Titanium dioxide (TiO 2) has been the most intensively investigated binary transition metal
oxide in the past four decades as indicated by Figure S1. Furthermore, the annual number of …

TiO 2 nanosheets with highly reactive {001} facets ({001}-TiO 2) have attracted great
attention in the fields of science and technology because of their unique properties. In recent …

Complex three-dimensional hierarchical structures assembled from well-defined low-
dimensional nanosized building blocks are an interesting class of nanomaterials with a rich …

Crystal facet engineering of semiconductors has become an important strategy for fine-
tuning the physicochemical properties and thus optimizing the reactivity and selectivity of …

The properties of nanomaterials for use in catalytic and energy storage applications strongly
depends on the nature of their surfaces. Nanocrystals with high surface energy have an …

Titanium dioxide (TiO2) is one of the most widely investigated metal oxides due to its
extraordinary surface, electronic and catalytic properties. However, the large band gap of …

Control of the surface structure of inorganic materials, in particular titania (TiO2), by chemical
processes under nonequilibrium conditions is of growing interest from scientific and …

Photocatalysis is critically important for environmental remediation and renewable energy
technologies. The ability to objectively characterize photocatalyst properties and …

Tailoring the microstructure of pristine TiO 2 is essential to narrow its band gap and prolong
the charge lifetime. In particular, strategies involving fluorine have been used successfully to …

Uniform anatase TiO2 nanocuboids enclosed by active {100} and {001} facets over a wide
size range (60–830 nm in length) with controllable aspect ratios were solvothermally …