Plant-Microbe Interactions and Immunity

This study shows that industrial compost from urban biowaste increases bacterial diversity and functional traits in tomato rhizosphere compared to chemical fertilizer.

This study identifies Tie1, a fungal effector that targets OsTLP7 to suppress plant immunity by altering its localization and transcriptional activity.

The paper investigates how a bacterial chaperone-usher pathway enables interkingdom protection of a fungus from antimicrobial compounds.

This study shows fungal volatiles promote lateral root formation and enhance plant tolerance to osmotic stress by modulating auxin signaling and nutrient transport.

The paper isolates and characterizes compost-derived bacteria, identifies a candidate bioinoculant, and shows its effects on tomato physiology and leaf metabolism.

The paper uses yeast surface display to show that AtIGP1 recognizes laminaribiose but not longer MLG-derived oligosaccharides, and that this recognition triggers immune responses in planta.

This study examines the early molecular and metabolic responses of tomato plants to compost-derived bacteria, identifying common and strain-specific physiological signatures.

This study identifies genetic determinants of Brevundimonas-mediated attenuation of plant pattern-triggered immunity, finding TonB1 as the key factor.

This study evaluates the effectiveness of combining Azospirillum brasilense with cytidine or seedling exudate to improve pea drought resilience, finding that cytidine enhances drought tolerance and rhizosphere diversity.

This study shows that mVOCs from Pseudoarthrobacter BD237 enhance Brachypodium distachyon growth and stress tolerance by promoting photosynthesis and abiotic stress response.

This study shows that Pythium oligandrum modifies microbial interactions in the potato rhizosphere without changing overall bacterial community composition, affecting network connectivity.

The paper profiles endophytic bacterial microbiomes in Ambrosia artemisiifolia L. tissues across Europe, finding tissue type shapes community structure more than region or habitat.

The paper analyzes root gene regulatory networks in Arabidopsis thaliana to identify roles of defense hormones and secondary metabolites in disease-suppressive soil establishment.

This study examines how propiconazole affects six plant growth promoting properties of wheat rhizosphere isolates, finding that specific traits like siderophore and ammonia production are suppressed at high concentrations.

The paper identifies ChEC108 as a fungal effector that targets plasmodesmata in Arabidopsis, binds HIPP6, and induces plasmodesmal closure to restrict fungal spread.

DREM is a deep learning model that improves the identification of plant immune receptors by learning from sequence data, outperforming existing methods and identifying novel resistance proteins.

This study uses a gnotobiotic rice system to show that microbiome colonization reduces rice blast disease severity by promoting a regulated immune state rather than just increasing defense activation.

This study compares root exudates and rhizosphere microbial communities between male and female Taxus cuspidata plants across developmental stages, revealing sex-specific differences in chemical composition and microbial diversity.

The paper identifies a fungal RNase effector recognized by a plant receptor kinase, triggering immune responses and enhancing disease resistance.

This study compares rhizosphere microbial communities and functional potential between invasive Chinese tallow and native Loblolly pine, finding distinct microbial structures and functions associated with the invasion.

This study investigates how soil microbiomes influence flowering traits in Mimulus guttatus, finding that plant genotype primarily drives flowering traits rather than the microbiome.

This study shows that Variovorax paradoxus improves cotton growth and Fe nutrition under bicarbonate-induced Fe limitation by altering root-associated microbial communities.

This study identifies GORK as the K+ channel mediating flg22-induced K+ efflux and stomatal closure during PTI in Arabidopsis.

This study examines asymptomatic Botrytis cinerea colonization in Arabidopsis seedlings, revealing polarized host responses and fungal morphologies before visible disease.

This study shows how root exudates enhance a non-native PGPR's ability to thrive in the rhizosphere and alter microbial community composition.

This study examines how varying concentrations of PQQ affect the tobacco rhizosphere microbiome using metagenomic sequencing, revealing non-monotonic changes in taxonomic and functional profiles.

This study shows AtPDF2.2, a constitutively expressed defensin in Arabidopsis, is associated with disease resistance against multiple pathogens, with distinct regulatory patterns compared to the inducible AtPDF1.2a.

The paper shows that heritable variation in root bacterial microbiomes influences natural selection on host plants by altering fitness outcomes based on plant genotype.

This study examines how two transgenic sorghum lines with different bioenergy traits affect their rhizosphere microbiome composition and function.