Diwan Rawat

Diwan Rawat


Research Focus & Metrics

Academic Career Length

29Years (1998-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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28 June 2019 in Medicinal Research Reviews
Verified
Journal Article
Closed access
PDF file
ABAparna Bahuguna
Aparna Bahuguna
DRDiwan Rawat
Diwan Rawat

1 January 2005
Verified
Book
Closed access
DBD. S. Bhakuni
D. S. Bhakuni
DRDiwan Rawat
Diwan Rawat

1 February 2013 in Bioorganic & Medicinal Chemistry Letters
Verified
Journal Article
Closed access
BEBeena
Beena
DKDeepak Kumar
Deepak Kumar
DRDiwan Rawat
Diwan Rawat

14 June 2012 in ACS Medicinal Chemistry Letters
Verified
Journal Article
Closed access
SMSunny Manohar
Sunny Manohar
CHINNA RAJESH UMMADISETTICHINNA RAJESH UMMADISETTI
CHINNA RAJESH UMMADISETTI
SKShabana I. Khan
Shabana I. Khan
BTBabu L. Tekwani
Babu L. Tekwani
DRDiwan Rawat
Diwan Rawat

23 May 2012 in Medicinal Research Reviews
Verified
Journal Article
Closed access
PDF file
BEBeena
Beena
DRDiwan Rawat
Diwan Rawat

1 October 2004 in Journal of Biological Chemistry
Verified
Journal Article
Open access
PDF file
MMMatthew J. McFarland
Matthew J. McFarland
APAmy C. Porter
Amy C. Porter
FRFariborz R. Rakhshan
Fariborz R. Rakhshan
DRDiwan Rawat
Diwan Rawat
RGRichard A. Gibbs
Richard A. Gibbs
EBEric L. Barker
Eric L. Barker
The mechanisms responsible for the uptake and cellular processing of the endogenous cannabinoid anandamide are not well understood. We propose that anandamide uptake may occur via a caveola/lipid raft-related endocytic process in RBL-2H3 cells. Inhibitors of caveola-related (clathrin-independent) endocytosis reduced anandamide transport by ∼50% compared with the control. Fluorescein derived from fluorescently labeled anandamide colocalized with protein markers of caveolae at early time points following transport. In this study, we have also identified a yet unrecognized process involved in trafficking events affecting anandamide following its uptake. Following uptake of [3H]anandamide by RBL-2H3 cells, we found an accumulation of tritium in the caveolin-rich membranes. Inhibitors of both anandamide uptake and metabolism blocked the observed enrichment of tritium in the caveolin-rich membranes. Mass spectrometry of subcellular membrane fractions revealed that the tritium accumulation observed in the caveolin-rich membrane fraction was not representative of intact anandamide, suggesting that following metabolism by the enzyme fatty acid amide hydrolase (FAAH), anandamide metabolites are rapidly enriched in caveolae. Furthermore, HeLa cells, which do not express high levels of FAAH, showed an accumulation of tritium in the caveolin-rich membrane fraction only when transfected with FAAH cDNA. Western blot and immunocytochemistry analyses of RBL-2H3 cells revealed that FAAH was localized in intracellular compartments distinct from caveolin-1 localization. Together, these data suggest that following uptake via caveola/lipid raft-related endocytosis, anandamide is rapidly metabolized by FAAH, with the metabolites efficiently recycled to caveolin-rich membrane domains.