Polymer translocation through the nanochannel is studied by means of a Monte Carlo approach, in the presence of a static or oscillating external electric voltage. The polymer is described as a chain molecule according to the two-dimensional "bond fluctuation model". It moves through a piecewise linear channel, which mimics a nanopore in a biological membrane. The monomers of the chain interact with the walls of the channel, modelled as a reflecting barrier. We analyze the polymer dynamics, concentrating on the translocation time through the channel, when an external electric field is applied. By introducing a source of coloured noise, we analyze the effect of correlated random fluctuations on the polymer translocation dynamics.
Valenti, D., Denaro, G., Persano Adorno, D., Pizzolato, N., Zammito, S., Spagnolo, B. (2012). Monte Carlo analysis of polymer translocation with deterministic and noisy electric fields. CENTRAL EUROPEAN JOURNAL OF PHYSICS, 10(3), 560-567 [10.2478/s11534-012-0016-0].
Monte Carlo analysis of polymer translocation with deterministic and noisy electric fields
VALENTI, Davide;DENARO, Giovanni;PERSANO ADORNO, Dominique;PIZZOLATO, Nicola;SPAGNOLO, Bernardo
2012-01-01
Abstract
Polymer translocation through the nanochannel is studied by means of a Monte Carlo approach, in the presence of a static or oscillating external electric voltage. The polymer is described as a chain molecule according to the two-dimensional "bond fluctuation model". It moves through a piecewise linear channel, which mimics a nanopore in a biological membrane. The monomers of the chain interact with the walls of the channel, modelled as a reflecting barrier. We analyze the polymer dynamics, concentrating on the translocation time through the channel, when an external electric field is applied. By introducing a source of coloured noise, we analyze the effect of correlated random fluctuations on the polymer translocation dynamics.File | Dimensione | Formato | |
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