Interactions between fungal and bacterial microbiome members alter Drosophila melanogaster's chemical environment, affecting host behavior and survival.

Bacterial-encoded covalent adhesion is a new molecular principle in host-microbe interactions and may play a key role in host colonization by a wide range of Gram-positive bacteria.

The growth of wild Drosophila larvae on fruits is promoted by a yeast releasing essential nutrients extracellularly or by a stable association with a nutrient-providing bacterium established by microbe–microbe interactions.

Genetic variation influencing the gut microbiome is abundant among incipient mammalian host species, and cospeciating bacterial taxa display a unique genetic architecture.

Recurrent neural network models enable prediction and design of health-relevant metabolite dynamics in synthetic human gut communities.

Comprehensive analyses of host genetics, root-associated microbiomes, and plant phenotypes under two nitrogen treatments reveals host genetic control of microbe abundance which, in turn, affects plant performance.

Genome-scale metabolic models can be used to predict the engraftment of probiotics.

Host-microbe interactions are an important influence on changing disease burdens in vulnerable remote communities.

The attempt to manipulate a microbiome in planta to study the ecological consequences under field conditions leaves plants and their microbes surprisingly unimpressed.

A network of the gut chemical landscape predicts microbe-mediated biotransformation of foods and drugs and supports the generation of mechanistic hypotheses of microbiome metabolic phenotypes that shape human biology.