A solid state, electronically addressable, bistable [2]catenane-based molecular switching device was fabricated from a single monolayer of the [2]catenane, anchored with phospholipid counterions, and sandwiched between an n-type polycrystalline silicon bottom electrode and a metallic top electrode. The device exhibits hysteretic (bistable) current/voltage characteristics. The switch is opened at +2 volts, closed at −2 volts, and read at ∼0.1 volt and may be recycled many times under ambient conditions. A mechanochemical mechanism for the action of the switch is presented and shown to be consistent with temperature-dependent measurements of the device operation
An architectural rationale and an experimental program aimed at the development of molecular electro...
We present a first-principles study of the coherent charge transport properties of bistable [2]caten...
We report on the development and characterization of a simple two-terminal non-volatile graphene swi...
A solid state, electronically addressable, bistable [2]catenane-based molecular switching device was...
Side???chain poly[2]catenanes at the click of a switch! A bistable side???chain poly[2]catenane has ...
Solid-state tunnel junction devices were fabricated from Langmuir Blodgett molecular monolayers of a...
The influences of different physical environments on the thermodynamics associated with one key step...
The potential application of molecular switches as active elements in information storage has been d...
A reliable and reproducible solid-state molecular electronic device that shows bidirectional conduct...
This article describes two‐terminal molecular switch tunnel junctions (MSTJs) which incorporate a se...
The use of a functional molecular unit acting as a state variable provides an attractive alternative...
A reliable and reproducible solid-state molecular electronic device that shows bidirectional conduct...
The development of molecular electronic components has been accelerated by the promise of increased ...
Electronic devices containing molecules as either passive or active (switching) components present t...
Mechanically interlocked bistable supramolecular complexes are promising candidates of molecular ele...
An architectural rationale and an experimental program aimed at the development of molecular electro...
We present a first-principles study of the coherent charge transport properties of bistable [2]caten...
We report on the development and characterization of a simple two-terminal non-volatile graphene swi...
A solid state, electronically addressable, bistable [2]catenane-based molecular switching device was...
Side???chain poly[2]catenanes at the click of a switch! A bistable side???chain poly[2]catenane has ...
Solid-state tunnel junction devices were fabricated from Langmuir Blodgett molecular monolayers of a...
The influences of different physical environments on the thermodynamics associated with one key step...
The potential application of molecular switches as active elements in information storage has been d...
A reliable and reproducible solid-state molecular electronic device that shows bidirectional conduct...
This article describes two‐terminal molecular switch tunnel junctions (MSTJs) which incorporate a se...
The use of a functional molecular unit acting as a state variable provides an attractive alternative...
A reliable and reproducible solid-state molecular electronic device that shows bidirectional conduct...
The development of molecular electronic components has been accelerated by the promise of increased ...
Electronic devices containing molecules as either passive or active (switching) components present t...
Mechanically interlocked bistable supramolecular complexes are promising candidates of molecular ele...
An architectural rationale and an experimental program aimed at the development of molecular electro...
We present a first-principles study of the coherent charge transport properties of bistable [2]caten...
We report on the development and characterization of a simple two-terminal non-volatile graphene swi...