Inferring microbial interactions with their environment from genomic and metagenomic data
James D. Brunner, Laverne A. Gallegos-Graves, Marie E. Kroeger

TL;DR
This paper introduces MetConSIN, a tool that infers microbe-environment interactions from genomic data, providing a robust qualitative approach to understanding microbial community dynamics without relying solely on simulations.
Contribution
The paper presents a novel method for inferring metabolically contextualized microbial interaction networks from genome-scale models, enhancing understanding of microbial community behavior.
Findings
MetConSIN accurately infers microbe-metabolite interactions.
The approach offers robustness over simulation-based methods.
It enables better prediction of microbial community responses.
Abstract
Microbial communities assemble through a complex set of interactions between microbes and their environment, and the resulting metabolic impact on the host ecosystem can be profound. Microbial activity is known to impact human health, plant growth, water quality, and soil carbon storage which has lead to the development of many approaches and products meant to manipulate the microbiome. In order to understand, predict, and improve microbial community engineering, genome-scale modeling techniques have been developed to translate genomic data into inferred microbial dynamics. However, these techniques rely heavily on simulation to draw conclusions which may vary with unknown parameters or initial conditions, rather than more robust qualitative analysis. To better understand microbial community dynamics using genome-scale modeling, we provide a tool to investigate the network of…
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Taxonomy
TopicsMicrobial Metabolic Engineering and Bioproduction · Bioinformatics and Genomic Networks · Biofuel production and bioconversion
