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        <dc:title>Comparative Root Transcriptomics Provide Insights into Drought Adaptation Strategies in Chickpea (Cicer arietinum L.)</dc:title>
        <dc:creator>Bhaskarla, V</dc:creator>
        <dc:creator>Zinta, G</dc:creator>
        <dc:creator>Ford, R</dc:creator>
        <dc:creator>Jain, M</dc:creator>
        <dc:creator>Varshney, R K</dc:creator>
        <dc:creator>Mantri, N</dc:creator>
        <dc:subject>Abiotic Stress</dc:subject>
        <dc:subject>Chickpea</dc:subject>
        <dc:subject>Drought</dc:subject>
        <dc:subject>Genetics and Genomics</dc:subject>
        <dc:subject>Legume Crops</dc:subject>
        <dc:description>Drought adversely affects crop production across the globe. The root system immensely&#13;
contributes to water management and the adaptability of plants to drought stress. In this study,&#13;
drought-inducedphenotypic andtranscriptomic responses of two contrasting chickpea (Cicer arietinum L.)&#13;
genotypes were compared at the vegetative, reproductive transition, and reproductive stages.&#13;
At the vegetative stage, drought-tolerant genotype maintained higher root biomass, length, and surface&#13;
area under drought stress as compared to sensitive genotype. However, at the reproductive stage,&#13;
root length and surface area of tolerant genotype was lower but displayed higher root diameter than&#13;
sensitive genotype. The shoot biomass of tolerant genotype was overall higher than the sensitive&#13;
genotype under drought stress. RNA-seq analysis identified genotype- and developmental-stage specific&#13;
differentially expressed genes (DEGs) in response to drought stress. At the vegetative stage, a total of&#13;
2161 and 1873 DEGs, and at reproductive stage 4109 and 3772 DEGs, were identified in the tolerant&#13;
and sensitive genotypes, respectively. Gene ontology (GO) analysis revealed enrichment of biological&#13;
categories related to cellular process, metabolic process, response to stimulus, response to abiotic stress,&#13;
and response to hormones. Interestingly, the expression of stress-responsive transcription factors, kinases,&#13;
ROS signaling and scavenging, transporters, root nodulation, and oxylipin biosynthesis genes were&#13;
robustly upregulated in the tolerant genotype, possibly contributing to drought adaptation. Furthermore,&#13;
activation/repression of hormone signaling and biosynthesis genes was observed. Overall, this study&#13;
sheds new insights on drought tolerance mechanisms operating in roots with broader implications for&#13;
chickpea improvement.</dc:description>
        <dc:publisher>MDPI</dc:publisher>
        <dc:date>2020-03</dc:date>
        <dc:type>Article</dc:type>
        <dc:type>PeerReviewed</dc:type>
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        <dc:language>en</dc:language>
        <dc:identifier>http://oar.icrisat.org/11509/1/ijms-21-01781.pdf</dc:identifier>
        <dc:identifier>  Bhaskarla, V and Zinta, G and Ford, R and Jain, M and Varshney, R K and Mantri, N  (2020) Comparative Root Transcriptomics Provide Insights into Drought Adaptation Strategies in Chickpea (Cicer arietinum L.).  International Journal of Molecular Sciences (TSI), 21 (1781).  pp. 1-20.  ISSN 1422-0067     </dc:identifier>
        <dc:relation>https://doi.org/10.3390/ijms21051781</dc:relation>
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