Felix Fritschi

This study shows thermopriming in rice seedlings enhances heat stress adaptability through restrained transcriptional responses and repressive mark retention, not by increasing response amplitude.

The paper shows that bHLH35 in Arabidopsis thaliana is specifically required for survival under combined salinity, excess light, and heat stress, but not individual or other combinations.

The paper investigates how multifactorial stress combinations affect Chlamydomonas reinhardtii, showing enhanced aggregation in an rbo1 mutant under stress.

The paper examines local adaptation between switchgrass and its rust pathogen across North America, finding that both host and parasite can be locally adapted despite varying genetic loci associated with rust severity.

This study observes rapid genetic adaptation and population dynamics in Arabidopsis thaliana across diverse climates over 5 years, showing predictable adaptation trends linked to survival and extinction risks.

This study investigates how Arabidopsis responds to combined stressors of water deficit, heat, and elevated CO2, identifying OST1 and SLAH3 as key regulators of stomatal closure under these conditions.

This study examines transcriptomic and physiological responses of soybean plants to water deficit, heat stress, and their combination in field conditions, finding distinct responses compared to controlled environments.

This study identifies ERF transcription factors and hormonal interactions that mediate growth-defence trade-offs in rice seedlings under acute heat stress.

This paper identifies differential transpiration (DT) as a strategy in annual plants to protect reproductive tissues from water deficit and heat stress by suppressing transpiration in vegetative tissues.

This study investigates the effects of multifactorial stress combinations on soybean plants, revealing negative cumulative impacts and unique transcriptomic responses in different tissues.

The paper identifies genotype-by-weather interactions in switchgrass by analyzing phenological timings across multiple environments and weather cues.

The paper identifies geographic variation in the genetic basis of rust resistance in switchgrass, finding two large-effect QTLs and epistatic interactions that vary with location.