Minqing Rong
Icahn School of Medicine at Mount Sinai
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Publication
Featured researches published by Minqing Rong.
Nature Genetics | 2001
Marianna Max; Y. Gopi Shanker; Liquan Huang; Minqing Rong; Zhan Liu; Fabien Campagne; Harel Weinstein; Sami Damak; Robert F. Margolskee
The ability to taste the sweetness of carbohydrate-rich foodstuffs has a critical role in the nutritional status of humans. Although several components of bitter transduction pathways have been identified, the receptors and other sweet transduction elements remain unknown. The Sac locus in mouse, mapped to the distal end of chromosome 4 (refs. 7–9), is the major determinant of differences between sweet-sensitive and -insensitive strains of mice in their responsiveness to saccharin, sucrose and other sweeteners. To identify the human Sac locus, we searched for candidate genes within a region of approximately one million base pairs of the sequenced human genome syntenous to the region of Sac in mouse. From this search, we identified a likely candidate: T1R3, a previously unknown G protein-coupled receptor (GPCR) and the only GPCR in this region. Mouse Tas1r3 (encoding T1r3) maps to within 20,000 bp of the marker closest to Sac (ref. 9) and, like human TAS1R3, is expressed selectively in taste receptor cells. By comparing the sequence of Tas1r3 from several independently derived strains of mice, we identified a specific polymorphism that assorts between taster and non-taster strains. According to models of its structure, T1r3 from non-tasters is predicted to have an extra amino-terminal glycosylation site that, if used, would interfere with dimerization.
Nature Neuroscience | 2002
Robert F. Margolskee; Liquan Huang; Minqing Rong; Marianna Max; Christian A. Perez
We used differential screening of cDNAs from individual taste receptor cells to identify candidate taste transduction elements in mice. Among the differentially expressed clones, one encoded Trpm5, a member of the mammalian family of transient receptor potential (TRP) channels. We found Trpm5 to be expressed in a restricted manner, with particularly high levels in taste tissue. In taste cells, Trpm5 was coexpressed with taste-signaling molecules such as α-gustducin, Gγ13, phospholipase C-β2 (PLC-β2) and inositol 1,4,5-trisphosphate receptor type III (IP3R3). Our heterologous expression studies of Trpm5 indicate that it functions as a cationic channel that is gated when internal calcium stores are depleted. Trpm5 may be responsible for capacitative calcium entry in taste receptor cells that respond to bitter and/or sweet compounds.
Science | 2003
Sami Damak; Minqing Rong; Keiko Yasumatsu; Zaza Kokrashvili; Vijaya Varadarajan; Shiying Zou; Peihua Jiang; Yuzo Ninomiya; Robert F. Margolskee
Chemical Senses | 2006
Sami Damak; Minqing Rong; Keiko Yasumatsu; Zaza Kokrashvili; Cristian A. Pérez; Noriatsu Shigemura; Ryusuke Yoshida; Bedrich Mosinger; John I. Glendinning; Yuzo Ninomiya; Robert F. Margolskee
Chemical Senses | 2005
Minqing Rong; Wei He; Keiko Yasumatsu; Zaza Kokrashvili; Cristian A. Pérez; Bedrich Mosinger; Yuzo Ninomiya; Robert F. Margolskee; Sami Damak
Archive | 2004
Robert F. Margolskee; Minqing Rong; Sami Damak
Archive | 2001
Robert F. Margolskee; Liquan Huang; Minqing Rong; Marianna Max; Cristian A. Pérez
Archive | 2001
Robert F. Margolskee; Liquan Huang; Minqing Rong; Marianna Max; Christian A. Perez
Archive | 2001
Robert F. Margolskee; Liquan Huang; Minqing Rong; Marianna Max; Christian A. Perez
Archive | 2001
Robert F. Margolskee; Liquan Huang; Minqing Rong; Marianna Max; Christian A. Perez