Publication History View all

  • Source
    [show abstract] [hide abstract]
    ABSTRACT: Graphical abstract Screening of the dehydration-responsive nuclear proteome of indica rice identified an Alba-family protein, designated OsAlba1, distantly related to the archaeal DNA/RNA-binding Alba protein. We describe, for the first time, the complete sequence of OsAlba1, its genomic organization, and possible function/s.
    Phytochemistry 01/2014;
  • [show abstract] [hide abstract]
    ABSTRACT: The enormous population growth, climate change and global warming are now considered major threats to agriculture and world's food security. To improve the productivity and sustainability of agriculture, the development of highyielding and durable abiotic and biotic stress-tolerant cultivars and/climate resilient crops is essential. Henceforth, understanding the molecular mechanism and dissection of complex quantitative yield and stress tolerance traits is the prime objective in current agricultural biotechnology research. In recent years, tremendous progress has been made in plant genomics and molecular breeding research pertaining to conventional and next-generation whole genome, transcriptome and epigenome sequencing efforts, generation of huge genomic, transcriptomic and epigenomic resources and development of modern genomics-assisted breeding approaches in diverse crop genotypes with contrasting yield and abiotic stress tolerance traits. Unfortunately, the detailed molecular mechanism and gene regulatory networks controlling such complex quantitative traits is not yet well understood in crop plants. Therefore, we propose an integrated strategies involving available enormous and diverse traditional and modern -omics (structural, functional, comparative and epigenomics) approaches/resources and genomics-assisted breeding methods which agricultural biotechnologist can adopt/utilize to dissect and decode the molecular and gene regulatory networks involved in the complex quantitative yield and stress tolerance traits in crop plants. This would provide clues and much needed inputs for rapid selection of novel functionally relevant molecular tags regulating such complex traits to expedite traditional and modern marker-assisted genetic enhancement studies in target crop species for developing high-yielding stress-tolerant varieties.
    Journal of Biosciences 12/2013; 38(5):971-87.
  • Source
    [show abstract] [hide abstract]
    ABSTRACT: The kinase-inducible domain interacting (KIX) domain is a highly conserved independently folding three-helix bundle that serves as a docking site for transcription factors, whereupon promoter activation and target specificity are achieved during gene regulation. This docking event is a harbinger of an intricate multi-protein assembly at the transcriptional apparatus and is regulated in a highly precise manner in view of the critical role it plays in multiple cellular processes. KIX domains have been characterized in transcriptional coactivators such as p300/CREB-binding protein and mediator of RNA polymerase II transcription subunit 15, and even recQ protein-like 5 helicases in various organisms. Their targets are often intrinsically disordered regions within the transactivation domains of transcription factors that attain stable secondary structure only upon complexation with KIX. In this article, we review the KIX domain in terms of its sequence and structure and present the various implications of its ability to act as a transcriptional switch, the mechanistic basis of molecular recognition by KIX, its binding specificity, target promiscuity, combinatorial potential and unique mode of regulation via allostery. We also discuss the possible roles of KIX domains in plants and hope that this review will accelerate scientific interest in KIX and pave the way for novel avenues of research on this critical domain.
    Nucleic Acids Research 11/2013;


  • Address
    Aruna Asaf Ali Marg, 110067, New Delhi, New Delhi, India
  • Head of Institution
    Prof. Akhilesh K. Tyagi
  • Website
  • Phone
  • Fax
Information provided on this web page is aggregated encyclopedic and bibliographical information relating to the named institution. Information provided is not approved by the institution itself. The institution’s logo (and/or other graphical identification, such as a coat of arms) is used only to identify the institution in a nominal way. Under certain jurisdictions it may be property of the institution.

93 Members View all

View all

Top publications last week by downloads

Book chapter In: Gene Silencing: Theory, Techniques and Applications, Nova Science Publishers, Inc. 01/2010; ISBN: 1-61728-276-8:183-199.
Plant Cell Reports 05/2013;

Top Collaborating Institutions


This map visualizes which other institutions researchers from National Institute of Plant Genome Research have collaborated with.

Rg score distribution

See how the RG Scores of researchers from National Institute of Plant Genome Research are distributed.