These nanostructures form the basis of nanotechnology applications in sensors and molecular electronics for next generation high performance nano-devices.
Several examples are provided using this method from electron tunneling, to molecular electronics, to electronic devices: (i) On a Au nanojunction, the tunneling current dependence on the electrode electrode distance is investigated.
The scope of the nanogap covers from molecular electronics, biomolecular sensing, and biomedical applications.
Dissymmetric micro- and nanoobjects are of enormous interest in many areas ranging from molecular electronics to targeted drug delivery.
Because of the unique structural, mechanical, and electrical properties, 1-D (one-dimensional) carbon nanotubes and nanofibers have been studied for possible use in many fields from molecular electronics to biomedical applications for several years.
The ability to chemoselectively ligate a range of biomolecules, polymers, nanoparticles, and nanomaterials is fundamental to current chemistry research and is crucial for a wide range of applications from protein conjugation, pharmaceutical therapies, molecular electronics, polymer synthesis, drug delivery, and tissue engineering.
Molecular electronics has been associated with high density nano-electronic devices.
Molecular electronics will also require reliable molecular wires to carry signals from one molecular circuit element to another.
Jason disputed that assessment, noting that a third of its members were not physicists and citing recent studies ranging from modeling biological systems to building computers with molecular electronics.
