We investigate the nature of charge transport in deoxyribonucleic acid (DNA) using self-assembled layers of DNA in large-area molecular junctions. A protocol was developed that yields dense monolayers where the DNA molecules are not standing upright, but are lying flat on the substrate. As a result the charge transport is measured not along the DNA molecules but in the transverse direction, across their diameter. The electrical transport data are consistent with the derived morphology. We demonstrate that the charge transport mechanism through DNA is identical to non-resonant tunneling through alkanethiols with identical length, classifying DNA as a dielectric
DNA molecules possess structure and molecular recognition properties that make them excellent candid...
Electronic coupling of the stacked heterocyclic base pairs in DNA duplexes makes DNA a promising bio...
The possibility that the stacked DNA bases can mediate vectorial electron transfer has been examined...
We investigate the nature of charge transport in deoxyribonucleic acid (DNA) using self-assembled la...
Deoxyribonucleic acid (DNA) has been hypothesized to act as a molecular wire due to the presence of ...
AbstractBackground: Multiple-stranded DNA assemblies, encoded by sequence, have been constructed in ...
Background: Multiple-stranded DNA assemblies, encoded by sequence, have been constructed in an effor...
Charge transport across novel DNA junctions has been studied for several decades. From early attempt...
DNA and DNA-based polymers are of interest in molecular electronics because of their versatile and p...
We present the evolution of current-voltage characteristics measured on linear fragments of deoxyrib...
Determining the mechanism of charge transport through native DNA remains a challenge as different fa...
The base pair stack within double helical DNA provides an effective medium for charge transport. The...
We report theoretical studies of charge transport in single-stranded DNA in the direction perpendicu...
Large area molecular junction-Ls "I have proven to be a robust and reliable system for studying elec...
DNA molecules possess structure and molecular recognition properties that make them excellent candid...
Electronic coupling of the stacked heterocyclic base pairs in DNA duplexes makes DNA a promising bio...
The possibility that the stacked DNA bases can mediate vectorial electron transfer has been examined...
We investigate the nature of charge transport in deoxyribonucleic acid (DNA) using self-assembled la...
Deoxyribonucleic acid (DNA) has been hypothesized to act as a molecular wire due to the presence of ...
AbstractBackground: Multiple-stranded DNA assemblies, encoded by sequence, have been constructed in ...
Background: Multiple-stranded DNA assemblies, encoded by sequence, have been constructed in an effor...
Charge transport across novel DNA junctions has been studied for several decades. From early attempt...
DNA and DNA-based polymers are of interest in molecular electronics because of their versatile and p...
We present the evolution of current-voltage characteristics measured on linear fragments of deoxyrib...
Determining the mechanism of charge transport through native DNA remains a challenge as different fa...
The base pair stack within double helical DNA provides an effective medium for charge transport. The...
We report theoretical studies of charge transport in single-stranded DNA in the direction perpendicu...
Large area molecular junction-Ls "I have proven to be a robust and reliable system for studying elec...
DNA molecules possess structure and molecular recognition properties that make them excellent candid...
Electronic coupling of the stacked heterocyclic base pairs in DNA duplexes makes DNA a promising bio...
The possibility that the stacked DNA bases can mediate vectorial electron transfer has been examined...