The synchronization of metacommunities due to dispersal among patches is analyzed in the case of slow-fast populations. The analysis is performed by studying a standard model with the fast population dispersing when special meteorological conditions are present. This assumption fits very well with the peculiar nature of slow-fast systems and implies that metacommunities synchronize if the slow population accelerates during the outbreak of the fast population. This result shows great potential in the study of marine and fresh-water plankton communities as well as in the study of synchronization of insect-pest outbreaks in forests
Natural populations experience environmental conditions that vary across space and over time. This v...
We present a study on the emergence of spatial variability, or patchiness, in biophysical simulation...
We present a study on the emergence of spatial variability, or patchiness, in biophysical simulation...
The problem of synchronization of metacommunities is investigated in this article with reference to ...
We study synchronization in ecological networks under the realistic assumption that the cou-pling am...
Within metacommunity theory, stability of ecosystems is a fundamental concept. Synchrony between pop...
Spatially-separated populations often exhibit positively correlated fluctuations in abundance and ot...
Spatially-separated populations often exhibit positively correlated fluctuations in abundance and ot...
The synchronous behaviour of interacting communities is studied in this paper. Each community is des...
The study of synchronization of population dynamics is extremely important for predicting and evalua...
This study applies a metapopulation dynamics approach to modelling a distribution of plankton by rep...
It has become increasingly clear that communities in nature are often not isolated systems, but inst...
Metacommunity theory poses that the occurrence and abundance of species is a product of local factor...
The study of coherence of population dynamics is extremely important for predicting and evaluating t...
Due to habitat fragmentation, many of the populations in nature have been broken into smaller subpop...
Natural populations experience environmental conditions that vary across space and over time. This v...
We present a study on the emergence of spatial variability, or patchiness, in biophysical simulation...
We present a study on the emergence of spatial variability, or patchiness, in biophysical simulation...
The problem of synchronization of metacommunities is investigated in this article with reference to ...
We study synchronization in ecological networks under the realistic assumption that the cou-pling am...
Within metacommunity theory, stability of ecosystems is a fundamental concept. Synchrony between pop...
Spatially-separated populations often exhibit positively correlated fluctuations in abundance and ot...
Spatially-separated populations often exhibit positively correlated fluctuations in abundance and ot...
The synchronous behaviour of interacting communities is studied in this paper. Each community is des...
The study of synchronization of population dynamics is extremely important for predicting and evalua...
This study applies a metapopulation dynamics approach to modelling a distribution of plankton by rep...
It has become increasingly clear that communities in nature are often not isolated systems, but inst...
Metacommunity theory poses that the occurrence and abundance of species is a product of local factor...
The study of coherence of population dynamics is extremely important for predicting and evaluating t...
Due to habitat fragmentation, many of the populations in nature have been broken into smaller subpop...
Natural populations experience environmental conditions that vary across space and over time. This v...
We present a study on the emergence of spatial variability, or patchiness, in biophysical simulation...
We present a study on the emergence of spatial variability, or patchiness, in biophysical simulation...