Jörg‐Peter Schnitzler

This study integrates 16 Arabidopsis thaliana DNA methylome datasets to identify common and stress-specific methylation responses across biotic and abiotic stress conditions.

This study shows that GSNOR-dependent nitric oxide homeostasis aids recovery from repeated climate stress in Arabidopsis across generations, while its impairment leads to persistent stress responses.

The paper identifies a new Penicillium biforme lineage, cheesy, selected for food fermentation, with genetic and phenotypic differences from P. camemberti and traits advantageous for cheesemaking.

This study examines how drought and herbivory jointly affect chemical and morphological traits in black poplar trees, showing significant shifts in amino acids and phytohormones but stability in salicinoids.

This study examines common and species-specific responses of phytohormones and morphological traits to drought and herbivory in three plant species, revealing shared and unique regulatory pathways.

This study shows that leaf metabolomes of Populus trichocarpa retain geographic and climatic origin signatures under common-garden conditions, with coordinated flavonoid and isoprenoid variation.

This study shows that Fagus sylvatica detects belowground stress signals from Picea abies neighbors, leading to increased shoot VOC emissions, with stronger responses in heterospecific pairs.

This study shows that seed origin legacy effects, rather than species identity, shape the microbiome and metabolome of oak trees under drought conditions.

This study shows poplar trees can distinguish between pathogenic, mutualistic, and saprotrophic fungi using airborne volatile organic compounds (VOCs), leading to specific root and leaf responses.

The paper identifies physiological and molecular mechanisms in North African durum wheat landraces that confer superior drought resilience through integrated phenomic and transcriptomic analyses.

The paper studies VOC emissions from dryland soils after rewetting, finding strong emissions of sesquiterpenes and benzenoids that can form ozone and aerosols.

This study shows that fungal volatiles induce lifestyle-specific metabolic changes in poplar before physical contact, revealing a non-contact mechanism of plant-fungal communication.

This study examines how different terpenoid chemotypes in Tanacetum vulgare respond to root-chewing wireworms and phloem-feeding aphids, revealing chemotype-specific defense strategies.

The paper shows isoprene, a plant volatile, acts as a short-distance immune signal in field conditions, enhancing resistance in neighboring plants to bacterial pathogens.

This study investigates metabolic interactions between Laccaria bicolor and Trichoderma species through VOCs, hyphal metabolomes, and soluble metabolites in dual cultures.

The paper examines how tansy chemotypes and terpenoid mixture evenness affect aphid colony size and herbivore interactions.

The paper investigates subgenome-level variations in polyploid wheat cultivars under drought stress to understand how they affect yield and quality while adapting to environmental conditions.

This study shows date palm roots increase osmotic strength with drought by accumulating sugars over minerals, while leaves undergo membrane remodeling and ROS scavenging to prevent oxidative damage.

This study shows Trichoderma spp. can distinguish between beneficial ectomycorrhizal fungi and pathogenic fungi, showing accelerated growth toward pathogens and reduced growth toward mycorrhizal fungi.

This study examines how pipecolic acid treatment affects terpenoid composition in different tissues of tansy plants, revealing tissue-specific responses and metabolic differentiation.

This paper demonstrates that nanopore sequencing can effectively monitor air microbiomes by analyzing microbial diversity in controlled and natural environments.