We study asymptotic properties of diffusion and other transport processes (including self-avoiding walks and electrical conduction) on large, randomly branched polymers using renormalized dynamical field theory. We focus on the swollen phase and the collapse transition, where loops in the polymers are irrelevant. Here the asymptotic statistics of the polymers is that of lattice trees, and diffusion on them is reminiscent of the climbing of a monkey on a tree. We calculate a set of universal scaling exponents including the diffusion exponent and the fractal dimension of the minimal path to two-loop order and, where available, compare them to numerical results
The probability that a random walker returns to its origin for large times scales as t- d/2, where d...
Randomly branched polymer chains (or trees) are a classical subject of polymer physics with connecti...
We study an ensemble of branched polymers which are embedded on other branched polymers. This is a t...
We present a minimal dynamical model for randomly branched isotropic polymers, and we study this mod...
The probability that a random walker returns to its origin for large times scales as t(-d/2), where ...
We numerically investigate random walks (RWs) and self-avoiding random walks (SAWs) on critical perc...
AbstractThe scaling behavior of linear polymers in disordered media, modelled by self-avoiding walks...
We present a dynamical field theory for directed randomly branched polymers and in particular their ...
We study the thermodynamic behavior of branched polymers. We first study random walks in order to cl...
MasterAnomalous diffusion in random polymeric geometries, including fractal globules, is studied as ...
Branching processes are used to model diverse social and physical scenarios, from extinction of fami...
Randomly branching polymers with annealed connectivity are model systems for ring polymers and chrom...
We numerically investigate random walks (RWs) and self-avoiding random walks (SAWs) on critical perc...
We present computer simulations of three systems of randomly branching polymers in d = 3 dimensions:...
Using a combination of analytical theory and newly developed numerical algorithms, we analyze the mo...
The probability that a random walker returns to its origin for large times scales as t- d/2, where d...
Randomly branched polymer chains (or trees) are a classical subject of polymer physics with connecti...
We study an ensemble of branched polymers which are embedded on other branched polymers. This is a t...
We present a minimal dynamical model for randomly branched isotropic polymers, and we study this mod...
The probability that a random walker returns to its origin for large times scales as t(-d/2), where ...
We numerically investigate random walks (RWs) and self-avoiding random walks (SAWs) on critical perc...
AbstractThe scaling behavior of linear polymers in disordered media, modelled by self-avoiding walks...
We present a dynamical field theory for directed randomly branched polymers and in particular their ...
We study the thermodynamic behavior of branched polymers. We first study random walks in order to cl...
MasterAnomalous diffusion in random polymeric geometries, including fractal globules, is studied as ...
Branching processes are used to model diverse social and physical scenarios, from extinction of fami...
Randomly branching polymers with annealed connectivity are model systems for ring polymers and chrom...
We numerically investigate random walks (RWs) and self-avoiding random walks (SAWs) on critical perc...
We present computer simulations of three systems of randomly branching polymers in d = 3 dimensions:...
Using a combination of analytical theory and newly developed numerical algorithms, we analyze the mo...
The probability that a random walker returns to its origin for large times scales as t- d/2, where d...
Randomly branched polymer chains (or trees) are a classical subject of polymer physics with connecti...
We study an ensemble of branched polymers which are embedded on other branched polymers. This is a t...