Summary. We study a finite-dimensional system of ordinary differential equations de-rived from Smoluchowski’s coagulation equations and whose solutions mimic the be-haviour of the nondensity-conserving (geling) solutions in those equations. The analytic and numerical studies of the finite-dimensional system reveals an inter-esting dynamic behaviour in several respects: Firstly, it suggests that some special geling solutions to Smoluchowski’s equations discovered by Leyvraz can have an important dy-namic role in gelation studies, and, secondly, the dynamics is interesting in its own right with an attractor possessing an unexpected structure of equilibria and connecting orbits. 1
We present a scaling model based on a moving boundary picture to describe heterogeneous gelation dyn...
30 pagesInternational audienceWe consider in this work a model for aggregation, where the coalescing...
A two-site spatial coagulation model is considered. Particles of masses m and n at the same site for...
We study a finite-dimensional system of ordinary differential equations derived from Smoluchowski’s...
31 pages, 4 figuresWe prove well-posedness of global solutions for a class of coagulation equations ...
In this paper we construct classical solutions of a family of coagulation equations with homogeneous...
In this paper, we review recent results concerning stochastic models for coagulation processes and t...
Two models of coagulation are presented: one, a system of coupled partial differential equations and...
AbstractThe occurrence of gelation and the existence of mass-conserving solutions to the continuous ...
Explicit post-gelation solutions are presented for Smoluchowski's coagulation equation with factoriz...
Smoluchowski's equation for rapid coagulation is used to describe the kinetics of gelation, in ...
Abstract. The occurrence of gelation and the existence of mass-conserving solutions to the contin-uo...
The dynamics of a coagulation-fragmentation equation with multiplicative coagulation kernel and crit...
The Marcus-Lushnikov process is a finite stochastic particle system in which each particle is entire...
Abstract. The Smoluchowski equations of coagulation are solved analytically in two cases involving a...
We present a scaling model based on a moving boundary picture to describe heterogeneous gelation dyn...
30 pagesInternational audienceWe consider in this work a model for aggregation, where the coalescing...
A two-site spatial coagulation model is considered. Particles of masses m and n at the same site for...
We study a finite-dimensional system of ordinary differential equations derived from Smoluchowski’s...
31 pages, 4 figuresWe prove well-posedness of global solutions for a class of coagulation equations ...
In this paper we construct classical solutions of a family of coagulation equations with homogeneous...
In this paper, we review recent results concerning stochastic models for coagulation processes and t...
Two models of coagulation are presented: one, a system of coupled partial differential equations and...
AbstractThe occurrence of gelation and the existence of mass-conserving solutions to the continuous ...
Explicit post-gelation solutions are presented for Smoluchowski's coagulation equation with factoriz...
Smoluchowski's equation for rapid coagulation is used to describe the kinetics of gelation, in ...
Abstract. The occurrence of gelation and the existence of mass-conserving solutions to the contin-uo...
The dynamics of a coagulation-fragmentation equation with multiplicative coagulation kernel and crit...
The Marcus-Lushnikov process is a finite stochastic particle system in which each particle is entire...
Abstract. The Smoluchowski equations of coagulation are solved analytically in two cases involving a...
We present a scaling model based on a moving boundary picture to describe heterogeneous gelation dyn...
30 pagesInternational audienceWe consider in this work a model for aggregation, where the coalescing...
A two-site spatial coagulation model is considered. Particles of masses m and n at the same site for...