Background and aims Plant growth promoting rhizobacteria (PGPR) have been shown to
reduce abiotic stress on plants, but these effects have not been quantitatively synthesized …

The soil microbiome comprises one of the most important and complex components of all
terrestrial ecosystems as it harbors millions of microbes including bacteria, fungi, archaea …

A staggering number of nanomaterials-based products are being engineered and produced
commercially. Many of these engineered nanomaterials (ENMs) are finally disposed into the …

Plant–fungal interactions are widespread in nature, and their multiple benefits for plant
growth and health have been amply demonstrated. Endophytic and epiphytic fungi can …

Plant roots and soil microorganisms interact with each other mainly in the rhizosphere.
Changes in the community structure of the rhizosphere microbiome are influenced by many …

Phytoremediation is a promising technology to clean-up contaminated soils based on the
synergistic actions of plants and microorganisms. However, to become a widely accepted …

The increasing impacts of global climate change on crop performance pose a significant
threat to global food security. The rhizosphere microbiomes intimately interact with the plant …

Background Understanding the genetic and environmental factors that structure plant
microbiomes is necessary for leveraging these interactions to address critical needs in …

One model of a disease‐suppressive soil predicts that the confrontation of plant with a
phytopathogen can lead to the recruitment and accumulation of beneficial microorganisms …

All components of the rhizosphere can be engineered to promote plant health and growth,
two features that strongly depend upon the interactions of living organisms with their …