Contribution of the oxygen reduction reaction to the electrochemical cathodic partial reaction for Mg-Al-Ca solid solutions
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S. Virtanen | D. Zander | C. Scheu | M. Strebl | M. Felten | Siyuan Zhang | Rasa Changizi | M.P. Bruns
[1] S. Virtanen,et al. Respirometric in Situ Methods for Real-Time Monitoring of Corrosion Rates: Part III. Deconvolution of Electrochemical Polarization Curves , 2023, Journal of The Electrochemical Society.
[2] N. Birbilis,et al. Operando Kinetics of Hydrogen Evolution and Elemental Dissolution Ii a Time Resolved Mass-Charge Balance During the Anodic Dissolution of Magnesium with Variable Iron Content , 2023, SSRN Electronic Journal.
[3] D. Snihirova,et al. Micro-alloyed Mg-Ca: Corrosion susceptibility to heating history and a plain problem-solving approach , 2023, Journal of Magnesium and Alloys.
[4] C. Motz,et al. The effect of time dependent native oxide surface conditions on the electrochemical corrosion resistance of Mg and Mg-Al-Ca alloys , 2022, Corrosion Science.
[5] S. Lamaka,et al. Exploring the contribution of oxygen reduction reaction to Mg corrosion by modeling assisted local analysis , 2022, Journal of Magnesium and Alloys.
[6] S. Korte-Kerzel,et al. Metallographic preparation methods for the Mg based system Mg-Al-Ca and its Laves phases , 2022, Materials Characterization.
[7] K. S. Kumar,et al. Construction and analysis of surface phase diagrams to describe segregation and dissolution behavior of Al and Ca in Mg alloys , 2022, Physical Review Materials.
[8] M.P. Bruns,et al. Coupling Respirometric HER and ORR Monitoring with Electrochemical Measurements , 2022, Electrochimica Acta.
[9] A. Erbe,et al. Limiting Current Density of Oxygen Reduction under Ultrathin Electrolyte Layers: From the Micrometer Range to Monolayers , 2021 .
[10] S. Lamaka,et al. High rate oxygen reduction reaction during corrosion of ultra-high-purity magnesium , 2020, npj Materials Degradation.
[11] S. Virtanen,et al. Respirometric In Situ Methods for Real-Time Monitoring of Corrosion Rates: Part II. Immersion , 2020, Journal of The Electrochemical Society.
[12] B. Gault,et al. Different Photostability of BiVO4 in Near-pH-Neutral Electrolytes , 2020, ACS applied energy materials.
[13] G. Frankel,et al. Hydrogen evolution on bare Mg surfaces using the scratched electrode technique , 2020 .
[14] Jiangfeng Song,et al. Latest research advances on magnesium and magnesium alloys worldwide , 2020, Journal of Magnesium and Alloys.
[15] S. Virtanen,et al. Editors’ Choice—Respirometric in Situ Methods for Real-Time Monitoring of Corrosion Rates: Part I. Atmospheric Corrosion , 2020, Journal of The Electrochemical Society.
[16] C. Scheu,et al. Evaluation of EELS spectrum imaging data by spectral components and factors from multivariate analysis , 2017, Microscopy.
[17] N. Birbilis,et al. Fundamentals and advances in magnesium alloy corrosion , 2017 .
[18] F. Pan,et al. A Review on Casting Magnesium Alloys: Modification of Commercial Alloys and Development of New Alloys , 2016 .
[19] O. Gharbi,et al. On the effect of Fe concentration on Mg dissolution and activation studied using atomic emission spectroelectrochemistry and scanning electrochemical microscopy , 2016 .
[20] A. Atrens,et al. The influence of pH on the corrosion rate of high-purity Mg, AZ91 and ZE41 in bicarbonate buffered Hanks' solution , 2015 .
[21] M. Dargusch,et al. Review of Recent Developments in the Field of Magnesium Corrosion , 2015 .
[22] G. Frankel,et al. Corrosion mechanism and hydrogen evolution on Mg , 2015 .
[23] T. Abbott. Magnesium: Industrial and Research Developments Over the Last 15 Years , 2015 .
[24] O. Gharbi,et al. Mg Dissolution in Phosphate and Chloride Electrolytes: Insight into the Mechanism of the Negative Difference Effect , 2015 .
[25] G. Frankel,et al. On the evidence for univalent Mg , 2015 .
[26] P. Tabeling,et al. A novel approach to on-line measurement of gas evolution kinetics: Application to the negative difference effect of Mg in chloride solution , 2014 .
[27] N. Birbilis,et al. Evolution of hydrogen at dissolving magnesium surfaces , 2013 .
[28] J. Kish,et al. Analysis of the surface film formed on Mg by exposure to water using a FIB cross-section and STEM–EDS , 2012 .
[29] V. Balasubramanian,et al. Influence of pH value, chloride ion concentration and immersion time on corrosion rate of friction stir welded AZ61A magnesium alloy weldments , 2012 .
[30] W. Badawy,et al. Effect of Al content on the corrosion behavior of Mg–Al alloys in aqueous solutions of different pH , 2010 .
[31] J. Światowska,et al. The anodic dissolution of Mg in NaCl and Na2SO4 electrolytes by atomic emission spectroelectrochemistry , 2010 .
[32] L. Hihara,et al. Corrosion of continuous alumina-fibre reinforced Al–2 wt.% Cu–T6 metal–matrix composite in 3.15 wt.% NaCl solution , 2010 .
[33] M. Schlesinger,et al. Corrosion of magnesium and its alloys , 2009 .
[34] L. Jeurgens,et al. Initial oxide film growth on Mg-based MgAl alloys at room temperature. , 2008 .
[35] G. Song,et al. Understanding Magnesium Corrosion—A Framework for Improved Alloy Performance , 2003 .
[36] Noboru Masuko,et al. Morphology and Structure of Oxide Films Formed on Magnesium by Exposure to Air and Water , 1995 .
[37] M. Pourbaix. Atlas of Electrochemical Equilibria in Aqueous Solutions , 1974 .
[38] K. Mittal. Magnesium , 1921, Reactions Weekly.
[39] F. Schäfer,et al. The Role of Native Oxides on the Corrosion Mechanism of Laves Phases in Mg–Al–Ca Composites , 2021 .
[40] G. Frankel,et al. Anomalous hydrogen evolution on AZ31, AZ61 and AZ91 magnesium alloys in unbuffered sodium chloride solution , 2019, Corrosion Science.
[41] K. Ogle,et al. Communication—Hydrogen Evolution and Elemental Dissolution by Combined Gravimetric Method and Atomic Emission Spectroelectrochemistry , 2019, Journal of the Electrochemical Society.