Pushp Sheel Shukla

TL;DR: A mechanistic view of different pathways is presented and the function of different genes in conferring salt tolerance by genetic engineering approach is emphasized and the details of successes achieved in developing salt tolerance in plants thus far are highlighted.

TL;DR: This study shows that PGPR play an important role in inducing salinity tolerance in plants and can be used to grow salt-sensitive crops in saline areas.

TL;DR: The information presented in this review depicts the multiple, beneficial effects of A. nodosum-based biostimulant extracts on plant growth and their defense responses and suggests new opportunities for further applications for marked benefits in production and quality in the agriculture and horticultural sectors.

TL;DR: Overexpression of SbSOS1 in tobacco conferred a high degree of salt tolerance, enhanced plant growth and altered physiological and biochemical parameters in response to salt stress and it is suggested that this gene could be used to develop salt-tolerant transgenic crops.

TL;DR: The molecular mechanisms by which carrageenans and OCs mediate plant growth and plant defense responses are discussed, which improve plant growth by regulating various metabolic processes such as photosynthesis and ancillary pathways, cell division, purine and pyrimidine synthetic pathways as well as metabolic pathways involved in nitrogen and sulfur assimilation.