His research is focused on fabricating and exploring
the properties of nanostructured materials, surfaces, and interfaces to improve energy transport and conversion.
Not exact matches
By adding semiconducting nanoparticles to polymers, the
Materials + Technologies Research Group (GMT) of the Polytechnical College of San Sebastian of the UPV / EHU - University of the Basque Country has created nanostructured composite materials with specific optical and electrical properties that vary according
Materials + Technologies Research Group (GMT)
of the Polytechnical College
of San Sebastian
of the UPV / EHU - University
of the Basque Country has created
nanostructured composite
materials with specific optical and electrical properties that vary according
materials with specific optical and electrical
properties that vary according to size.
Material scientists expect the new multifunctional
properties of hybrid
nanostructures will transform the development
of high - performance devices, including batteries, high - sensitivity sensors and solar cells.
«One
of the things that make
nanostructures interesting, is that the surface plays a larger role in defining the
material's
properties,» says Aloni.
«From the linear
properties, one calculates the nonlinear polarization and the mode
of the
nanostructure at the second harmonic,» says Kevin O'Brien, co-lead author
of the Nature
Materials paper and a member
of Zhang's research group.
Resume: Thermal
properties of nanostructures are
of interest due to their applications in thermoelectric
materials and energy harvesting.
The latest investigations on the thermal
properties of silicon, the most common
material in electronics, micro - and nano - electro - mechanical systems (MEMS and NEMS) and photonics, have pointed to
nanostructuring as a highly efficient approach to acoustic phonon engineering [1 - 3].
«With our new ability to probe both polymer
properties and
nanostructure, it will be possible to tune
materials for optimal performance in an array
of novel technologies, Collins said.
Schüth talked about the progress made in controlling the
properties of nanostructures for catalytic
materials.
Prof. Su's current research fields include the design, the synthesis, the
property study and the molecular engineering
of nanostructures and highly organized and hierarchically self - assembled porous
materials, bio-integrated living and bio-inspired
materials including leaf - like
materials by the immobilization
of living organisms and biomaterials for catalysis, photocatalysis, CO2 reduction and water splitting, artificial photosynthesis, nanotechnology, biotechnology, information technology, energy storage and conversion, cell therapy and biomedical applications.
Nanostructured, enhanced with silicon oxide, covered with a nanometer - thin layer
of aluminum oxide and cobalt oxide — these treatments optimize the electrochemical
properties of the
material, but are nonetheless simple to apply.