Techniques for manufacturing large-area surface patterns with well-defined nanostructures, as required for advanced device applications with excellent performance, are lacking today. To overcome this bottleneck a new three-dimensional (3-D) surface nano-patterning technique will be established. The realization of this hybrid methodology will enable large-scale 3-D surface patterns with multifunctional and well-defined nano-structures. More importantly, it will give access to the most important advantage of nano-structured materials, i.e. the extremely large specific surface area, which is missing in two-dimensional surface nano-patterning. As a first application of this innovative fabrication strategy, 3-D tungsten oxide tubular surface nanostructures will be used for constructing a new high-sensitivity gas sensor device with multi-selective gas sensing capability.
Lei, Yong | Institut für Materialphysik |
Wilde, Gerhard | Professur für Materialphysik (Prof. Wilde) |
Lei, Yong | Institut für Materialphysik |
Wilde, Gerhard | Professur für Materialphysik (Prof. Wilde) |