Electrochemical Surface Science: Basics and Applications

Alonso-Vante, Nicolas; Granozzi, Gaetano

doi:10.3390/books978-3-03921-643-7

dc.contributor.author	Alonso-Vante, Nicolas	*
dc.contributor.author	Granozzi, Gaetano	*
dc.date.accessioned	2021-02-11T12:19:58Z
dc.date.available	2021-02-11T12:19:58Z
dc.date.issued	2019	*
dc.date.submitted	2019-12-09 11:49:15	*
dc.identifier	42567	*
dc.identifier.uri	https://directory.doabooks.org/handle/20.500.12854/46135
dc.description.abstract	Electrochemical surface science (EC-SS) is the natural advancement of traditional surface science (where gas–vacuum/solid interfaces are studied) to liquid (solution)/electrified solid interfaces. Such a merging between two different disciplines—i.e., surface science (SS) and electrochemistry—officially advanced ca. three decades ago. The main characteristic of EC-SS versus electrochemistry is the reductionist approach undertaken, inherited from SS and aiming to understand the microscopic processes occurring at electrodes on the atomic level. A few of the exemplary keystone tools of EC-SS include EC-scanning probe microscopies, operando and in situ spectroscopies and electron microscopies, and differential EC mass spectrometry (DEMS). EC-SS indirectly (and often unconsciously) receives a great boost from the requirement for rational design of energy conversion and storage devices for the next generation of energetic landscapes. As a matter of fact, the number of material science groups deeply involved in such a challenging field has tremendously expanded and, within such a panorama, EC and SS investigations are intimately combined in a huge number of papers. The aim of this Special Issue is to offer an open access forum where researchers in the field of electrochemistry, surface science, and materials science could outline the great advances that can be reached by exploiting EC-SS approaches. Papers addressing both the basic science and more applied issues in the field of EC-SS and energy conversion and storage materials have been published in this Special Issue.	*
dc.language	English	*
dc.subject	QD1-999	*
dc.subject	QD146-197	*
dc.subject	Q1-390	*
dc.subject.classification	thema EDItEUR::P Mathematics and Science::PN Chemistry	en_US
dc.subject.other	Pd thin films	*
dc.subject.other	n/a	*
dc.subject.other	Auger-Electron Spectroscopy	*
dc.subject.other	benchmarking	*
dc.subject.other	potential-dependent structures	*
dc.subject.other	CO electro-oxidation	*
dc.subject.other	surface reconstruction	*
dc.subject.other	photo-electrochemistry	*
dc.subject.other	nitrogen doping	*
dc.subject.other	potential stepping	*
dc.subject.other	DFT	*
dc.subject.other	nanoparticles	*
dc.subject.other	carbon nanofiber	*
dc.subject.other	Pd	*
dc.subject.other	gas diffusion electrode	*
dc.subject.other	flexible ITO	*
dc.subject.other	UPS	*
dc.subject.other	palladium	*
dc.subject.other	Lead OPD	*
dc.subject.other	formic acid oxidation	*
dc.subject.other	cobalt oxide	*
dc.subject.other	adsorbed OH	*
dc.subject.other	electrochemistry	*
dc.subject.other	Pt	*
dc.subject.other	mesopore	*
dc.subject.other	DMFC	*
dc.subject.other	pH and concentration effects	*
dc.subject.other	solvothermal method	*
dc.subject.other	direct methanol fuel cells	*
dc.subject.other	EF-PEEM	*
dc.subject.other	PVDF	*
dc.subject.other	self-assembly	*
dc.subject.other	PEMFC	*
dc.subject.other	hard X rays	*
dc.subject.other	photochemistry	*
dc.subject.other	EQCM	*
dc.subject.other	potential cycling	*
dc.subject.other	surface alloy	*
dc.subject.other	near ambient pressure XPS	*
dc.subject.other	cobalt-based electrocatalyst	*
dc.subject.other	silver single crystals	*
dc.subject.other	Cu(111)	*
dc.subject.other	electrodeposited alloys	*
dc.subject.other	Pt single-crystal electrodes	*
dc.subject.other	SOFC	*
dc.subject.other	TiO2	*
dc.subject.other	oxygen evolution reaction	*
dc.subject.other	silicon nanoparticles	*
dc.subject.other	pump &amp	*
dc.subject.other	graphitization	*
dc.subject.other	in situ EC-STM	*
dc.subject.other	oxygen reduction	*
dc.subject.other	gold	*
dc.subject.other	diazonium salts	*
dc.subject.other	Au	*
dc.subject.other	micropore	*
dc.subject.other	solid/liquid interface	*
dc.subject.other	XPS	*
dc.subject.other	XAFS	*
dc.subject.other	surface chemistry	*
dc.subject.other	electrosynthesis	*
dc.subject.other	porous fiber	*
dc.subject.other	surface science	*
dc.subject.other	click chemistry	*
dc.subject.other	adhesion	*
dc.subject.other	in situ	*
dc.subject.other	methanol oxidation reaction	*
dc.subject.other	hydroxyl radical	*
dc.subject.other	mass transport	*
dc.subject.other	free electron laser	*
dc.subject.other	cyclic voltammetry	*
dc.subject.other	redox properties	*
dc.subject.other	electro-oxidation	*
dc.subject.other	X-ray absorption spectroscopy	*
dc.subject.other	hydrogen adsorption	*
dc.subject.other	electrodeposition	*
dc.subject.other	electrocatalysis	*
dc.subject.other	Ordered mesoporous carbon	*
dc.subject.other	Corrosion Protection	*
dc.subject.other	electrochemical interface	*
dc.subject.other	cyclic voltammetry (CV)	*
dc.subject.other	FEXRAV	*
dc.subject.other	photoelectron simulations	*
dc.subject.other	Pt–Ru catalysts	*
dc.subject.other	d-band theory	*
dc.subject.other	bimetallic alloy	*
dc.subject.other	photoconversion	*
dc.subject.other	ordered mesoporous carbons	*
dc.subject.other	carbon nanofibers (CNFs)	*
dc.subject.other	platinum	*
dc.subject.other	water splitting	*
dc.subject.other	Surface Modification	*
dc.subject.other	EPR spectroscopy	*
dc.subject.other	scanning photoelectron microscopy	*
dc.subject.other	model catalyst	*
dc.subject.other	energy dispersive	*
dc.subject.other	porphyrins	*
dc.subject.other	combined non-covalent control	*
dc.subject.other	AES	*
dc.subject.other	spin-coating	*
dc.subject.other	SAMs	*
dc.subject.other	water oxidation	*
dc.subject.other	in-situ X-ray diffraction	*
dc.subject.other	Au nanocrystals	*
dc.subject.other	model systems	*
dc.subject.other	platinum single crystals	*
dc.subject.other	cathode	*
dc.subject.other	redox monolayers	*
dc.subject.other	surface nanostructures	*
dc.subject.other	bifunctional oxygen electrode	*
dc.subject.other	polymer	*
dc.subject.other	photoelectrochemistry	*
dc.subject.other	metal-electrolyte interface	*
dc.subject.other	electrocatalysts	*
dc.subject.other	APTES	*
dc.subject.other	porogen	*
dc.subject.other	electrophoretic deposition	*
dc.subject.other	thin-films	*
dc.subject.other	ammonia activation	*
dc.subject.other	graphene	*
dc.subject.other	ORR	*
dc.subject.other	polypyrrole	*
dc.subject.other	iridium	*
dc.subject.other	surface area	*
dc.subject.other	reduced graphene oxide	*
dc.subject.other	Magnetite	*
dc.subject.other	Platinum	*
dc.subject.other	electrospinning	*
dc.subject.other	catalysts	*
dc.subject.other	Blackening of Steel	*
dc.subject.other	switchable surfaces	*
dc.subject.other	in situ ambient pressure XPS	*
dc.subject.other	fuel cells	*
dc.subject.other	methanol oxidation	*
dc.subject.other	quick-XAS	*
dc.subject.other	nickel	*
dc.subject.other	CO oxidation	*
dc.subject.other	solid oxide fuel cells	*
dc.subject.other	operando	*
dc.subject.other	probe	*
dc.subject.other	CdS	*
dc.subject.other	alkanthiols	*
dc.subject.other	ECALE	*
dc.subject.other	alkoxyamine surfaces	*
dc.subject.other	underpotential deposition (upd)	*
dc.title	Electrochemical Surface Science: Basics and Applications	*
dc.type	book
oapen.identifier.doi	10.3390/books978-3-03921-643-7	*
oapen.relation.isPublishedBy	46cabcaa-dd94-4bfe-87b4-55023c1b36d0	*
oapen.relation.isbn	9783039216420	*
oapen.relation.isbn	9783039216437	*
oapen.pages	398	*
oapen.edition	1st	*

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