Huge numbers of microbes coexist in almost all habitats of our planet. Their interactions are governed by complex mechanisms, where both competition for resources and toxin production play important roles. Our goal is to understand key mechanisms that lead to coexistence. In this chapter we study many possible scenarios of microbial interactions and we analyze whether or not they can lead to coexistence of species. To achieve this we implemented agent- based models that mimic local dynamics of microbes; initially well mixed microbes from different species interact in a grid with a regular structure. Among others, we show that the coexistence rate is negatively correlated with the number of neighbors of each cell in the grid. Another observa...
Microorganisms evolve kinds of elaborate interaction models that can form relatively stable communit...
Microbial ecology is revealing the vast diversity of strains and species that coexist in many enviro...
Microorganisms evolve kinds of elaborate interaction models that can form relatively stable communit...
Huge numbers of microbes coexist in almost all habitats of our planet. Their interactions are govern...
Abstract Background Natural habitats are typically structured, imposing constraints on inhabiting po...
The simplest example of non-transitive competition is the game rock–paper–scissors (RPS), which exhi...
Microbes employ a vast arsenal of tools to manipulate the environments in which they live. These man...
Microbial communities display complex population dynamics, both in frequency and absolute density. E...
Ecological systems are complex assemblies of large numbers of individuals, interacting competitively...
Although bacteria are single-celled organisms, they exist in nature primarily in the form of complex...
Microbial communities colonise virtually every habitable environment on earth. They live on us, insi...
Microbial communities exist nearly everywhere on our planet, from extreme environments such as hydro...
Most microbes live in spatially structured communities (e.g., biofilms) in which they interact with ...
Microorganisms evolve kinds of elaborate interaction models that can form relatively stable communit...
Microorganisms evolve kinds of elaborate interaction models that can form relatively stable communit...
Microorganisms evolve kinds of elaborate interaction models that can form relatively stable communit...
Microbial ecology is revealing the vast diversity of strains and species that coexist in many enviro...
Microorganisms evolve kinds of elaborate interaction models that can form relatively stable communit...
Huge numbers of microbes coexist in almost all habitats of our planet. Their interactions are govern...
Abstract Background Natural habitats are typically structured, imposing constraints on inhabiting po...
The simplest example of non-transitive competition is the game rock–paper–scissors (RPS), which exhi...
Microbes employ a vast arsenal of tools to manipulate the environments in which they live. These man...
Microbial communities display complex population dynamics, both in frequency and absolute density. E...
Ecological systems are complex assemblies of large numbers of individuals, interacting competitively...
Although bacteria are single-celled organisms, they exist in nature primarily in the form of complex...
Microbial communities colonise virtually every habitable environment on earth. They live on us, insi...
Microbial communities exist nearly everywhere on our planet, from extreme environments such as hydro...
Most microbes live in spatially structured communities (e.g., biofilms) in which they interact with ...
Microorganisms evolve kinds of elaborate interaction models that can form relatively stable communit...
Microorganisms evolve kinds of elaborate interaction models that can form relatively stable communit...
Microorganisms evolve kinds of elaborate interaction models that can form relatively stable communit...
Microbial ecology is revealing the vast diversity of strains and species that coexist in many enviro...
Microorganisms evolve kinds of elaborate interaction models that can form relatively stable communit...