Ranjita Sinha

RAP2.3 is required for MYB51 and SIGMA3 expression during the response of Arabidopsis thaliana to multifactorial stress combination

This study identifies RAP2.3 as essential for MYB51 and SIGMA3 expression during Arabidopsis thaliana's response to multifactorial stress combinations, revealing a regulatory pathway critical for survival under combined stress conditions.

bHLH35 mediates specificity in plant responses to multiple stress conditions

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.

Identification of a putative RBOHD-FERONIA-CRK10-PIP2;6 plasma membrane complex that interacts with phyB to regulate ROS production in Arabidopsis thaliana

The paper identifies a plasma membrane complex involving FERONIA, RBOHD, CRK10, and PIP2;6 that interacts with phyB to regulate ROS production in Arabidopsis under stress.

Enhanced cell aggregation in the Chlamydomonas reinhardtii rbo1 mutant in response to multifactorial stress combination

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

Integrative analysis of plant responses to a combination of water deficit, heat stress and eCO2 reveals a role for OST1 and SLAH3 in regulating stomatal responses

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.

Transcriptomic and physiological responses of soybean plants subjected to a combination of water deficit and heat stress under field 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.

Defining the limits of differential transpiration

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.