...Niraj Kumar; Chandan Pandey; Prakash Kumar In this review paper, dissimilar welding between Inconel and austenitic stainless steel along with its application has been outlined for high-temperature applications. The mechanical and microstructural behavior of this dissimilar joint has been summarized...

...Qunjie Lu; Jinyang Zheng; Gai Huang; Yingzhe Wu; Huiming Ding; Yibo Wang Pressure strengthening (PS) technology, also called cold stretching, is widely used to increase the allowable stress and reduce the weight of cryogenic pressure vessels (CPVs) made of austenitic stainless steels (ASSs...

...Jinya Katsuyama; Tohru Tobita; Hiroto Itoh; Kunio Onizawa Stress corrosion cracking (SCC) in Type 316 L low-carbon austenitic stainless steel recirculation pipes have been observed near butt-welding joints. These SCC in Type 316 L stainless steel grow near the welding zone mainly because...

...Philip J. Maziasz; John P. Shingledecker; Neal D. Evans; Michael J. Pollard Oak Ridge National Laboratory and Caterpillar (CAT) have recently developed a new cast austenitic stainless steel, CF8C-Plus, for a wide range of high-temperature applications, including diesel exhaust components...

... that the A16 guide for the austenitic stainless steel was fairly conservative for the assessment of creep-fatigue crack initiation while it was reasonably conservative for creep-fatigue crack growth for the present specimen. 16 03 2008 03 10 2008 07 04 2009 austenitic stainless steel...

... in water relative to those in air can be a factor of 15 lower for austenitic stainless steels and a factor of ≈ 30 lower for carbon and low-alloy steels. This paper reviews the current technical basis for the understanding of the fatigue of piping and pressure vessel steels in LWR environments...

..., data are needed to guide the selection of materials for structural components. The objective of this study is to characterize the role of yield strength, microstructural orientation, and small concentrations of ferrite on hydrogen-assisted fracture in two austenitic stainless steels: 21Cr–6Ni–9Mn (21-6...

... Electron. 0306-8919 , 27 , pp. 1213 – 1229 . austenitic stainless steel compressive strength finite element analysis internal stresses laser materials processing stress corrosion cracking tensile strength welding welds Weld joints employing the type 304 stainless steel...

... of nickel based alloys in high-temperature aqueous environments is also discussed. 20 11 2005 28 08 2006 stress corrosion cracking fracture mechanics deformation elastoplasticity finite element analysis austenitic stainless steel crack-edge stress field analysis crack tip...

... fatigue data in various environmental and mechanical test conditions. The latest models for evaluation using F en of the environmental fatigue life correction factor were proposed for carbon and low alloy steels in the year 2000 and for austenitic stainless steel, in 2002. F en depends on some essential...

... ). Duplex stainless steel (DSS) has a mixed structure which consists of ferrite and austenite stainless steels, with austenite between 40% and 60%. The current version of the European standard for unfired pressure vessels EN 13445:2002 contains an innovative design procedure based on Finite Element Analysis...

... loads for internally pressurised vessel end closures can be found in Refs. 2 3 4 5 . Internal Pressure Steel Toroids welding shells (structures) cracks plasticity austenitic stainless steel nozzles 02 September 2004 24 November 2004 27 05 2005...

...Makoto Higuchi; Kazuya Tsutsumi; Akihiko Hirano; Katsumi Sakaguchi The fatigue life of austenitic stainless steel has recently been shown to undergo remarkable reduction with decrease in strain rate and increase in temperature in water. Either of these parameters as a factor of this reduction has...

... Plastic Deformation cold working stress corrosion cracking austenitic stainless steel X-ray diffraction pressure vessels welding plastic deformation 22 July 2001 18 January 2001 29 March 2002 26 07 2002 2002 ASME ...

...-Strengthened Austenitic Stainless Steel for Cryogenic Magnet Structures,” Advance Cryo. Eng. Materials , Col. 26, Plenun Press, NY. Read, D. T., et al., 1980, “Metallurgical Factors Affecting the Toughness of 316L SMA Weldments at Cryogenic Temperatures,” Welding Research Supplement , pp. 104S–113S...

...Makoto Hayashi; Kunio Enomoto Changes in the residual stress in a worked surface layer of type 304 austenitic stainless steel due to tensile deformation were measured by the X-ray diffraction residual stress measuring method. The compressive residual stresses introduced by end-mill, end-mill side...

...-temperature austenitic stainless steel. Creep deflection under bending was calculated per Finnie and Heller 1 as follows. The same basic assumptions as in elastic beam analysis were made (e.g., shear deformation neglected, plane sections remain plane, and small displacement). It is also assumed...