Proofing direct-seeded rice with better root plasticity and architecture

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cg.contributor.affiliationIndian Council of Agricultural Researchen
cg.contributor.affiliationNational Rice Research Institute, Indiaen
cg.contributor.affiliationOdisha University of Agriculture & Technologyen
cg.contributor.affiliationBanaras Hindu Universityen
cg.contributor.affiliationInternational Rice Research Instituteen
cg.contributor.affiliationSam Higginbottom University of Agriculture, Technology and Sciencesen
cg.identifier.doihttps://doi.org/10.3390/ijms22116058en
cg.issn1422-0067en
cg.issue11en
cg.journalInternational Journal of Molecular Sciencesen
cg.number6058en
cg.volume22en
dc.contributor.authorPanda, Siddharthen
dc.contributor.authorMajhi, Prasanta Kumaren
dc.contributor.authorAnandan, Annamalaien
dc.contributor.authorMahender, Anumallaen
dc.contributor.authorVeludandi, Sumanthen
dc.contributor.authorBastia, Debendranathen
dc.contributor.authorGuttala, Suresh Babuen
dc.contributor.authorSingh, Shravan Kumaren
dc.contributor.authorSaha, Sanjoyen
dc.contributor.authorAli, Jauharen
dc.date.accessioned2024-12-19T12:53:38Zen
dc.date.available2024-12-19T12:53:38Zen
dc.identifier.urihttps://hdl.handle.net/10568/164255
dc.titleProofing direct-seeded rice with better root plasticity and architectureen
dcterms.abstractThe underground reserve (root) has been an uncharted research territory with its untapped genetic variation yet to be exploited. Identifying ideal traits and breeding new rice varieties with efficient root system architecture (RSA) has great potential to increase resource-use efficiency and grain yield, especially under direct-seeded rice, by adapting to aerobic soil conditions. In this review, we tried to mine the available research information on the direct-seeded rice (DSR) root system to highlight the requirements of different root traits such as root architecture, length, number, density, thickness, diameter, and angle that play a pivotal role in determining the uptake of nutrients and moisture at different stages of plant growth. RSA also faces several stresses, due to excess or deficiency of moisture and nutrients, low or high temperature, or saline conditions. To counteract these hindrances, adaptation in response to stress becomes essential. Candidate genes such as early root growth enhancer PSTOL1, surface rooting QTL qSOR1, deep rooting gene DRO1, and numerous transporters for their respective nutrients and stress-responsive factors have been identified and validated under different circumstances. Identifying the desired QTLs and transporters underlying these traits and then designing an ideal root architecture can help in developing a suitable DSR cultivar and aid in further advancement in this direction.en
dcterms.accessRightsOpen Access
dcterms.available2021-06-04
dcterms.bibliographicCitationPanda, Siddharth; Majhi, Prasanta Kumar; Anandan, Annamalai; Mahender, Anumalla; Veludandi, Sumanth; Bastia, Debendranath; Guttala, Suresh Babu; Singh, Shravan Kumar; Saha, Sanjoy and Ali, Jauhar. 2021. Proofing direct-seeded rice with better root plasticity and architecture. IJMS, Volume 22 no. 11 p. 6058en
dcterms.issued2021-06-04
dcterms.languageen
dcterms.licenseCC-BY-4.0
dcterms.publisherMDPIen
dcterms.subjectphysical and theoretical chemistryen
dcterms.subjectinorganic chemistryen
dcterms.subjectorganic chemistryen
dcterms.subjectspectroscopyen
dcterms.subjectmolecular biologyen
dcterms.subjectcatalysisen
dcterms.subjectgeneral medicineen
dcterms.subjectcomputer science applicationsen
dcterms.typeJournal Article

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