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The UNS N09955 is a precipitation hardened Ni-alloy which exhibits a good combination of mechanical strength, ductility, toughness and resistance to hydrogen embrittlement
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In this study, the MIC resistance behavior of a 2205 Cu-bearing antibacterial duplex stainless steel (2205 Cu-DSS) in the presence of marine corrosive bacteria Pseudomonas aeruginosa was investigated. Electrochemistry evaluation, surface observation, corrosion product analysis were applied.
Laboratory testing program on the tube materials of UNS N08028 and UNS N08029 in 91000 mg/L chloride 1000 psi CO2 2200 psi H2S at temperature from 150 °C and up to 220 °C by means of tensile constant load per NACE TM0177 and slow stain rate testing (SSRT) per NACE TM0198.
Results of the stress corrosion cracking tests showed that wrought UNS S31803 was not resistant to environmentally-induced cracking or corrosion in the test environment. A difference in surface finish did not have a significant effect.
ffects of hydrogen on stress corrosion cracking behavior of 304 and 310 stainless steels under load were investigated in boiling 42% MgCl2 solution. Cracking was accelerated by the incorporation of hydrogen into the steel without altering the crack growth mechanism.
In this study, welding trials were performed on 22% Cr duplex stainless steel UNS S32205 corner joints with different wall thickness similar to the top plate and tubesheet plate joint configuration used in a fin fan cooler header box.
Replacement of bones by implants require a second surgery to remove the implant after tissues have healed. Toward finding an implant that (instead) degrades in the physiological environment, we investigate the corrosion behavior of pure Magnesium in saline solution containing Fenton reagents.
Orthopedic joint replacements, implants, and bone plates are generic, mass-produced components, which may not always be compatible. This paper investigates the optimum properties for two additive manufacturing processes, selective laser melting (SLM) and electron beam melting (EBM), for implant surgeries.
Complications occur in orthopedic surgery. Corrosion of magnesium W4 alloy was investigated in vitro by electrochemical methods in solutions replicating the body's environment. To control the biodegradation of titanium and magnesium implants, bio active PEO coatings are essential for biomedical implants.
Investigation and comparison of effects of mineral wool and a water repellent insulation on CUI. Drain holes and their ability to reduce CUI was evaluated. The susceptibility to CUI of carbon steel was investigated at 80 °C using a newly developed test rig in a controlled environment (25 °C and 50 %RH).
Magnesium (Mg) for biodegradable medical implant devices are limited by fast degradation rates of Mg. The study presents alloy design and thermomechancial processing to optimize mechanical and biological properties of a new proprietary Mg alloy. Corrosion profiles were evaluated by in vitro and in vivo studies.
In this study, two electrochemical techniques were used to characterize corrosion behavior of 17-4 PH stainless steel (UNS S17400), Inconel 625 (UNS N06625) and Ti-6Al-4V (UNS R56400) produced by power bed fusion process at different spatial scale.