Abstract
1.Microbial communities perform highly dynamic and complex ecosystem functions that impact plants, animals and humans. Here we present an R-package, microPop, which is a dynamic model based on a functional representation of different microbiota.
2.microPop simulates the dynamics and interactions of microbial populations by solving a system of ordinary differential equations that are constructed automatically based on a description of the system.
3.Data frames for a number of microbial functional groups and default functions for rates of microbial growth, resource uptake, metabolite production are provided but can be modified or replaced by the user.
4.microPop can simulate growth in a single compartment (e.g. bio-reactor) or ‘compartments’ in series (e.g. human colon) or in a simple 1-d application (e.g. phytoplankton in a water column). Furthermore, a microbial functional group may contain multiple strains in order to study adaptation and diversity or parameter uncertainty. Also simple interactions between viruses (bacteriophages) and bacteria can be included in microPop.
5.microPop is hosted on CRAN and can be installed directly from within R. This paper describes version 1.3 of microPop. The code is also hosted on github for future development (https://github.com/HelenKettle/microPop).
This article is protected by copyright. All rights reserved.
2.microPop simulates the dynamics and interactions of microbial populations by solving a system of ordinary differential equations that are constructed automatically based on a description of the system.
3.Data frames for a number of microbial functional groups and default functions for rates of microbial growth, resource uptake, metabolite production are provided but can be modified or replaced by the user.
4.microPop can simulate growth in a single compartment (e.g. bio-reactor) or ‘compartments’ in series (e.g. human colon) or in a simple 1-d application (e.g. phytoplankton in a water column). Furthermore, a microbial functional group may contain multiple strains in order to study adaptation and diversity or parameter uncertainty. Also simple interactions between viruses (bacteriophages) and bacteria can be included in microPop.
5.microPop is hosted on CRAN and can be installed directly from within R. This paper describes version 1.3 of microPop. The code is also hosted on github for future development (https://github.com/HelenKettle/microPop).
This article is protected by copyright. All rights reserved.
| Original language | English |
|---|---|
| Pages (from-to) | 399-409 |
| Number of pages | 11 |
| Journal | Methods in Ecology and Evolution |
| Volume | 9 |
| Issue number | 2 |
| Early online date | 14 Sept 2017 |
| DOIs | |
| Publication status | Published - Feb 2018 |
Bibliographical note
We thank the Scottish Goverment’s Rural and Environment Science and Ana-lytical Services Division (RESAS) for funding this research. Also many thanks to Rafael Munoz-Tamayo for sharing his matlab code for the rumen modelKeywords
- microbiota
- colon
- population dynamics
- microbes
- bacteria
- rumen
- gut
- phtoplankton
- methanogens
- resource competition
- microbial diversity
- phages
- virus
- bacteriophage