Using a tight binding model, we have investigated charge transport in model DNA sequences under external ac bias. The numerical results of emittance for several model DNA sequences are found to be well described by an analytical formula, especially when the dynamic response is inductivelike. This formula can be understood from general considerations of scattering matrix theory. The temperature dependence of emittance is also studied numerically within the tight binding model, and dynamic response of the model DNA sequences can change from inductivelike to capacitivelike as temperature is varied.published_or_final_versio
We report on theoretical results about contact-dependent effects and tunneling currents through DNA ...
We present a model to describe electrical conductivity along the DNA double helix. In this model, DN...
We present a DFT/classical molecular dynamics model of DNA charge conductivity. The model involves a...
Using a tight binding model, we have investigated charge transport in model DNA sequences under exte...
AbstractWe study the electronic properties of DNA by way of a tight-binding model applied to four pa...
We study the electronic properties of DNA by way of a tight-binding model applied to four particular...
In order to interpret recent experimental studies of the dependence of conductance of ds-DNA as the ...
In order to interpret recent experimental studies of the dependence of conductance of ds-DNA as the ...
We study electronic transport in long DNA chains using the tight-binding approach for a ladder-like ...
Abstract Background Deoxyribonucleic acid (DNA) is one of the best candidate materials for various d...
The idea of incorporating DNA molecules in designing nanoscale electronic devices has drawn the att...
Electronic transport through DNA wires in the presence of a strong dissipative environment is invest...
Electronic transport through DNA wires in the presence of a strong dissipative environment is invest...
In this work we consider the combined effect of helical structure and base-pair twist motion on char...
We present a DFT/classical molecular dynamics model of DNA charge conductivity. The model involves a...
We report on theoretical results about contact-dependent effects and tunneling currents through DNA ...
We present a model to describe electrical conductivity along the DNA double helix. In this model, DN...
We present a DFT/classical molecular dynamics model of DNA charge conductivity. The model involves a...
Using a tight binding model, we have investigated charge transport in model DNA sequences under exte...
AbstractWe study the electronic properties of DNA by way of a tight-binding model applied to four pa...
We study the electronic properties of DNA by way of a tight-binding model applied to four particular...
In order to interpret recent experimental studies of the dependence of conductance of ds-DNA as the ...
In order to interpret recent experimental studies of the dependence of conductance of ds-DNA as the ...
We study electronic transport in long DNA chains using the tight-binding approach for a ladder-like ...
Abstract Background Deoxyribonucleic acid (DNA) is one of the best candidate materials for various d...
The idea of incorporating DNA molecules in designing nanoscale electronic devices has drawn the att...
Electronic transport through DNA wires in the presence of a strong dissipative environment is invest...
Electronic transport through DNA wires in the presence of a strong dissipative environment is invest...
In this work we consider the combined effect of helical structure and base-pair twist motion on char...
We present a DFT/classical molecular dynamics model of DNA charge conductivity. The model involves a...
We report on theoretical results about contact-dependent effects and tunneling currents through DNA ...
We present a model to describe electrical conductivity along the DNA double helix. In this model, DN...
We present a DFT/classical molecular dynamics model of DNA charge conductivity. The model involves a...