Deciphering the role and nature of phosphate species at the surface of stainless steel immersed in phosphoric acid solutions
暂无分享,去创建一个
Irma Liascukiene | J. Landoulsi | P. Refait | M. Jeannin | C. Méthivier | R. Sabot | L. Dhouibi | M. Salah
[1] Jingmao Zhao,et al. Effect of time on the characteristics of passive film formed on stainless steel , 2017 .
[2] S. Adeloju,et al. Recent advances in the development and utilization of modern anode materials for high performance microbial fuel cells. , 2017, Biosensors & bioelectronics.
[3] Irma Liascukiene,et al. Organic adlayer on inorganic materials: XPS analysis selectivity to cope with adventitious contamination , 2016 .
[4] C. Dong,et al. The passive behaviour of ferritic stainless steel containing alloyed tin in acidic media , 2016 .
[5] Irma Liascukiene,et al. Passivation behaviour of stainless steel (UNS N-08028) in industrial or simplified phosphoric acid solutions at different temperatures , 2015 .
[6] G. Thouas,et al. Metallic implant biomaterials , 2015 .
[7] Yolanda Hedberg,et al. Correlation between surface physicochemical properties and the release of iron from stainless steel AISI 304 in biological media. , 2014, Colloids and surfaces. B, Biointerfaces.
[8] P. Refait,et al. Passivity of Sanicro28 (UNS N-08028) stainless steel in polluted phosphoric acid at different temperatures studied by electrochemical impedance spectroscopy and Mott–Schottky analysis , 2014 .
[9] R. Frost,et al. A Raman spectroscopic study of a hydrated molybdate mineral ferrimolybdite, Fe2(MoO4)3·7-8H2O. , 2014, Spectrochimica acta. Part A, Molecular and biomolecular spectroscopy.
[10] C. Dong,et al. Characterization of electrochemical and passive behaviour of Alloy 59 in acid solution , 2014 .
[11] V. Ball,et al. Polyphosphates as inorganic polyelectrolytes interacting with oppositely charged ions, polymers and deposited on surfaces: fundamentals and applications. , 2014, Advances in colloid and interface science.
[12] B. Tzaneva,et al. Effect of phosphoric acid concentration on corrosion of Cr–Mn–N and Cr–Ni stainless steels , 2014 .
[13] Pier Paolo Lottici,et al. Characterization of alteration phases on Potash–Lime–Silica glass , 2014 .
[14] R. Akid,et al. Effect of temperature on passive film formation of UNS N08031 Cr–Ni alloy in phosphoric acid contaminated with different aggressive anions , 2013 .
[15] P. Rouxhet,et al. XPS analysis of chitosan–hydroxyapatite biomaterials: from elements to compounds , 2013 .
[16] V. Koleva,et al. Phosphate ion vibrations in dihydrogen phosphate salts of the type M(H2PO4)2·2H2O (M = Mg, Mn, Co, Ni, Zn, Cd): Spectra–structure correlations , 2013 .
[17] J. García-Antón,et al. Effect of potential formation on the electrochemical behaviour of a highly alloyed austenitic stainless steel in contaminated phosphoric acid at different temperatures , 2012 .
[18] O. Isgor,et al. Angle-resolved XPS study of carbon steel passivity and chloride-induced depassivation in simulated concrete pore solution , 2012 .
[19] N. Spencer,et al. Chain-length-identification strategy in zinc polyphosphate glasses by means of XPS and ToF-SIMS , 2012, Analytical and Bioanalytical Chemistry.
[20] J. García-Antón,et al. Passivation behaviour of Alloy 31 (UNS N08031) in polluted phosphoric acid at different temperatures , 2012 .
[21] P. Rouxhet,et al. XPS analysis of bio‐organic systems , 2011 .
[22] J. García-Antón,et al. Study of the effect of temperature on the galvanic corrosion between Alloy 31 base metal and its weld in polluted phosphoric acid , 2011 .
[23] C. Richard,et al. Silanization with APTES for Controlling the Interactions Between Stainless Steel and Biocomponents: Reality vs Expectation , 2011 .
[24] K. Cooksey,et al. Review – Interactions between diatoms and stainless steel: focus on biofouling and biocorrosion , 2011, Biofouling.
[25] K. Whitehead,et al. The detection of food soils on stainless steel using energy dispersive X-ray and Fourier transform infrared spectroscopy , 2011, Biofouling.
[26] S. Rajeswari,et al. Electrochemical, SEM and XPS investigations on phosphoric acid treated surgical grade type 316L SS for biomedical applications , 2009 .
[27] Joseph K. L. Lai,et al. Recent developments in stainless steels , 2009 .
[28] P. Gerin,et al. Enzymes at solid surfaces: Nature of the interfaces and physico-chemical processes , 2008 .
[29] J. Masson,et al. Brief Review of the Chemistry of Polyphosphoric Acid (PPA) and Bitumen , 2008 .
[30] C. Richard,et al. Ennoblement of stainless steel in the presence of glucose oxidase: nature and role of interfacial processes. , 2008, Journal of colloid and interface science.
[31] C. Richard,et al. Evolution of the passive film and organic constituents at the surface of stainless steel immersed in fresh water. , 2008, Journal of colloid and interface science.
[32] P. Rouxhet,et al. XPS analysis of biosystems and biomaterials. , 2008 .
[33] S. Yuan,et al. Microbiologically influenced corrosion of 304 stainless steel by aerobic Pseudomonas NCIMB 2021 bacteria: AFM and XPS study. , 2007, Colloids and surfaces. B, Biointerfaces.
[34] R. Basséguy,et al. Classic and local analysis of corrosion behaviour of graphite and stainless steels in polluted phosphoric acid , 2007 .
[35] M. Montemor,et al. Capacitance behaviour of passive films on ferritic and austenitic stainless steel , 2005 .
[36] P. Marcus,et al. XPS and STM study of the growth and structure of passive films in high temperature water on a nickel-base alloy , 2004 .
[37] D. Landolt,et al. Passive films on stainless steels—chemistry, structure and growth , 2003 .
[38] Thierry Benezech,et al. Identification of surface characteristics relevant to the hygienic status of stainless steel for the food industry , 2003 .
[39] Yuqing Wang,et al. Iron (III) Phosphate (FePO4) by XPS , 2002 .
[40] Klaus Schubert,et al. MlCROSTRUCTURE DEVICES FOR APPLICATIONS IN THERMAL AND CHEMICAL PROCESS ENGINEERING , 2023, Proceeding of Heat Transfer and Transport Phenomena in Microscale.
[41] P. Rouxhet,et al. Surface of Lactic Acid Bacteria: Relationships between Chemical Composition and Physicochemical Properties , 2000, Applied and Environmental Microbiology.
[42] Richard K. Brow,et al. Review: the structure of simple phosphate glasses , 2000 .
[43] D. Landolt,et al. In-situ microgravimetric studies of passive alloys: potential sweep and potential step experiments with Fe-25Cr and Fe-17Cr-33Mo in acid and alkaline solution , 1999 .
[44] C. Clayton,et al. Identification of Mo(V) commonly observed in passive films formed on stainless steels , 1998 .
[45] D. Butt,et al. Corrosion of 304 stainless steel exposed to nitric acid-chloride environments , 1997 .
[46] Buddy D. Ratner,et al. Biomaterials Science: An Introduction to Materials in Medicine , 1996 .
[47] Marie-Thérèse Averbuch-Pouchot,et al. Topics in Phosphate Chemistry , 1996 .
[48] I. Olefjord,et al. The influence of nitrogen on the passivation of stainless steels , 1996 .
[49] P. Marcus,et al. XPS and STM Study of Passive Films Formed on Fe‐22Cr(110) Single‐Crystal Surfaces , 1996 .
[50] H. Strehblow,et al. A combined surface analytical and electrochemical study of the formation of passive layers on alloys in 0.5 M H2SO4 , 1995 .
[51] P. Marcus,et al. The anodic dissolution and passivation of NiCrFe alloys studied by ESCA , 1992 .
[52] W. Stickle,et al. Handbook of X-Ray Photoelectron Spectroscopy , 1992 .
[53] S. Joiret,et al. Raman studies of corrosion films grown on Fe and Fe-6Mo in pitting conditions , 1991 .
[54] B. Brox,et al. ESCA Studies of MoO2 and MoO3 , 1988 .
[55] I. Olefjord,et al. Surface Composition of Stainless Steels during Anodic Dissolution and Passivation Studied by ESCA , 1985 .
[56] H. Strehblow. Breakdown of passivity and localized corrosion: Theoretical concepts and fundamental experimental results , 1984 .
[57] V. M. Knyazheva,et al. Selective dissolution and surface enrichment of alloy components of passivated Fe18Cr and Fe18Cr3Mo single crystals , 1979 .