Includes bibliographical references and index.
|Statement||sponsored by the Pressure Vessels and Piping Division, ASME ; principal editor, R.W. Warke ; contributing editors, P. Dong, A. Dermenjian.|
|Series||PVP ;, vol. 327, PVP (Series) ;, vol. 327.|
|Contributions||Warke, R. W., Dong, P., Dermenjian, Artin A., American Society of Mechanical Engineers. Pressure Vessels and Piping Division., Pressure Vessels and Piping Conference (1996 : Montréal, Québec)|
|LC Classifications||TA660.T34 R47 1996|
|The Physical Object|
|Pagination||vi, 201 p. :|
|Number of Pages||201|
|LC Control Number||96084907|
The results indicate that repair weld design parameters in terms of repair length, depth, and width are of critical importance to the mitigation of residual stresses. When a short length weld repair was introduced at the mid-length of the initial butt-weld in the same specimen (Fig. 1a), this resulted in a strongly varying pattern of transverse residual stress surrounding the repair, as seen in Fig. magnitude of transverse tensile residual stresses in the region of the repair was high and approached that of the longitudinal stress component (Fig. 2b).Cited by: An integral part of the certification of a new repair technique involves the assessment of residual stresses and, in work that underpinned deployment of the FTHP process, residual stresses were measured in five specimens of low pressure steam turbine steel conforming to the German specification SEW Grade 26NiCrMoV (ASTM A Class 5–7 Cited by: 2. The maximum and minimum normal residual stresses were and − MPa respectively (Fig. 6(e) and (f)). It is therefore clear from Fig. 6 that the maximum residual stresses were in the middle of the work-piece, directly under the bead, and not at the weld bead toe. The residual stresses were high in magnitude and this is attributed to restraint.
Michaleris, P. Residual stress distributions for multipass welds in pressure vessel and piping components. Proceedings of the ASME Pressure Vessels and Piping Conference, 21–26 July , Montreal, Canada, Residual Stresses in Design, Fabrication, Assessment and Repair . Journals & Books; Help Download PDF Residual stress of high strength steel box column is numerically studied. ASME Pressure Vessel and Piping Conference: Residual stress in design, fabrication, assessment and repair, () Google Scholar. , , “Residual Stresses Calculation in Autofrettage Using Variable Material Properties Method,” ASME PVP, Residual Stress in Design, Fabrication, Assessment and Repair, , pp. – Jahed. Assessment of the integrity of structures containing defects. B.E.G. Ltd, Gloucester () A finite element model for residual stress in repair welds. Residual stresses in design, fabrication, assessment and repair, ASME PVP, vol. (), pp.
Residual Stress Formation in Component Related Stress Relief Cracking Tests of a Welded Creep-Resistant Steel M. Rhode, A. Kromm, D. Schroepfer, J. Steger, T. Kannengiesser Abstract. Submerged arc welded (SAW) components of creep-resistant low-alloyed Cr-Mo-V steels are used for thick-walled heavy petrochemical reactors (wall-thickness up to mm) as well as employed in construction of [ ]. Hence, understanding the residual stress distribution is important to evaluate the reliability of pipe joints with weld overlay repairs. The finite element results in this paper showed that, after deposition of the DMW nozzle and stainless steel welds, tensile weld residual stresses still exist at regions of the DMW through the thickness. Weld residual stresses in nuclear power plants can lead to cracking concerns caused by stress corrosion. Many factors can lead to the development of the weld residual stresses, and the distributions of the stress through the wall thickness can vary markedly depending on the weld processing parameters, nozzle and pipe geometries, among other factors. Residual stresses in design, fabrication, assessment and repair: presented at the ASME Pressure Vessels and Piping Conference, Montreal, Quebec, Canada, July , Publication Type Book.