Losiewicz | Electrocatalysts for Hydrogen Energy | Sonstiges | 978-3-03859-121-4 | sack.de

Sonstiges, Englisch, Band Volume 228, 420 Seiten, Format (B × H): 125 mm x 142 mm, Gewicht: 200 g

Reihe: Solid State Phenomena

Losiewicz

Electrocatalysts for Hydrogen Energy


Erscheinungsjahr 2015
ISBN: 978-3-03859-121-4
Verlag: Trans Tech Publications

Sonstiges, Englisch, Band Volume 228, 420 Seiten, Format (B × H): 125 mm x 142 mm, Gewicht: 200 g

Reihe: Solid State Phenomena

ISBN: 978-3-03859-121-4
Verlag: Trans Tech Publications


This special topic volume deals with the development of novel solid state electrocatalysts of a high performance to enhance the rates of the hydrogen or oxygen evolution. It contains a description of various types of metals, alloys and composites which have been obtained using electrodeposition in aqueous solutions that has been identified to be a technologically feasible and economically superior technique for the production of the porous electrodes. The goal was to produce papers that would be useful to both the novice and the expert in hydrogen technologies. This volume is intended to be useful to the materials scientist or electrochemist, student or profesional, who is planning studies of solid state electrocatalysts and who may have had little previous experience with electrochemical measurements. Such a reader will find an outline of basic theory and a discussion of experimental techniques and data analysis, with examples and appropriate references. It is hoped that the more advanced reader will also find this volume valuable as a review and summary of the literature up to the time of writing, with a discussion of current theoretical and experimental issues of research activity in the field of hydrogen energy.
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Electrode MaterialsIntermetallic Compounds as Catalysts in the Reaction of Electroevolution/Absorption of HydrogenMulti-Phased Electrode Materials for the Electroevolution of OxygenAmorphous Ni-P Electrode MaterialsNew Ni-Me-P Electrode MaterialsCharacterization of Composite Coatings Obtained by ElectrodepositionPhysical and Chemical Characterization of Ni+MoO2 Composite ElectrocoatingsElectrodeposition Mechanism of Composite CoatingsCharacteristics of the Galvanic Baths for Electrodeposition of Nickel Coatings Using the Hull CellThe Role of Ni(II) Ion Adsorption onto TiO2 in the Electrodeposition of Composite Ni-P+TiO2 CoatingsRelaxation Characteristics of the Electrodeposition Process of Composite Ni-P+TiO2+PTFE and Ni-P+Ni(OH)2+PTFE CoatingsElectrodeposition Process of Composite Ni-P+Ni(OH)2+PTFE CoatingsDC Current Electrodeposition of High Mo Content Ni-Mo Alloy Coatings from Alkaline SolutionsElectrodeposition of the Ni+MoS2 Composite ElectrocatalystsElectrodeposition of the Ni-Mo+MoO2 Composite ElectrocoatingsEffect of Phosphorus on the Structure of Nickel ElectrocoatingsEffect of Heat Treatment on the Structure of Ni-P ElectrocoatingsProduction and Structure of Ni-W and Ni+W CoatingsElectrodeposition and Thermal Treatment of Nickel Coatings Containing CobaltProduction and Structure of Nickel-Phosphorus Electrolytic Coatings Modified with Metallic Tungsten or Nickel OxideElectrolytic Production and Structure of Ni+Al+Ti Composite CoatingsElectrodeposition and Thermal Treatment of Ni+W+Si and Ni+W+Mo+Si Composite CoatingsAims of ElectrocatalysisHydrogen Evolution Reaction on Nickel-Phosphorus+Titanium Oxides Composite ElectrocoatingsTailoring Structural and Electrochemical Properties of Composite Ni-Based ElectrocoatingsCyclic Voltammetry Studies on Electrochemical Behavior of the Composite Ni-P+TiO2 Electrocatalysts in Alkaline SolutionsComparison of Electrocatalytic Activity of the Composite Ni-P+NiO and Ni-P+Ni(OH)2 Coatings for Hydrogen EvolutionProduction and Electrochemical Characterization of Nickel Based Composite Coatings Containing Chromium Group Metal and Silicon PowdersComparison of Electrochemical Properties of Ni+MoS2 and Ni Coatings in an Alkaline SolutionInfluence of Thermal Treatment on the Electrochemical Properties of Ni+Mo Composite Coatings in an Alkaline SolutionThe Influence of Temperature of Electrodeposition on the Electrochemical Properties of Ni+MoS2 Composite CoatingsThe Influence of Temperature of Electrodeposition on the Electrochemical Properties of Ni CoatingsEffect of Sodium Hypophosphite Content in the Electroplating Bath on the Electrochemical Properties of Ni-P Alloy CoatingsThe Hydrogen Evolution Reaction on Fe Electrode Material in 1 M NaOH SolutionComparison of Electrochemical Properties of Ni+NiAl and Ni Coatings in an Alkaline SolutionThe Influence of Temperature of Electrodeposition on the Electrochemical Properties of Ni+MoS2+Mo Composite CoatingsThe Influence of Current Density of Electrodeposition on the Electrochemical Properties of Ni-Mo Alloy CoatingsThe Hydrogen Evolution Reaction on Ni Electrode Material Modified with Molybdenum(IV) Oxide and Chromium(III) Oxide PowdersEffect of Molybdenum(IV) Oxide on the Process of Hydrogen Evolution on Ni+Mo Electrolytic Composite CoatingsElectrochemical Characterization of Nickel-Based Composite Coatings Containing Molybdenum or Tungsten NanopowdersEffect of Molybdenum Powder Granulation on Electrochemical Properties of Ni+Mo Composite CoatingsInfluence of Surface Development of Ni/W Coatings on the Kinetics of the Electrolytic Hydrogen EvolutionElectrochemical Characterization of Nickel-Phosphorus Based Coatings Containing CobaltInfluence of Thermal Treatment on the Electrochemical Properties of Ni+W+Mo+Si Composite Coatings in an Alkaline SolutionEffect of Phosphorus on the Corrosion Resistance of Nickel ElectrocoatingsA Coulometric Method by Local Anodic Dissolution for Measuring the Thickness of Ni/Cu Multi-Layer ElectrocoatingsQuantitative Methods Used to Describe the Structure of IronOn Problems of Determination of the Kinetics of Hydrogen Electroevolution Reaction
In Situ Structure-Sensitive Studies of Metal-Hydrogen Interactions by Scanning Kelvin ProbeUse of Scanning Vibrating Electrode Technique to Localized Corrosion EvaluationApplication of the Scanning Kelvin Probe Technique for Characterization of Corrosion InterfacesLocalized Electrochemical Impedance Spectroscopy for Studying the Corrosion Processes in a NanoscaleOn the Use of the Scanning Electrochemical Microscopy in Corrosion Research


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