Soil organisms are recognized as ecosystem engineers and key for aggregation in soil due
to bioturbation, organic matter (OM) decomposition, and excretion of biogenic OM. The …

Plants release a set of chemical compounds, called exudates, into the rhizosphere, under
normal conditions and in response to environmental stimuli and surrounding soil organisms …

Root exudates are plant-derived, exported metabolites likely sha** root-associated
microbiomes by acting as nutrients and signals. However, root exudation dynamics are …

Understanding plant-microbe interactions requires examination of root exudation under
nutrient stress using standardized and reproducible experimental systems. We grew …

Plants are in constant interaction with a myriad of soil microorganisms in the rhizosphere, an
area of soil in close contact with plant roots. Recent research has highlighted the importance …

Plant stress responses are mediated by the release of chemical compounds called exudates
into the rhizosphere. These chemical substances include primary and secondary plant …

Plants have evolved advanced chemical defense mechanisms, including root exudation,
which enable them to respond to changes occurring in their surroundings rapidly. Yet, it …

The rhizosphere is a challenging ecosystem to study from a systems biology perspective
due to its diverse chemical, physical, and biological characteristics. In the past decade …

Arsenic contamination of soils threatens the health of millions globally through accumulation
in crops. While plants detoxify arsenic via phytochelatin (PC) complexation and efflux of …

Understanding root development is critical for enhancing plant growth and health, and
advanced technologies are essential for unraveling the complexities of these processes. In …