... austenitic stainless steel carbon steel 169 Chapter 11 | Standards and Practices on Corrosion under Insulation John P. Ludman1 and Bert J. Moniz2 Introduction Corrosion under insulation (CUI) occurs on the external surfaces of hot, thermally insulated carbon steel or austenitic stainless steel process...

... Cast austenitic stainless steel 1.4848 is used to manufacture automotive exhaust system components. Low cycle fatigue (LCF) of 1.4848 austenitic steel was investigated through strain controlled fatigue testing at strain rates of 0.02/s, 0.002/s, and 0.0002/s in the temperature range from room...

... fracture conditions of intensely irradiated components. This is a preliminary multi-scale method for estimating the mechanical response of irradiated components. irradiation microstructure mechanical property austenitic stainless steel rate equation modeling electron microscope cascade damage...

... and precipitations containing solute atoms. We have extended a CD simulation code to account for the possibility of all SIA clusters migrating three dimensionally, to reproduce the agglomeration of point-defects to form clusters during irradiation with collision cascades in austenitic stainless steel. We have also...

... Austenitic stainless steels are often used for high-temperature applications under conditions where fatigue loading occurs in combination with varying temperatures, superimposed mean stresses or dwell times and environmental effects. In order to characterize and separate the various damage...

... unsatisfactory.Therefore, work was undertaken to develop a bearing steel with improved properties. In addition, to having improved corrosion resistance and durability, the steel must also have a very low magnetic permeability. This led to the development of a carburized AISI 316L austenitic stainless steel...

... Oversize solute additions to stainless steels hold promise for reducing radiation-induced segregation (RIS), possibly delaying the onset and severity of irradiation-assisted stress-corrosion cracking (IASCC). The Modified Inverse Kirkendall (MIK) model for RIS in austenitic stainless steels...

... failed without any evidence of IG cracking. Results from this study suggest that radiation hardening, in contrast to cold work, has the most pronounced effect on IASCC. austenitic stainless steel irradiation-assisted stress corrosion cracking hardness proton irradiation cold worked Type 304...

... is analyzed. The revealed effects are discussed in terms of the internal strength field changes due to thermal and radiation effects. austenitic stainless steel mechanical properties martensite transformation helium beryllium coated Journal of ASTM International, April 2004 Vol. 1, No. 4 Paper ID...

... are useful for qualitative predictions of fatigue response. radiation exposure fatigue response tensile properties fatigue life prediction Universal Slopes austenitic stainless steel ferritic/martensitic steel Joumal ofASTM Intemational, May 2004, Vol. 1, No. 5 Paper ID JAIl 1334...

... for F 1586-95 containing 0.28 % Nb. breakdown potentials austenitic stainless steel ASTM F 1586-95 ASTM F 138-92 orthopedic implants Ruth F. V. Villamil,1 Amaldo H. P. de Andrade,2 Celso A. Barbosa, 3 Alexandre Sokolowski, 3 and Silvia M L. Agostinho4 Comparative Electrochemical Studies...

... The effect of contact pressure on fretting fatigue in solution-treated austenitic stainless steel was studied under load control at a stress amplitude of 180 MPa and a stress ratio of 0.1. With an increase in contact pressure, fretting fatigue life was almost unchanged at contact pressures...

... Irradiation creep of modified 316 (PNC316) and 15Cr-20Ni base austenitic stainless steels was determined using the diametral change of the fuel pins, which were irradiated under the fission gas pressurized condition in FFTF to a peak displacement damage of 107 dpa in PNC316 and 120 dpa in 15Cr...

... N08367 was clearly the most resistant to crevice corrosion initiation at coating sites, it suffered intense attack in some cases. warm seawater crevice corrosion coatings austenitic stainless steel Robert M. Kain1 Use of Coatings to Assess the Crevice Corrosion Resistance of Stainless Steels...

... of cracked bolts, and selection of more resistant materials. PWR irradiation-assisted stress corrosion cracking austenitic stainless steel baffle/former bolts Peter M. Scott,1Marie-Christine Meunier, l Denis Deydier,2 Sarah Silvestre,2 and Alain Trenty 3 An Analysis of Baffle/Former Bolt Cracking...

... We have investigated radiation-induced segregation (RIS) near a grain boundary in an austenitic stainless steel under electron irradiation taking into account the simultaneous evolution of faulted dislocation loops and network dislocations by a composite model. It has been found that dislocation...

... fracture toughness copper alloys austenitic stainless steel hot isostatic pressing joints neutron irradiation Seppo J. T~ihtinen,l Mika T. Pyykk6nen] Bachu N. Singh, 2 and Palle Toft 2 Effect of Neutron Irradiation on Tensile and Fracture Toughness Properties of Copper Alloys and Their Joints...

... shielded-metal- or submerged-arc welds such as BWR core shroud weld. austenitic stainless steel irradiation-assisted stress corrosion cracking manganese sulfide transmutation compositional instability sulfur fluorine H. M. Chung, I J. E. Sanecki, 2 and F. A. G a r n e r 3 RADIATION-INDUCED...

... Tensile specimens of a titanium modified austenitic stainless steel and its weldments fabricated with Tungsten Inert Gas (TIG) and Electron Beam (EB) welding techniques were irradiated to a peak dose of 19 dpa and a peak helium level of 250 appm in the temperature range between 200 and 400° C...

... the yield strength over the unirradiated value and decrease the strain to necking (STN) to less than 0.5% under certain conditions. A maximum increase in yield strength and a minimum in the STN occur after irradiation at 330°C but the failure mode remains ductile. austenitic stainless steel tensile...