Hamed Azarbad

The paper investigates how farming and climate legacies influence seed microbiota and offspring drought responses in wheat across generations.

The paper shows that matching microbial communities with their environment in tree crowns improves plant performance.

The paper examines how drought affects the total and active microbiome in wheat roots, finding greater sensitivity in the active microbiome and VOC emissions in drought-sensitive wheat.

The paper shows that seed microbiota from drought-stressed wheat plants improve yield stability in subsequent generations under water stress.

The paper shows that adding DNA from water-stressed soils to wheat rhizosphere communities can reduce plant stress by transferring beneficial genes.

This study shows that soil microbial legacies from different farming and climate histories affect wheat's drought response, with varying impacts based on cultivar genotype.

The paper introduces a high-throughput quantitative multi-target amplicon sequencing workflow to improve microbial community profiling in wild insects, addressing contamination and identification issues.

This study shows that soil bacteria from organic farming with a history of future climate conditions enhance wheat seedling growth and bacterial diversity compared to conventional farming soils.

The paper shows that intermittent water stress history in soil selects for microbial generalists that enhance wheat's drought resistance.

This study conducts a meta-analysis to evaluate how biological and experimental factors influence the effectiveness of microbial inoculation on plant traits.