Resonant tunneling through a C60 molecular junction in liquid environment
arXiv:cond-mat/0507264 · doi:10.1088/0957-4484/16/10/029
Abstract
We present electronic transport measurements through thiolated C molecules in liquid environment. The molecules were placed within a mechanically controllable break junction using a single anchoring group per molecule. When varying the electrode separation of the C-modified junctions, we observed a peak in the conductance traces. The shape of the curves is strongly influenced by the environment of the junction as shown by measurements in two distinct solvents. In the framework of a simple resonant tunneling model, we can extract the electronic tunneling rates governing the transport properties of the junctions.
13 pages, 4 figures. To appear in Nanotechnology
References in corpus (1)
Cited by in corpus (11)
- Pair tunneling through single molecules
- Modeling extended contacts to nanotube and graphene devices
- Shot noise suppression at room temperature in atomic-scale Au junctions
- Charge transport through redox active [H7P8W48O184]33- polyoxometalates self-assembled onto gold surfaces and gold nanodots
- Electrically controlled quantum dot based spin current injector
- Synthesis and electrical properties of fullerene-based molecular junctions on silicon substrate
- Experimental observation of the role of countercations on the electrical conductance of Preyssler-type polyoxometalate nanodevices
- A Mechanically Tunable Quantum Dot in a Graphene Break Junction
- Charge transport through a single molecule of trans-1-bis-diazofluorene [60]fullerene
- Optimal in situ electromechanical sensing of molecular species
- Slow Vibrations in Transport through Molecules