We combine molecular dynamics simulations and density functional theory to analyze the electrical structure and transmission probability in four different DNA sequences under physiological conditions. The conductance in these sequences is primarily controlled by interstrand and intrastrand coupling between low-energy guanine orbitals. Insertion of adenine-thymine base pairs between the guanine-cytosine rich domains acts as a tunneling barrier. Our theory explains recent length dependent conductance data for individual DNA molecules in water
This article reviews our recent theoretical development toward understanding the interplay of electr...
We systematically examine all the tight-binding parameters pertinent to charge transfer along DNA. T...
ABSTRACT: We present a detailed study of the charge transport characteristics of double-stranded DNA...
AbstractWe study the electronic properties of DNA by way of a tight-binding model applied to four pa...
ABSTRACT We study the electronic properties of DNA by way of a tight-binding model applied to four p...
Using a technique based on embedding in a local-orbital formalism, the electronic structure and elec...
We study the electronic properties of DNA by way of a tight-binding model applied to four particular...
We present a DFT/classical molecular dynamics model of DNA charge conductivity. The model involves a...
We study electronic transport in long DNA chains using the tight-binding approach for a ladder-like ...
An experimental investigation and theoretical study of the duplex DNA sequences d(5′-GAGG-3′)â d(3′-...
We are investigating the electronic properties of DNA by looking at a tight-binding model and four D...
Electronic transport through DNA wires in the presence of a strong dissipative environment is invest...
Measurements of electron transfer rates as well as of charge transport characteristics in DNA produc...
We investigate the influence of a dissipative environment which effectively comprises the effects of...
In Chap. 4, Koslowski and Cramer address the phenomenon of charge transport in DNA using a simple, b...
This article reviews our recent theoretical development toward understanding the interplay of electr...
We systematically examine all the tight-binding parameters pertinent to charge transfer along DNA. T...
ABSTRACT: We present a detailed study of the charge transport characteristics of double-stranded DNA...
AbstractWe study the electronic properties of DNA by way of a tight-binding model applied to four pa...
ABSTRACT We study the electronic properties of DNA by way of a tight-binding model applied to four p...
Using a technique based on embedding in a local-orbital formalism, the electronic structure and elec...
We study the electronic properties of DNA by way of a tight-binding model applied to four particular...
We present a DFT/classical molecular dynamics model of DNA charge conductivity. The model involves a...
We study electronic transport in long DNA chains using the tight-binding approach for a ladder-like ...
An experimental investigation and theoretical study of the duplex DNA sequences d(5′-GAGG-3′)â d(3′-...
We are investigating the electronic properties of DNA by looking at a tight-binding model and four D...
Electronic transport through DNA wires in the presence of a strong dissipative environment is invest...
Measurements of electron transfer rates as well as of charge transport characteristics in DNA produc...
We investigate the influence of a dissipative environment which effectively comprises the effects of...
In Chap. 4, Koslowski and Cramer address the phenomenon of charge transport in DNA using a simple, b...
This article reviews our recent theoretical development toward understanding the interplay of electr...
We systematically examine all the tight-binding parameters pertinent to charge transfer along DNA. T...
ABSTRACT: We present a detailed study of the charge transport characteristics of double-stranded DNA...