Conditioning monitoring by microstructural evaluation of cumulative fatigue damage

The objective of this work is to evaluate the damage induced below and above the fatigue limit ( Delta sigma sub t =360 MPa) in pressure vessel steels, such as SA508. Fatigue damage was induced in samples taken from an SA508 steel plate by various loading histories in order to examine the influence...

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Veröffentlicht in:Metallurgical and Materials Transactions. A, Physical Metallurgy and Materials Science Physical Metallurgy and Materials Science, 1996-12, Vol.27 (12), p.3841-3851
Hauptverfasser: FUKUOKA, C, NAKAGAWA, Y. G, LANCE, J. J, PANGBORN, R. N
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container_issue 12
container_start_page 3841
container_title Metallurgical and Materials Transactions. A, Physical Metallurgy and Materials Science
container_volume 27
creator FUKUOKA, C
NAKAGAWA, Y. G
LANCE, J. J
PANGBORN, R. N
description The objective of this work is to evaluate the damage induced below and above the fatigue limit ( Delta sigma sub t =360 MPa) in pressure vessel steels, such as SA508. Fatigue damage was induced in samples taken from an SA508 steel plate by various loading histories in order to examine the influence of prior cyclic loading below the fatigue limit. Cell-to-cell misorientation differences were measured by the selected area diffraction (SAD) method. Surface cracking was also studied by the replication method. Small cracks were observed after precycling both below and above the fatigue limit. It was, however, found that fatigue test bars had a longer lifetime after precycling below the fatigue limit, while precycling above the fatigue limit caused other specimens to fail even when subsequently cycled below the fatigue limit. Cell-to-cell misorientation usually increases with accumulation of fatigue damage, but it was found that the misorientations measured after precycling below the fatigue limit decreased again at the beginning of the subsequent cycling above the fatigue limit. It should be noted that the misorientation at failure was always approx4-5 deg , regardless of loading histories. Misorientation showed good correlation with the fatigue lifetime of the samples.
doi_str_mv 10.1007/bf02595633
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Cell-to-cell misorientation usually increases with accumulation of fatigue damage, but it was found that the misorientations measured after precycling below the fatigue limit decreased again at the beginning of the subsequent cycling above the fatigue limit. It should be noted that the misorientation at failure was always approx4-5 deg , regardless of loading histories. 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It was, however, found that fatigue test bars had a longer lifetime after precycling below the fatigue limit, while precycling above the fatigue limit caused other specimens to fail even when subsequently cycled below the fatigue limit. Cell-to-cell misorientation usually increases with accumulation of fatigue damage, but it was found that the misorientations measured after precycling below the fatigue limit decreased again at the beginning of the subsequent cycling above the fatigue limit. It should be noted that the misorientation at failure was always approx4-5 deg , regardless of loading histories. 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Fatigue damage was induced in samples taken from an SA508 steel plate by various loading histories in order to examine the influence of prior cyclic loading below the fatigue limit. Cell-to-cell misorientation differences were measured by the selected area diffraction (SAD) method. Surface cracking was also studied by the replication method. Small cracks were observed after precycling both below and above the fatigue limit. It was, however, found that fatigue test bars had a longer lifetime after precycling below the fatigue limit, while precycling above the fatigue limit caused other specimens to fail even when subsequently cycled below the fatigue limit. Cell-to-cell misorientation usually increases with accumulation of fatigue damage, but it was found that the misorientations measured after precycling below the fatigue limit decreased again at the beginning of the subsequent cycling above the fatigue limit. 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subjects Applied sciences
CORRELATIONS
CRACKS
Cross-disciplinary physics: materials science
rheology
DAMAGE
DISLOCATIONS
Exact sciences and technology
FATIGUE
Fatigue, corrosion fatigue, embrittlement, cracking, fracture and failure
Fatigue, embrittlement, and fracture
MATERIALS SCIENCE
Metals. Metallurgy
MICROSTRUCTURE
NUCLEAR REACTOR TECHNOLOGY
ORIENTATION
Physics
PRESSURE VESSELS
REACTORS
SERVICE LIFE
STEELS
Treatment of materials and its effects on microstructure and properties
title Conditioning monitoring by microstructural evaluation of cumulative fatigue damage
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