Literature DB >> 18827337

Multiple receptor systems for glutamate detection in the taste organ.

Toshiaki Yasuo1, Yoko Kusuhara, Keiko Yasumatsu, Yuzo Ninomiya.   

Abstract

L-Glutamate and 5'-ribonucleotides such as guanosine-5'-monophosphate (GMP) and inosine-5'-monophosphate (IMP) elicit a unique taste called 'umami' that is distinct from the tastes of sweet, salty, sour, and bitter. For umami, like sweet and bitter compounds, taste signaling is initiated by binding of tastants to G-protein-coupled receptors (GPCR) in taste bud cells. To date, several GPCRs for umami compounds have been identified in taste cells, including the heterodimer T1R1/T1R3, and truncated type 1 and 4 metabotropic glutamate receptors missing most of the N-terminal extracellular domain (taste-mGluR4 and truncated-mGluR1). Apparently contradictory data in T1R3 knock-out (KO) mouse models have been reported. One study showed that behavioral preference and taste nerve responses to umami stimuli in T1R3-KO mice were totally abolished, suggesting that T1R1/T1R3 is a sole receptor for umami taste. The other reported reduced but not abolished responses to umami in T1R3-KO mice, suggesting existence of multiple receptors for umami taste. In this paper, we summarized the data from recent studies that further addressed this issue by using different experimental techniques. Some of the studies provided additional evidence for the existence of umami receptor systems mediated by mGluR1 and mGluR4 in addition to T1R1/T1R3. It is proposed that the signal mediated by the pathway involving T1R1/T1R3 may play a different role from that derived from the mGluRs. The former occurs mainly in the anterior tongue, and plays a major role in preference behavior, whereas the latter occurs mainly in the posterior tongue and contributes to behavioral discrimination between umami and other taste compounds.

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Year:  2008        PMID: 18827337     DOI: 10.1248/bpb.31.1833

Source DB:  PubMed          Journal:  Biol Pharm Bull        ISSN: 0918-6158            Impact factor:   2.233


  21 in total

1.  Taste perception of monosodium glutamate and inosine monophosphate by 129P3/J and C57BL/6ByJ mice.

Authors:  Yuko Murata; Gary K Beauchamp; Alexander A Bachmanov
Journal:  Physiol Behav       Date:  2009-08-08

2.  The Effect of Temperature on Umami Taste.

Authors:  Barry G Green; Cynthia Alvarado; Kendra Andrew; Danielle Nachtigal
Journal:  Chem Senses       Date:  2016-04-20       Impact factor: 3.160

3.  An Examination of the Role of L-Glutamate and Inosine 5'-Monophosphate in Hedonic Taste-Guided Behavior by Mice Lacking the T1R1 + T1R3 Receptor.

Authors:  Ginger D Blonde; Alan C Spector
Journal:  Chem Senses       Date:  2017-06-01       Impact factor: 3.160

4.  The importance of the presence of a 5'-ribonucleotide and the contribution of the T1R1 + T1R3 heterodimer and an additional low-affinity receptor in the taste detection of L-glutamate as assessed psychophysically.

Authors:  Kimberly R Smith; Alan C Spector
Journal:  J Neurosci       Date:  2014-09-24       Impact factor: 6.167

5.  Mice perceive synergistic umami mixtures as tasting sweet.

Authors:  Louis N Saites; Zachary Goldsmith; Jaron Densky; Vivian A Guedes; John D Boughter
Journal:  Chem Senses       Date:  2015-03-28       Impact factor: 3.160

6.  Responses to apical and basolateral application of glutamate in mouse fungiform taste cells with action potentials.

Authors:  Mayu Niki; Shingo Takai; Yoko Kusuhara; Yuzo Ninomiya; Ryusuke Yoshida
Journal:  Cell Mol Neurobiol       Date:  2011-05-15       Impact factor: 5.046

7.  CALHM1 Deletion in Mice Affects Glossopharyngeal Taste Responses, Food Intake, Body Weight, and Life Span.

Authors:  Göran Hellekant; Jared Schmolling; Philippe Marambaud; Teresa A Rose-Hellekant
Journal:  Chem Senses       Date:  2015-04-08       Impact factor: 3.160

8.  N-geranyl cyclopropyl-carboximide modulates salty and umami taste in humans and animal models.

Authors:  Mark L Dewis; Tam-Hao T Phan; ZuoJun Ren; Xuanyu Meng; Meng Cui; Shobha Mummalaneni; Mee-Ra Rhyu; John A DeSimone; Vijay Lyall
Journal:  J Neurophysiol       Date:  2012-12-05       Impact factor: 2.714

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Authors:  Ruiqiang Li; Wei Fan; Geng Tian; Hongmei Zhu; Lin He; Jing Cai; Quanfei Huang; Qingle Cai; Bo Li; Yinqi Bai; Zhihe Zhang; Yaping Zhang; Wen Wang; Jun Li; Fuwen Wei; Heng Li; Min Jian; Jianwen Li; Zhaolei Zhang; Rasmus Nielsen; Dawei Li; Wanjun Gu; Zhentao Yang; Zhaoling Xuan; Oliver A Ryder; Frederick Chi-Ching Leung; Yan Zhou; Jianjun Cao; Xiao Sun; Yonggui Fu; Xiaodong Fang; Xiaosen Guo; Bo Wang; Rong Hou; Fujun Shen; Bo Mu; Peixiang Ni; Runmao Lin; Wubin Qian; Guodong Wang; Chang Yu; Wenhui Nie; Jinhuan Wang; Zhigang Wu; Huiqing Liang; Jiumeng Min; Qi Wu; Shifeng Cheng; Jue Ruan; Mingwei Wang; Zhongbin Shi; Ming Wen; Binghang Liu; Xiaoli Ren; Huisong Zheng; Dong Dong; Kathleen Cook; Gao Shan; Hao Zhang; Carolin Kosiol; Xueying Xie; Zuhong Lu; Hancheng Zheng; Yingrui Li; Cynthia C Steiner; Tommy Tsan-Yuk Lam; Siyuan Lin; Qinghui Zhang; Guoqing Li; Jing Tian; Timing Gong; Hongde Liu; Dejin Zhang; Lin Fang; Chen Ye; Juanbin Zhang; Wenbo Hu; Anlong Xu; Yuanyuan Ren; Guojie Zhang; Michael W Bruford; Qibin Li; Lijia Ma; Yiran Guo; Na An; Yujie Hu; Yang Zheng; Yongyong Shi; Zhiqiang Li; Qing Liu; Yanling Chen; Jing Zhao; Ning Qu; Shancen Zhao; Feng Tian; Xiaoling Wang; Haiyin Wang; Lizhi Xu; Xiao Liu; Tomas Vinar; Yajun Wang; Tak-Wah Lam; Siu-Ming Yiu; Shiping Liu; Hemin Zhang; Desheng Li; Yan Huang; Xia Wang; Guohua Yang; Zhi Jiang; Junyi Wang; Nan Qin; Li Li; Jingxiang Li; Lars Bolund; Karsten Kristiansen; Gane Ka-Shu Wong; Maynard Olson; Xiuqing Zhang; Songgang Li; Huanming Yang; Jian Wang; Jun Wang
Journal:  Nature       Date:  2009-12-13       Impact factor: 49.962

10.  Classification of genes and putative biomarker identification using distribution metrics on expression profiles.

Authors:  Hung-Chung Huang; Daniel Jupiter; Vincent VanBuren
Journal:  PLoS One       Date:  2010-02-04       Impact factor: 3.240

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