In single-molecule transistors, we observe inelastic cotunneling features that correspond energetically to vibrational excitations of the molecule, as determined by Raman and infrared spectroscopy. This is a form of inelastic electron tunneling spectroscopy of single molecules, with the transistor geometry allowing in situ tuning of the electronic states via a gate electrode. The vibrational features shift and change shape as the electronic levels are tuned near resonance, indicating significant modification of the vibrational states. When the molecule contains an unpaired electron, we also observe vibrational satellite features around the Kondo resonance
We analyze how functionality could be obtained within single-molecule devices by using a combination...
Molecular systems can exhibit a complex, chemically tailorable inner structure which allows for targ...
Molecular systems can exhibit a complex, chemically tailorable inner structure which allows for targ...
In single-molecule transistors, we observe inelastic cotunneling features that correspond energetica...
We investigate the possibility of inducing nuclear dynamics in single-molecule devices via inelastic...
We study single-molecule oligo(phenylene ethynylene)dithiol junctions by means of inelastic electron...
We study single-molecule oligo(phenylene ethynylene)dithiol junctions by means of inelastic electron...
We study single-molecule oligo(phenylene ethynylene)dithiol junctions by means of inelastic electron...
We measure electron tunneling in transistors made from C140, a molecule with a mass-spring-mass geom...
We study single-molecule oligo(phenylene ethynylene)dithiol junctions by means of inelastic electron...
We measure electron tunneling in transistors made from C140, a molecule with a mass-spring-mass geom...
We measure electron tunneling in transistors made from C140, a molecule with a mass-spring-mass geom...
We measure electron tunneling in transistors made from C140, a molecule with a mass-spring-mass geom...
Molecular systems can exhibit a complex, chemically tailorable inner structure which allows for targ...
Molecular systems can exhibit a complex, chemically tailorable inner structure which allows for targ...
We analyze how functionality could be obtained within single-molecule devices by using a combination...
Molecular systems can exhibit a complex, chemically tailorable inner structure which allows for targ...
Molecular systems can exhibit a complex, chemically tailorable inner structure which allows for targ...
In single-molecule transistors, we observe inelastic cotunneling features that correspond energetica...
We investigate the possibility of inducing nuclear dynamics in single-molecule devices via inelastic...
We study single-molecule oligo(phenylene ethynylene)dithiol junctions by means of inelastic electron...
We study single-molecule oligo(phenylene ethynylene)dithiol junctions by means of inelastic electron...
We study single-molecule oligo(phenylene ethynylene)dithiol junctions by means of inelastic electron...
We measure electron tunneling in transistors made from C140, a molecule with a mass-spring-mass geom...
We study single-molecule oligo(phenylene ethynylene)dithiol junctions by means of inelastic electron...
We measure electron tunneling in transistors made from C140, a molecule with a mass-spring-mass geom...
We measure electron tunneling in transistors made from C140, a molecule with a mass-spring-mass geom...
We measure electron tunneling in transistors made from C140, a molecule with a mass-spring-mass geom...
Molecular systems can exhibit a complex, chemically tailorable inner structure which allows for targ...
Molecular systems can exhibit a complex, chemically tailorable inner structure which allows for targ...
We analyze how functionality could be obtained within single-molecule devices by using a combination...
Molecular systems can exhibit a complex, chemically tailorable inner structure which allows for targ...
Molecular systems can exhibit a complex, chemically tailorable inner structure which allows for targ...