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Photoelectrochemistry

Bibliographic Details
Other Authors: Gurevich, Yu (Editor)
Format: eBook
Language:English
Published: New York, NY Springer US 1980, 1980
Edition:1st ed. 1980
Subjects:
Neuroscience
Neurosciences
Electrochemistry
Online Access:
Collection: Springer Book Archives -2004 - Collection details see MPG.ReNa
Table of Contents:
  • 3.5. The Choice of Acceptors for Solvated Electrons
  • 4. Photoelectron Emission in Solutions: Its Discovery, Kinetics, and Energetics
  • 4.1. Introductory Notes
  • 4.2. The Dependence of the Photoemission Current on the Electrode Potential and Quantum Energy. Experimental Verification of the 5/2 Power Law
  • 4.3. The Effect of the Nature of the Metal on Photoemission and Electrochemical Kinetics
  • 4.4. Energetics of Excess Electrons in Polar Solvents
  • 4.5. The Effect of the Light Frequency and Polarization. Bulk andSurface Excitation of Electrons
  • 4.6. Multiphoton Emission
  • 5. Emitted Electrons in Solution: Subsequent Transformations
  • 5.1. Dependence of the Photocurrent on Acceptor Concentration
  • 5.2. Is There a Contribution of “Dry” Electrons to Photodiffusion Currents?
  • 5.3. Characteristics of Retardation and Hydration of Photoelectrons
  • 5.4.Slow Capture of Hydrated Electrons by the Metal Surface
  • 0.1. Historical Background
  • 0.2. Stages of Photoelectron Emission into Solution
  • 0.3. General Features of Emission Phenomena in Electrochemical Systems
  • 1. Fundamentals of the Theory of Photoelectron Emission from Metals into Solutions
  • 1.1. Qualitative Description of the Phenomenon
  • 1.2. The Threshold Approach to Photoemission
  • 1.3. Calculation of the Photoemission Current
  • 1.4. The 5/2 Power Law
  • 1.5. The Effects of the Double Layer on the Photoemission
  • 1.6. Dependence of the Photoemission Current on the Characteristics of the Irradiation
  • 2. Theory of Photodiffusion Currents
  • 2.1. Formulation of the Problem and Basic Relations
  • 2.2. Stationary Photodiffusion Currents
  • 2.3. Alternating Photodiffusion Currents
  • 3. Experimental Techniques in Photoemission Studies
  • 3.1. General Discussion of Photocurrent Measurements
  • 3.2. Measuring Apparatus
  • 3.3. Electrode Illumination
  • 3.4. Electrochemical Cells
  • 5.5. Measurements of the Rate Constants of Electron Capture by Acceptors
  • 5.6. Method of Competing Acceptors in Photoemission Studies
  • 6. Investigation of the Structure of the Electric Double Layer Using the Photoemission Method
  • 6.1. The Role of the Diffuse Layer in Photoemission Phenomena; General Considerations
  • 6.2. Dependence of the Photocurrent on Electrolyte Concentration
  • 6.3. Measurement of the Potential of Zero Charge by a Photoemission Method
  • 6.4. Direct Experimental Determination of the ? Potential
  • 6.5. Investigation of Specific Adsorption
  • 6.6. Evaluation of the Thickness of the Compact Layer
  • 7. Photoemission As a Method of Investigation of Electrochemical Kinetics: Processes Involving Atomic Hydrogen
  • 7.1. Formation of Atomic Hydrogen in Electrochemical Reactions. Phenomenology and Empirical Equations
  • 7.2. Basic Experimental Data Concerning Atomic Hydrogen Reactions
  • 7.3. The Role of the Adsorption Stage
  • 7.4. The Mechanism of Atomic Hydrogen Reactions on Mercury Electrodes
  • 7.5. The Mechanism of Atomic Hydrogen Reactions at Bismuth and Other Solid Electrodes
  • 7.6. The Effect of the Double Layer on the Kinetics of Atomic Hydrogen Reactions
  • 8. Photoemission As a Method of Investigating Homogeneous Reactions Involving Free Radicals
  • 8.1. Chemical and Electrochemical Reactions of the Radical Anion NO32-
  • 8.2. Chemical and Electrochemical Reactions Involving CO2? and CH3° Radicals
  • 8.3. Chemical Reactions of H and OH Radicals with Alcohols and Other Organic Compounds
  • 8.4. Multielectron Electrochemical Reactions Initiated by Photoemission
  • 9. Photoelectron Emission from Semiconductors into Solutions and from Solutions into the Vapor Phase
  • 9.1. Qualitative Description ofPhotoemission from Semiconductors
  • 9.2. Calculation of the Photoemission Current at Semiconductor Electrodes
  • 9.3. Photoemission from Semiconductor Electrodes: Experimental
  • 9.4. Photoelectron Emission from Solutions into the Vapor Phase. Schematic Aspects of the Process
  • 9.5. Principles of the Theory of Photoelectron Emission from Solutions
  • 9.6. Photoelectron Emission from Solutions. Basic Experimental Results
  • 10. Specific Problems of Photoelectrochemical Phenomena
  • 10.1. Currents of Photoelectrochemical Reactions
  • 10.2. Currents of the Pulse Warm-Up of the Electrode
  • 10.3. Cathodic Generation of Solvated Electrons. Is the Solvated Electron an Intermediate in Cathodic Reactions?
  • 10.4. Photoelectrochemical Effects Due to Surface Plasmons
  • 10.5. Photoemission into Various Media
  • 11. Perspectives of Photoemission Studies
  • Appendixes
  • References

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