Prediction of TiO2Nanoparticle Phase and Shape Transitions Controlled by Surface Chemistry
about
A relationship between structural and electronic order-disorder effects and optical properties in crystalline TiO2 nanomaterials.The Effect of Sulphate Anions on the Ultrafine Titania NucleationBifunctional single-crystalline rutile nanorod decorated heterostructural photoanodes for efficient dye-sensitized solar cells.Atomic-scale control of TiO₆ octahedra through solution chemistry towards giant dielectric response.Characterization of physicochemical properties of ivy nanoparticles for cosmetic application.Metastability of anatase: size dependent and irreversible anatase-rutile phase transition in atomic-level precise titania.Surface energies of elemental crystals.Hydrothermal etching fabrication of TiO2@graphene hollow structures: mutually independent exposed {001} and {101} facets nanocrystals and its synergistic photocaltalytic effects.Evaluating structure selection in the hydrothermal growth of FeS2 pyrite and marcasite.Modelling nano-clusters and nucleation.Nanosensors: towards morphological control of gas sensing activity. SnO2, In2O3, ZnO and WO3 case studies.Crystal facet engineering of semiconductor photocatalysts: motivations, advances and unique properties.Surface tuning for oxide-based nanomaterials as efficient photocatalysts.Facet-dependent photocatalytic properties of TiO(2) -based composites for energy conversion and environmental remediation.Polymorphic phase transition among the titania crystal structures using a solution-based approach: from precursor chemistry to nucleation process.Crystal splitting and enhanced photocatalytic behavior of TiO2 rutile nano-belts induced by dislocations.The potential health challenges of TiO2 nanomaterials.Faceted metal and metal oxide nanoparticles: design, fabrication and catalysis.Fabrication of Pt/Ti/TiO₂ Photoelectrodes by RF-Magnetron Sputtering for Separate Hydrogen and Oxygen Production.Shape-Dependent Single-Electron Levels for Au Nanoparticles.High-performance photoelectrochemical-type self-powered UV photodetector using epitaxial TiO₂/SnO₂ branched heterojunction nanostructure.TiO2 single crystal with four-truncated-bipyramid morphology as an efficient photocatalyst for hydrogen production.Active facets on titanium(III)-doped TiO2: an effective strategy to improve the visible-light photocatalytic activity.Thiolate adsorption on Au(hkl) and equilibrium shape of large thiolate-covered gold nanoparticles.Adsorption of N719 dye on anatase TiO2 nanoparticles and nanosheets with exposed (001) facets: equilibrium, kinetic, and thermodynamic studies.Size- and shape-dependent phase transformations in wurtzite ZnS nanostructures.A structural and surface approach to size and shape control of sulfur-modified undoped and Fe-doped TiO2 anatase nano-materials.Green synthesis of shape-defined anatase TiO2 nanocrystals wholly exposed with {001} and {100} facets.Morphologically-tunable TiO2 nanorod film with high energy facets: green synthesis, growth mechanism and photocatalytic activity.Hierarchical N-doped TiO2 hollow microspheres consisting of nanothorns with exposed anatase {101} facets.Effective increasing of optical absorption and energy conversion efficiency of anatase TiO2 nanocrystals by hydrogenation.Influence of post-treatment operations on structural properties and photocatalytic activity of octahedral anatase titania particles prepared by an ultrasonication-hydrothermal reaction.Titania single crystals with a curved surface.Tuning TiO2 nanoparticle morphology in graphene-TiO2 hybrids by graphene surface modification.Naturally occurring iron oxide nanoparticles: morphology, surface chemistry and environmental stabilityModelling nanoscale cubic ZnS morphology and thermodynamic stability under sulphur-rich conditionsModelling polar wurtzite ZnS nanoparticles: the effect of sulphur supersaturation on size- and shape-dependent phase transformationsMapping the photocatalytic activity or potential free radical toxicity of nanoscale titaniaUsing theory and modelling to investigate shape at the nanoscaleUnderstanding the Role of Nanostructures for Efficient Hydrogen Generation on Immobilized Photocatalysts
P2860
Q30884035-6585BD19-0F1E-4C2C-BAF2-B5B246273BC4Q33719895-7983B199-7734-4B43-9375-EB36C373C4E8Q33986211-63B3F377-73CC-4084-9F5B-77B2398E757AQ34318037-C9E4FF85-71C5-43AC-8C5B-3F4A2718F5A2Q36604554-BEC1C10F-9AA7-49A4-B26E-F1B322077F74Q36909701-808F88C2-BFE3-44B2-A1E1-6A21D9751298Q37252075-F84CF653-C348-4636-BB62-E583976EC088Q37267105-59BB70C6-2775-4131-8CC6-F0B2FC862AE8Q37518576-BF9A3667-9EA4-4370-960C-247B0051D492Q37672366-65588052-1D44-4303-B3BC-8B83EB1F20A7Q37802221-E953FAE5-F426-49F9-9729-BEA9CFD707FDQ37859284-A652D121-EE22-443C-8F7A-79F1E6E48072Q38139221-C1B218FA-F6C5-436F-8B1A-7B2C065B5D91Q38188511-EED73CC1-CF7A-4279-A9E3-CEBCBCF363D9Q38223588-88130A60-49EB-4B11-A64C-85E09A031CF3Q38455709-44E95A45-47C0-4121-8F7B-2478C2B7C11EQ38548114-5D6481DB-4AAD-4265-B1BD-56A6CCBCB5D0Q38563169-50BE4FBD-9666-41E9-9F96-9E9C4ABBFB1CQ40967610-0B4B79F6-08A6-42DA-819A-6D6A2E3BF633Q40967729-E08EFFD4-ACFA-4456-9093-ABF33B29C203Q43699689-CEFEF2AA-F684-4372-9DB0-936015219366Q44042719-B4BEE07E-3C1F-45C3-9E63-33152C46B011Q46041715-2F508E21-2044-4C10-9062-114FEFBA3D44Q46105875-CF64A424-8ED5-43D9-B0DE-779639064857Q46524357-44FD64B2-5E3C-4462-8A3B-91FFE6205DCFQ47302491-51F04FEF-FFD4-4A4D-AF67-462884FCBC83Q47320471-7AD2322A-0C60-43E9-B4C6-37AD75C12672Q50489577-BA62F46B-AE5E-4DCB-8FFF-BC0385AE3642Q50494050-2FFCFC27-14A9-44A9-822C-80550EF2B989Q50520298-F64EB0CC-D47B-4A94-99FB-55E4243BCA3EQ50526260-2BD4E74A-53E7-47AA-9D93-54F06FB8303CQ51006669-050C025C-DA9A-4EBC-A872-942C57257CC8Q53095748-C17642CD-F096-4439-ACE5-6F4187915BBDQ53552853-C140AC66-6A9B-474E-B39F-C0E54EFF2E96Q57186983-B99E31E5-6998-48E9-BF70-EC14DA83B0C6Q57187006-69E3EC27-36DB-4F3F-8FA4-AB7D53E24515Q57187013-60EF5BE3-7D53-480D-9FE1-8607000FFE32Q57187048-E8AA494A-31CC-43CF-8B9E-E449FA7F8462Q57187221-38F36D90-930F-4535-9BC4-5F4DDB339D3AQ57344238-DDC39EF2-0E54-4501-B7EB-894D750B11B2
P2860
Prediction of TiO2Nanoparticle Phase and Shape Transitions Controlled by Surface Chemistry
description
im Juli 2005 veröffentlichter wissenschaftlicher Artikel
@de
scientific article published on 01 July 2005
@en
wetenschappelijk artikel
@nl
наукова стаття, опублікована в липні 2005
@uk
name
Prediction of TiO2Nanoparticle ...... ontrolled by Surface Chemistry
@en
Prediction of TiO2Nanoparticle ...... ontrolled by Surface Chemistry
@nl
type
label
Prediction of TiO2Nanoparticle ...... ontrolled by Surface Chemistry
@en
Prediction of TiO2Nanoparticle ...... ontrolled by Surface Chemistry
@nl
prefLabel
Prediction of TiO2Nanoparticle ...... ontrolled by Surface Chemistry
@en
Prediction of TiO2Nanoparticle ...... ontrolled by Surface Chemistry
@nl
P356
P1433
P1476
Prediction of TiO2 nanoparticl ...... ontrolled by surface chemistry
@en
P2093
L A Curtiss
P304
P356
10.1021/NL050355M
P407
P577
2005-07-01T00:00:00Z