High-conductance states of single benzenedithiol molecules
Makusu Tsutsui, Yumi Teramae, Shu Kurokawa, Akira Sakai
Abstract
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Makusu Tsutsui, Yumi Teramae, Shu Kurokawa, Akira Sakai
Abstract
Open-access reader
Conductance of single 1,4-benzenedithiol (BDT) molecules is investigated in a wide range (0–0.3)G0, exploiting mechanically controllable break junction technique. The authors observed a series of clear conductance steps both in low- (∼0.01G0) and high-conductance (∼0.1G0) regimes and corresponding two sets of peak structures in the conductance histograms. The two distinct conductance states are attributable to different Au–S bonding configurations of Au∕BDT∕Au junctions. The high-bias measurements reveal that the high-conductance state of single BDT molecules is stable up to 1.6V and prospective for molecular device applications.
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Conductance of single 1,4-benzenedithiol (BDT) molecules is investigated in a wide range (0–0.3)G0, exploiting mechanically controllable break junction technique. The authors observed a series of clear conductance steps both in low- (∼0.01G0) and high-conductance (∼0.1G0) regimes and corresponding two sets of peak structures in the conductance histograms. The two distinct conductance states are attributable to different Au–S bonding configurations of Au∕BDT∕Au junctions. The high-bias measurements reveal that the high-conductance state of single BDT molecules is stable up to 1.6V and prospective for molecular device applications.
Key concepts: Conductance, Break junction, Molecule, Materials science, Chemistry, Chemical physics, Nanotechnology, Molecular physics