Expired Project

EMOIN: Engineering Metal Oxide Interfaces

Project details

Project title: EMOIN: Engineering Metal Oxide Interfaces
Project code: tiche018a
Project class: A

Start date: Thursday 17 December 2009
End date: Sunday 16 December 2012

Full National Service

National Capability Service

People

Project PI: Dr. Michael Nolan
Number of users: 2-5
Registered users: 3

Resulting publications

• Formation of Ce3+ at the cerium dioxide (1 1 0) surface by doping
• Surface and interstitial Ti diffusion at the rutile TiO2(110) surface
• Hybrid Density Functional Theory Description of Oxygen Vacancies in the CeO2 (110) and (100) Surfaces
• Reactivity of sub 1 nm supported clusters: (TiO2)n clusters supported on rutile TiO2 (110)
• Hybrid density functional theory description of N- and C-doping of NiO
• The Electronic Structure and Reactivity of Ce and Zr Doped TiO2: Assessing the Sensitivity to Density Functional Theory Approaches
• Electronic coupling in iron oxide-modified TiO2 leads to a reduced band gap and charge separation for visible light active photocatalysis
• Surface modification of TiO2 with metal oxide nanoclusters: a route to composite photocatalytic materials
• Tin oxide-surface modified anatase titanium(iv) dioxide with enhanced UV-light photocatalytic activity
• TiO2 Nanocluster Modified-Rutile TiO2 Photocatalyst: A first Principles Investigation
• The Origin of the Visible Light Response of Nickel(II)Oxide Cluster-Surface Modified Titanium(IV) Dioxide
• First Principles Prediction of New Photocatalyst Materials with Visible Light Absorption and Improved Charge Separation: Surface Modification of Rutile TiO2 with Nanoclusters of MgO and Ga2O3
• Molecular Metal Oxide Cluster-Surface Modified Titanium (IV) Dioxide Photocatalysts
• Photocatalytic Activities of Tin (IV) Oxide Surface-Modified Titanium (IV) Dioxide Show a Strong Sensitivity to the TiO2 Crystal Form

Allocated resources