<mods:mods version="3.3" xsi:schemaLocation="http://www.loc.gov/mods/v3 http://www.loc.gov/standards/mods/v3/mods-3-3.xsd" xmlns:mods="http://www.loc.gov/mods/v3" xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"><mods:titleInfo><mods:title>Heat induced differential proteomic changes reveal molecular mechanisms responsible for heat tolerance in chickpea</mods:title></mods:titleInfo><mods:name type="personal"><mods:namePart type="given">P</mods:namePart><mods:namePart type="family">Santisree</mods:namePart><mods:role><mods:roleTerm type="text">author</mods:roleTerm></mods:role></mods:name><mods:name type="personal"><mods:namePart type="given">P</mods:namePart><mods:namePart type="family">Bhatnagar-Mathur</mods:namePart><mods:role><mods:roleTerm type="text">author</mods:roleTerm></mods:role></mods:name><mods:name type="personal"><mods:namePart type="given">K K</mods:namePart><mods:namePart type="family">Sharma</mods:namePart><mods:role><mods:roleTerm type="text">author</mods:roleTerm></mods:role></mods:name><mods:abstract>Understanding the molecular differences in plant genotypes&#13;
contrasting for heat sensitivity can provide useful insights into&#13;
the mechanisms that confer heat tolerance in plants. We focused&#13;
on comparative physiological and proteomic analyses&#13;
of heat sensitive (ICC16374) and tolerant (JG14) genotypes&#13;
of chickpea (Cicer arietinum L.) when subjected to heat stress&#13;
at anthesis. Heat stress reduced seed germination, leaf water&#13;
content, chlorophyll content and membrane integrity with&#13;
a greater impact on sensitive genotype than on the tolerant&#13;
ones that had higher total antioxidant capacity and osmolyte&#13;
accumulation, and consequently less oxidative damage. Comparative&#13;
gel-free proteome profiles indicated differences in the&#13;
expression levels and regulation of common proteins that are&#13;
associated with heat tolerance in contrasting genotypes under&#13;
heat stress. Several crucial heat induced and heat responsive&#13;
proteins were identified and categorized based on ontology&#13;
and pathway analysis. The proteins which are essentially related&#13;
to the electron transport chain in photosynthesis, aminoacid&#13;
biosynthesis, ribosome synthesis and secondary metabolite&#13;
synthesis may play key roles in inducing heat tolerance.&#13;
In addition, our study also provides evidence that the foliar&#13;
application of nitric oxide (NO) donor can enhance heat and&#13;
drought stress tolerance by modulating a number of proteins&#13;
in chickpea. Understanding the active metabolic adjustments&#13;
in tolerant genotype under stress and inducing the stress tolerance&#13;
in sensitive genotype by exogenous NO application offers&#13;
a comprehensive and systematic approach to tackle heat and&#13;
drought stress in chickpea. This study potentially contributes&#13;
to improved stress resilience by offering valuable insights on&#13;
the mechanisms of heat and drought tolerance in chickpea.</mods:abstract><mods:classification authority="lcc">Abiotic Stress</mods:classification><mods:classification authority="lcc">Drought Tolerance</mods:classification><mods:classification authority="lcc">Molecular Biology</mods:classification><mods:classification authority="lcc">Chickpea</mods:classification><mods:classification authority="lcc">Drought</mods:classification><mods:originInfo><mods:dateIssued encoding="iso8061">2017-02</mods:dateIssued></mods:originInfo><mods:genre>Conference or Workshop Item</mods:genre></mods:mods>