
pmid: 24849332
AbstractThe modification of surfaces by the deposition of a robust overlayer provides an excellent handle with which to tune the properties of a bulk substrate to those of interest. Such control over the surface properties becomes increasingly important with the continuing efforts at down‐sizing the active components in optoelectronic devices, and the corresponding increase in the surface area/volume ratio. Relevant properties to tune include the degree to which a surface is wetted by water or oil. Analogously, for biosensing applications there is an increasing interest in so‐called “romantic surfaces”: surfaces that repel all biological entities, apart from one, to which it binds strongly. Such systems require both long lasting and highly specific tuning of the surface properties. This Review presents one approach to obtain robust surface modifications of the surface of oxides, namely the covalent attachment of monolayers.
oxidized aluminum surface, sensitized solar-cells, field-effect transistors, organized molecular assemblies, self-assembled monolayers, phosphonic acid monolayers, thin-film transistors, single-crystal surfaces, contact-angle hysteresis, indium-tin oxide
oxidized aluminum surface, sensitized solar-cells, field-effect transistors, organized molecular assemblies, self-assembled monolayers, phosphonic acid monolayers, thin-film transistors, single-crystal surfaces, contact-angle hysteresis, indium-tin oxide
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