We propose the design of a single-molecule diode with a rectification ratio exceeding a million. The employed mechanism is based on coherent resonant charge transport across a molecule that consists of four conjugated sites coupled by non-conjugated bridges. Using density functional theory calculations, we rationalize the design of the molecule and demonstrate the crucial role of aligning the sites at a specific voltage. Rectification ratios are calculated for a series of chemical substituents and demonstrate that with careful molecular design, high rectification ratios can be achieved. Finally, we comment on the shortcomings of our approach, how further improvements can be obtained and discuss some of the experimental challenges.</p
The fabrication of nanodevices with specific molecular rectifying function is one of the most signif...
Fundamental advances in our ability to design and construct electronic components at the nanoscale w...
A challenge in molecular electronics is to control the strength of the molecule-electrode coupling t...
In recent years, a wide range of single-molecule devices has been realized, enabled by technological...
Rectification has been at the foundation of molecular electronics. Most single-molecule diodes reali...
In the pursuit of down-sizing electronic components, the ultimate limit is the use of single molecul...
The quest for a molecular rectifier is among the major challenges of molecular electronics. We intro...
This paper describes a molecular diode with high, statistically robust, rectification ratios <i>R</i...
We have designed and synthesized a molecular rod that consists of two weakly coupled electronic π -s...
In the pursuit of down-sizing electronic components, the ultimate limit is the use of single molecul...
In 1974, molecular electronics pioneers Mark Ratner and Arieh Aviram predicted that a single molecul...
Some tasks performed by solid-state electronic devices can also be carried out by single organic mol...
The concept of utilizing a molecule bridged between two electrodes as a stable rectifying device wit...
Three rules for creating highly effective unimolecular rectifiers that utilize asymmetric anchoring ...
Molecular diodes operating in the tunnelling regime are intrinsically limited to a maximum rectifica...
The fabrication of nanodevices with specific molecular rectifying function is one of the most signif...
Fundamental advances in our ability to design and construct electronic components at the nanoscale w...
A challenge in molecular electronics is to control the strength of the molecule-electrode coupling t...
In recent years, a wide range of single-molecule devices has been realized, enabled by technological...
Rectification has been at the foundation of molecular electronics. Most single-molecule diodes reali...
In the pursuit of down-sizing electronic components, the ultimate limit is the use of single molecul...
The quest for a molecular rectifier is among the major challenges of molecular electronics. We intro...
This paper describes a molecular diode with high, statistically robust, rectification ratios <i>R</i...
We have designed and synthesized a molecular rod that consists of two weakly coupled electronic π -s...
In the pursuit of down-sizing electronic components, the ultimate limit is the use of single molecul...
In 1974, molecular electronics pioneers Mark Ratner and Arieh Aviram predicted that a single molecul...
Some tasks performed by solid-state electronic devices can also be carried out by single organic mol...
The concept of utilizing a molecule bridged between two electrodes as a stable rectifying device wit...
Three rules for creating highly effective unimolecular rectifiers that utilize asymmetric anchoring ...
Molecular diodes operating in the tunnelling regime are intrinsically limited to a maximum rectifica...
The fabrication of nanodevices with specific molecular rectifying function is one of the most signif...
Fundamental advances in our ability to design and construct electronic components at the nanoscale w...
A challenge in molecular electronics is to control the strength of the molecule-electrode coupling t...