Challenges in microbial ecology: building predictive understanding of community function and dynamics

Stefanie Widder(University of Vienna), Rosalind J. Allen(University of Edinburgh), Thomas Pfeiffer(Massey University), Thomas P. Curtis(Newcastle University), Carsten Wiuf(University of Copenhagen), William T. Sloan(University of Glasgow), Otto X. Cordero(Massachusetts Institute of Technology), Sam P. Brown(Centre for Immunity, Infection and Evolution), Babak Momeni(Boston College), Wenying Shou(Fred Hutch Cancer Center), Helen Kettle(Biomathematics and Statistics Scotland), Harry J. Flint(University of Aberdeen), Andreas F. Haas(San Diego State University), Béatrice Laroche(Laboratoire de Mathématiques d'Orsay), Jan‐Ulrich Kreft(University of Birmingham), Paul B. Rainey(Massey University), Shiri Freilich(Agricultural Research Organization), Stefan Schuster(Friedrich Schiller University Jena), Kim Milferstedt(Laboratoire de Biotechnologie de l'Environnement), Jan Roelof van der Meer(University of Lausanne), Tobias Groβkopf(University of Warwick), Jef Huisman(University of Amsterdam), Andrew Free(University of Edinburgh), Cristian Picioreanu(Delft University of Technology), Christopher Quince(University of Warwick), Isaac Klapper(Temple University), Simon Labarthe(Laboratoire de Mathématiques d'Orsay), Barth F. Smets(Technical University of Denmark), Harris H. Wang(Columbia University), Orkun S. Soyer(University of Warwick)
The ISME Journal
March 29, 2016
Cited by 784Open Access
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Abstract

The importance of microbial communities (MCs) cannot be overstated. MCs underpin the biogeochemical cycles of the earth's soil, oceans and the atmosphere, and perform ecosystem functions that impact plants, animals and humans. Yet our ability to predict and manage the function of these highly complex, dynamically changing communities is limited. Building predictive models that link MC composition to function is a key emerging challenge in microbial ecology. Here, we argue that addressing this challenge requires close coordination of experimental data collection and method development with mathematical model building. We discuss specific examples where model-experiment integration has already resulted in important insights into MC function and structure. We also highlight key research questions that still demand better integration of experiments and models. We argue that such integration is needed to achieve significant progress in our understanding of MC dynamics and function, and we make specific practical suggestions as to how this could be achieved.


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