Literature DB >> 26071406

Transport, metabolism, and endosomal trafficking-dependent regulation of intestinal fructose absorption.

Chirag Patel1, Veronique Douard1, Shiyan Yu1, Nan Gao1, Ronaldo P Ferraris2.   

Abstract

Dietary fructose that is linked to metabolic abnormalities can up-regulate its own absorption, but the underlying regulatory mechanisms are not known. We hypothesized that glucose transporter (GLUT) protein, member 5 (GLUT5) is the primary fructose transporter and that fructose absorption via GLUT5, metabolism via ketohexokinase (KHK), as well as GLUT5 trafficking to the apical membrane via the Ras-related protein-in-brain 11 (Rab11)a-dependent endosomes are each required for regulation. Introducing fructose but not lysine and glucose solutions into the lumen increased by 2- to 10-fold the heterogeneous nuclear RNA, mRNA, protein, and activity levels of GLUT5 in adult wild-type mice consuming chow. Levels of GLUT5 were >100-fold that of candidate apical fructose transporters GLUTs 7, 8, and 12 whose expression, and that of GLUT 2 and the sodium-dependent glucose transporter protein 1 (SGLT1), was not regulated by luminal fructose. GLUT5-knockout (KO) mice exhibited no facilitative fructose transport and no compensatory increases in activity and expression of SGLT1 and other GLUTs. Fructose could not up-regulate GLUT5 in GLUT5-KO, KHK-KO, and intestinal epithelial cell-specific Rab11a-KO mice. The fructose-specific metabolite glyceraldehyde did not increase GLUT5 expression. GLUT5 is the primary transporter responsible for facilitative absorption of fructose, and its regulation specifically requires fructose uptake and metabolism and normal GLUT5 trafficking to the apical membrane. © FASEB.

Entities:  

Keywords:  GLUT5; Rab11a; ketohexokinase; sugar

Mesh:

Substances:

Year:  2015        PMID: 26071406      PMCID: PMC4550372          DOI: 10.1096/fj.15-272195

Source DB:  PubMed          Journal:  FASEB J        ISSN: 0892-6638            Impact factor:   5.191


  38 in total

1.  Diet-induced epigenetic regulation in vivo of the intestinal fructose transporter Glut5 during development of rat small intestine.

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Journal:  Biochem J       Date:  2011-04-01       Impact factor: 3.857

Review 2.  The facilitative glucose transporter GLUT12: what do we know and what would we like to know?

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Journal:  J Physiol Biochem       Date:  2012-10-03       Impact factor: 4.158

3.  The small intestinal fructose transporters: site of dietary perception and evidence for diurnal and fructose sensitive control elements.

Authors:  C P Corpe; F J Bovelander; J H Hoekstra; C F Burant
Journal:  Biochim Biophys Acta       Date:  1998-04-24

4.  Apical cargo traverses endosomal compartments on the passage to the cell surface.

Authors:  Catharina I Cramm-Behrens; Martina Dienst; Ralf Jacob
Journal:  Traffic       Date:  2008-10-08       Impact factor: 6.215

5.  A possible role for glyceraldehyde transport in the stimulation of HIT-T15 insulinoma cells.

Authors:  J Davies; S Tomlinson; A C Elliott; L Best
Journal:  Biochem J       Date:  1994-11-15       Impact factor: 3.857

6.  Glucose transporter 5 is undetectable in outer hair cells and does not contribute to cochlear amplification.

Authors:  Xudong Wu; Xiang Wang; Jiangang Gao; Yiling Yu; Shuping Jia; Jing Zheng; Peter Dallos; David Z Z He; MaryAnn Cheatham; Jian Zuo
Journal:  Brain Res       Date:  2008-03-18       Impact factor: 3.252

7.  Modulation of carcinogen metabolism by nitric oxide-aspirin 2 is associated with suppression of DNA damage and DNA adduct formation.

Authors:  Christopher J MacDonald; Robert Y S Cheng; David D Roberts; David A Wink; Grace Chao Yeh
Journal:  J Biol Chem       Date:  2009-06-19       Impact factor: 5.157

8.  Na(+)-D-glucose cotransporter SGLT1 is pivotal for intestinal glucose absorption and glucose-dependent incretin secretion.

Authors:  Valentin Gorboulev; Annette Schürmann; Volker Vallon; Helmut Kipp; Alexander Jaschke; Dirk Klessen; Alexandra Friedrich; Stephan Scherneck; Timo Rieg; Robyn Cunard; Maike Veyhl-Wichmann; Aruna Srinivasan; Daniela Balen; Davorka Breljak; Rexhep Rexhepaj; Helen E Parker; Fiona M Gribble; Frank Reimann; Florian Lang; Stefan Wiese; Ivan Sabolic; Michael Sendtner; Hermann Koepsell
Journal:  Diabetes       Date:  2011-11-28       Impact factor: 9.461

9.  Rab11a is required for apical protein localisation in the intestine.

Authors:  Tomoaki Sobajima; Shin-Ichiro Yoshimura; Tomohiko Iwano; Masataka Kunii; Masahiko Watanabe; Nur Atik; Sotaro Mushiake; Eiichi Morii; Yoshihisa Koyama; Eiji Miyoshi; Akihiro Harada
Journal:  Biol Open       Date:  2014-12-19       Impact factor: 2.422

10.  Myosin Va mediates Rab8A-regulated GLUT4 vesicle exocytosis in insulin-stimulated muscle cells.

Authors:  Yi Sun; Tim T Chiu; Kevin P Foley; Philip J Bilan; Amira Klip
Journal:  Mol Biol Cell       Date:  2014-01-29       Impact factor: 4.138

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  28 in total

1.  Reassessment of GLUT7 and GLUT9 as Putative Fructose and Glucose Transporters.

Authors:  Karolin Ebert; Maren Ludwig; Kerstin Elisabeth Geillinger; Gina Catalina Schoberth; Jasmin Essenwanger; Jürgen Stolz; Hannelore Daniel; Heiko Witt
Journal:  J Membr Biol       Date:  2017-01-12       Impact factor: 1.843

2.  Fructose malabsorption induces cholecystokinin expression in the ileum and cecum by changing microbiota composition and metabolism.

Authors:  Xufei Zhang; Alexandra Grosfeld; Edek Williams; Daniel Vasiliauskas; Sharon Barretto; Lorraine Smith; Mahendra Mariadassou; Catherine Philippe; Fabienne Devime; Chloé Melchior; Guillaume Gourcerol; Nathalie Dourmap; Nicolas Lapaque; Pierre Larraufie; Hervé M Blottière; Christine Herberden; Philippe Gerard; Jens F Rehfeld; Ronaldo P Ferraris; J Christopher Fritton; Sandrine Ellero-Simatos; Veronique Douard
Journal:  FASEB J       Date:  2019-04-02       Impact factor: 5.191

Review 3.  RAB and RHO GTPases regulate intestinal crypt cell homeostasis and enterocyte function.

Authors:  Xiao Zhang; Nan Gao
Journal:  Small GTPases       Date:  2016-05-04

4.  Deletion of Fructokinase in the Liver or in the Intestine Reveals Differential Effects on Sugar-Induced Metabolic Dysfunction.

Authors:  Ana Andres-Hernando; David J Orlicky; Masanari Kuwabara; Takuji Ishimoto; Takahiko Nakagawa; Richard J Johnson; Miguel A Lanaspa
Journal:  Cell Metab       Date:  2020-06-04       Impact factor: 27.287

5.  Cell-Type-Specific, Ketohexokinase-Dependent Induction by Fructose of Lipogenic Gene Expression in Mouse Small Intestine.

Authors:  Arwa Al-Jawadi; Chirag R Patel; Reilly J Shiarella; Emmanuellie Romelus; Madelyn Auvinen; Joshua Guardia; Sarah C Pearce; Kunihiro Kishida; Shiyan Yu; Nan Gao; Ronaldo P Ferraris
Journal:  J Nutr       Date:  2020-07-01       Impact factor: 4.798

6.  Identification of essential amino acids for glucose transporter 5 (GLUT5)-mediated fructose transport.

Authors:  Karolin Ebert; Maren Ewers; Ina Bisha; Simone Sander; Tanja Rasputniac; Hannelore Daniel; Iris Antes; Heiko Witt
Journal:  J Biol Chem       Date:  2017-12-19       Impact factor: 5.157

7.  Nutrient sensing by absorptive and secretory progenies of small intestinal stem cells.

Authors:  Kunihiro Kishida; Sarah C Pearce; Shiyan Yu; Nan Gao; Ronaldo P Ferraris
Journal:  Am J Physiol Gastrointest Liver Physiol       Date:  2017-03-23       Impact factor: 4.052

Review 8.  Fructose metabolism and metabolic disease.

Authors:  Sarah A Hannou; Danielle E Haslam; Nicola M McKeown; Mark A Herman
Journal:  J Clin Invest       Date:  2018-02-01       Impact factor: 14.808

Review 9.  Fructose metabolism, cardiometabolic risk, and the epidemic of coronary artery disease.

Authors:  Peter Mirtschink; Cholsoon Jang; Zoltan Arany; Wilhelm Krek
Journal:  Eur Heart J       Date:  2018-07-07       Impact factor: 29.983

10.  Adverse effects of honey on low-density lipoprotein cholesterol and adiponectin concentrations in patients with type 2 diabetes: a randomized controlled cross-over trial.

Authors:  Fatemeh Sadeghi; Masoumeh Akhlaghi; Saedeh Salehi
Journal:  J Diabetes Metab Disord       Date:  2020-04-14
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