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Narendra Tuteja
Researcher at International Centre for Genetic Engineering and Biotechnology
Publications - 370
Citations - 32591
Narendra Tuteja is an academic researcher from International Centre for Genetic Engineering and Biotechnology. The author has contributed to research in topics: Abiotic stress & Helicase. The author has an hindex of 68, co-authored 354 publications receiving 27042 citations. Previous affiliations of Narendra Tuteja include National Institutes of Health & University of Delhi.
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G protein-effector coupling: interactions of recombinant inhibitory gamma subunit with transducin and phosphodiesterase.
TL;DR: The availability of large quantities of active bacterial gamma, together with the ability to change its primary structure by site-directed mutagenesis, promises to provide considerable new information on the interaction between transducin and phosphodiesterase, as well as insights into the molecular mechanism of G protein-effector coupling.
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Mango (Mangifera indica L.) malformation: a malady of stress ethylene origin.
TL;DR: The ethylene origin nature of mango malformation is discussed, various factors eliciting ‘stress ethylene’ formation, role of Ethylene in development of malady and regulation of ethylene action to reduce malformation in mango are covered.
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OsBAT1 Augments Salinity Stress Tolerance by Enhancing Detoxification of ROS and Expression of Stress-Responsive Genes in Transgenic Rice
TL;DR: The localization of rice BAT1 (OsBAT1) in the nucleus and in the plasma membrane and its novel function in salinity stress tolerance in rice are demonstrated, providing the first direct evidence for a promising function of OsBAT1 in mediatingSalinity stress response/tolerance in rice.
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The Gly-Arg-rich C-terminal domain of pea nucleolin is a DNA helicase that catalytically translocates in the 5'- to 3'-direction.
TL;DR: It is confirmed that the unwinding and ATPase activities of pea nucleolin resided in the GAR domain, which should make important contribution to better understanding of DNA transaction in plants, mechanism of DNA unwinding, and the mechanism by which these ligands can disturb genome integrity.