Beneficial soil-borne microorganisms, such as plant growth promoting rhizobacteria and
mycorrhizal fungi, can improve plant performance by inducing systemic defense responses …

Beneficial soil-borne microorganisms can induce an enhanced defensive capacity in above-
ground plant parts that provides protection against a broad spectrum of microbial pathogens …

In nature, plants abundantly form beneficial associations with soilborne microbes that are
important for plant survival and, as such, affect plant biodiversity and ecosystem functioning …

Soil microorganisms with growth-promoting activities in plants, including rhizobacteria and
rhizofungi, can improve plant health in a variety of different ways. These beneficial microbes …

Plant beneficial microorganisms improve the health and growth of the associated plants.
Application of beneficial microbes triggers an enhanced resistance state, also termed as …

At different stages throughout their life cycle, plants often encounter several pathogenic
microbes that challenge plant growth and development. The sophisticated innate plant …

Plants contain a sophisticated innate immune network to prevent pathogenic microbes from
gaining access to nutrients and from colonizing internal structures. The first layer of inducible …

A wide variety of root-associated bacterial mutualist species sensitize plant defenses to
counteract pathogen infections. These beneficial bacteria produce myriad molecules that …

Beneficial plant-microbe interactions have utmost importance for enhancing plant growth,
improving soil structure, and managing plant diseases. Not surprisingly, such mutual …

Plant roots interact with an enormous diversity of commensal, mutualistic, and pathogenic
microbes, which poses a big challenge to roots to distinguish beneficial microbes from …