Laser Techniques for the Study of Electrode Processes von Gyözö G. Láng | ISBN 9783642445286

Laser Techniques for the Study of Electrode Processes

von Gyözö G. Láng und Cesar A. Barbero
Mitwirkende
Autor / AutorinGyözö G. Láng
Autor / AutorinCesar A. Barbero
Buchcover Laser Techniques for the Study of Electrode Processes | Gyözö G. Láng | EAN 9783642445286 | ISBN 3-642-44528-4 | ISBN 978-3-642-44528-6

From the reviews:

“This is a well-written book, excelling in the rigor of presentation and in detailed reference lists at the end of each chapter, for the convenience and extended study of each subject discussed. … this book is of very high scientific value, which can be used by people doing research in this field. … the book can be highly recommended.” (E. Gileadi, Journal of Solid State Electrochemistry, Vol. 17, 2013)

Laser Techniques for the Study of Electrode Processes

von Gyözö G. Láng und Cesar A. Barbero
Mitwirkende
Autor / AutorinGyözö G. Láng
Autor / AutorinCesar A. Barbero

Laser-enabled measurements are valuable tools for the investigation of surfaces and interfaces or for the in situ investigation of interfacial processes including electrode processes. The understanding of the thermodynamics of solid/liquid surfaces is important for surface science and electrochemistry. In the first part of this book, the authors describe a range of techniques for investigating interfacial tension and surface stress, which is important for coatings, thin films, and fuel cells. The techniques covered comprise bending beam (bending plate, bending cantilever, wafer curvature) methods with different detection techniques. Special attention is given to methods using optical detection by laser beam deflection or interferometry. The second part is devoted to the techniques based on the detection of refractive index gradients in the solution. The refractive index changes could be related to concentration gradients (Probe Beam Deflection, PBD) or light-induced thermal gradients (Photothermal Deflection Spectroscopy, PDS). The application of the techniques to surface-confined and solution electrochemical systems is described. Subsequently, a comparison with others techniques able to monitor ion fluxes is performed.