S. I. Zandalinas

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

This study presents a transcriptomic dataset of soybean reproductive tissues under water deficit, heat stress, and their combination, revealing unique stress responses across tissues.

This study shows that multifactorial stress combinations negatively affect rice and maize growth, with proteomics revealing common stress-responsive proteins.

The paper shows that soybean pods and leaves exhibit differential transpiration under combined water deficit and heat stress, reducing internal pod temperature and protecting seed development.

This study shows that AtNEET's cluster transfer function supports the ferredoxin-thioredoxin network and iron mobilization in Arabidopsis through proteomics analysis and inducible expression.

This study identifies HPCA1 as a central receptor for apoplastic ROS signals, essential for systemic calcium signaling and plant stress acclimation.

The paper shows that under drought and heat stress, soybean plants open flower stomata to lower flower temperature, protecting reproduction at the expense of vegetative tissues.

This study investigates how multifactorial stress combinations affect plant growth and survival, finding that while individual stresses have minimal impact, their combination is detrimental.