
We report the first observation of an enhanced electromechanical response in BaTiO3 thin films driven via local oxygen vacancy migration in piezoresponse force microscopy (PFM).
We report the first observation of an enhanced electromechanical response in BaTiO3 thin films driven via local oxygen vacancy migration in piezoresponse force microscopy (PFM).
Structure-mediated adsorption and interfacial ordering is key to designing ligands for extractions with enhanced selectivity and efficiency.
Manipulation of matter at the nanoscale in functional nanostructures allows to harness nanoscale and even quantum phenomena, with applications in electronics, plasmonics, optoelectronics, and sensing.
With advances in synthesis strategies, precise control of block copolymers over chemical species, architectures, block fractions, ionic groups, and molecular weights has become available.
Spatial control over molecular movement is typically limited because motion at the atomic scale follows stochastic processes.
Researchers revealed atomic-level correlated motion of water molecules at the crucial picosecond timescale to evaluate the dynamic nature of the liquid by using coherent X-ray scattering. This research could revolutionize understanding and control
The world’s first public benchmark dataset for the testing and evaluation of radiation detection and identification algorithms in an illicit radioactive source search campaign setting.
Direct laser writing, a nano 3D-printing approach, has enabled fabrication of customized carbon microelectrode sensors for neurochemical detection.
Metal halide perovskites are promising materials for optoelectronic and sensing applications.