Publications by authors named "Brian R Granger"

The complexity of metabolic networks in microbial communities poses an unresolved visualization and interpretation challenge. We address this challenge in the newly expanded version of a software tool for the analysis of biological networks, VisANT 5.0.

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Conflict and cooperation between bacterial species drive the composition and function of microbial communities. Stability of these emergent properties will be influenced by the degree to which species' interactions are robust to genetic perturbations. We use genome-scale metabolic modeling to computationally analyze the impact of genetic changes when Escherichia coli and Salmonella enterica compete, or cooperate.

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The interspecies exchange of metabolites plays a key role in the spatiotemporal dynamics of microbial communities. This raises the question of whether ecosystem-level behavior of structured communities can be predicted using genome-scale metabolic models for multiple organisms. We developed a modeling framework that integrates dynamic flux balance analysis with diffusion on a lattice and applied it to engineered communities.

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Article Synopsis
  • The lined sea anemone Edwardsiella lineata serves as a unique model for studying the evolution of parasitism, allowing comparisons between free-living and parasitic development pathways.
  • Researchers created a comprehensive reference transcriptome from various life stages of E. lineata, containing over 90,000 genetic sequences and providing insights into its evolutionary relationship with Nematostella vectensis.
  • The resulting data is publicly available in the EdwardsiellaBase database, facilitating further studies on genetic conservation and developmental processes in these marine organisms.
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Background: Motivated by the precarious state of the world's coral reefs, there is currently a keen interest in coral transcriptomics. By identifying changes in coral gene expression that are triggered by particular environmental stressors, we can begin to characterize coral stress responses at the molecular level, which should lead to the development of more powerful diagnostic tools for evaluating the health of corals in the field. Furthermore, the identification of genetic variants that are more or less resilient in the face of particular stressors will help us to develop more reliable prognoses for particular coral populations.

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