str_mv 10.1007/s10921-018-0522-0
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subjects Carbon
Carbon steel
CARBON STEELS
Characterization and Evaluation of Materials
Classical Mechanics
Composition effects
Control
Dynamical Systems
ENGINEERING
FLUORESCENCE
Gas tungsten arc welding
Gas welding
HEAT AFFECTED ZONE
Low carbon steels
MAGNETORESISTANCE
MICROSTRUCTURE
NEUTRON DIFFRACTION
Neutrons
OPTICAL MICROSCOPY
Rare gases
Residual stress
RESIDUAL STRESSES
SENSORS
Solid Mechanics
SPATIAL RESOLUTION
TUNGSTEN
Vibration
WELDED JOINTS
WELDING
X RADIATION
X-ray fluorescence
title Influence of the Microstructure on Magnetic Stray Fields of Low-Carbon Steel Welds
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