2013
DOI: 10.1142/9789814460026_0033
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Self-Repelling Fractional Brownian Motion - A Generalized Edwards Model for Chain Polymers

Abstract: We present an extension of the Edwards model for conformations of individual chain molecules in solvents in terms of fractional Brownian motion, and discuss the excluded volume effect on the end-to-end length of such trajectories or molecules.

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Cited by 6 publications
(4 citation statements)
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“…These models might be considered unphysical. However, as in the Brownian case, there exists a recursion formula [KF78], which would predict the Flory index in higher dimensional cases from the one-dimensional one, [BOS11].…”
Section: Fractional Modelmentioning
confidence: 99%
“…These models might be considered unphysical. However, as in the Brownian case, there exists a recursion formula [KF78], which would predict the Flory index in higher dimensional cases from the one-dimensional one, [BOS11].…”
Section: Fractional Modelmentioning
confidence: 99%
“…the reviews [vdHK01], [PV02] and references therein. A tentative to extend these to fractional Brownian motion has recently been undertaken in [BOS11].…”
Section: Introductionmentioning
confidence: 99%
“…For example, diffusions with short-range properties are observed in the motion of charge carriers with certain semiconductors [45,51], in the spreading of tracer molecules in subsurfaces [50], on random site percolation clusters [28], whereas diffusions with long-range properties are observed in active motion within biological cells [16], spreading in layered velocity fields [34] and in mediated surface exchange [57], see also [55] for further references and applications in physics. Additional mentionable applications in which FBM naturally arises are the modelling of polymers, see [13,27], where such models appear under the name Edwards model, and the modelling of fluctuating interfaces, where FBM turned out to be an equivalent for the Edwards-Wilkinson model in the case of an initial condition with fully-developed steady-state roughness, see [30].…”
Section: P Sup T∈[0t]mentioning
confidence: 99%