Literature DB >> 12624099

Adipose-specific expression, phosphorylation of Ser794 in insulin receptor substrate-1, and activation in diabetic animals of salt-inducible kinase-2.

Nanao Horike1, Hiroshi Takemori, Yoshiko Katoh, Junko Doi, Li Min, Tomoichiro Asano, Xiao Jian Sun, Hiroyasu Yamamoto, Soji Kasayama, Masaaki Muraoka, Yasuki Nonaka, Mitsuhiro Okamoto.   

Abstract

Salt-inducible kinase (SIK), first cloned from the adrenal glands of rats fed a high salt diet, is a serine/threonine protein kinase belonging to an AMP-activated protein kinase family. Induced in Y1 cells at an early stage of ACTH stimulation, it regulated the initial steps of steroidogenesis. Here we report the identification of its isoform SIK2. When a green fluorescent protein-fused SIK2 was expressed in 3T3-L1 preadipocytes, it was mostly present in the cytoplasm. When coexpressed in cAMP-responsive element-reporter assay systems, SIK2 could repress the cAMP-responsive element-dependent transcription, although the degree of repression seemed weaker than that by SIK1. SIK2 was specifically expressed in adipose tissues. When 3T3-L1 cells were treated with the adipose differentiation mixture, SIK2 mRNA was induced within 1 h, the time of induction almost coinciding with that of c/EBPbeta mRNA. Coexpressed with human insulin receptor substrate-1 (IRS-1) in COS cells, SIK2 could phosphorylate Ser(794) of human IRS-1. Adenovirus-mediated overexpression of SIK2 in adipocytes elevated the level of phosphorylation at Ser(789), the mouse equivalent of human Ser(794). Moreover, the activity and content of SIK2 were elevated in white adipose tissues of db/db diabetic mice. These results suggest that highly expressed SIK2 in insulin-stimulated adipocytes phosphorylates Ser(794) of IRS-1 and, as a result, might modulate the efficiency of insulin signal transduction, eventually causing the insulin resistance in diabetic animals.

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Year:  2003        PMID: 12624099     DOI: 10.1074/jbc.M211770200

Source DB:  PubMed          Journal:  J Biol Chem        ISSN: 0021-9258            Impact factor:   5.157


  60 in total

Review 1.  Molecular mechanisms of insulin resistance in humans and their potential links with mitochondrial dysfunction.

Authors:  Katsutaro Morino; Kitt Falk Petersen; Gerald I Shulman
Journal:  Diabetes       Date:  2006-12       Impact factor: 9.461

2.  Insulin and metabolic stress stimulate multisite serine/threonine phosphorylation of insulin receptor substrate 1 and inhibit tyrosine phosphorylation.

Authors:  Nancy J Hançer; Wei Qiu; Christine Cherella; Yedan Li; Kyle D Copps; Morris F White
Journal:  J Biol Chem       Date:  2014-03-20       Impact factor: 5.157

3.  KIN-29 SIK regulates chemoreceptor gene expression via an MEF2 transcription factor and a class II HDAC.

Authors:  Alexander M van der Linden; Katherine M Nolan; Piali Sengupta
Journal:  EMBO J       Date:  2006-12-14       Impact factor: 11.598

4.  Salt-inducible Kinase 3 Signaling Is Important for the Gluconeogenic Programs in Mouse Hepatocytes.

Authors:  Yumi Itoh; Masato Sanosaka; Hiroyuki Fuchino; Yasuhito Yahara; Ayako Kumagai; Daisaku Takemoto; Mai Kagawa; Junko Doi; Miho Ohta; Noriyuki Tsumaki; Nobuo Kawahara; Hiroshi Takemori
Journal:  J Biol Chem       Date:  2015-06-05       Impact factor: 5.157

5.  Interaction between salt-inducible kinase 2 (SIK2) and p97/valosin-containing protein (VCP) regulates endoplasmic reticulum (ER)-associated protein degradation in mammalian cells.

Authors:  Fu-Chia Yang; Ya-Huei Lin; Wei-Hao Chen; Jing-Yi Huang; Hsin-Yun Chang; Su-Hui Su; Hsiao-Ting Wang; Chun-Yi Chiang; Pang-Hung Hsu; Ming-Daw Tsai; Bertrand Chin-Ming Tan; Sheng-Chung Lee
Journal:  J Biol Chem       Date:  2013-10-15       Impact factor: 5.157

Review 6.  Salt-Inducible Kinases: Physiology, Regulation by cAMP, and Therapeutic Potential.

Authors:  Marc N Wein; Marc Foretz; David E Fisher; Ramnik J Xavier; Henry M Kronenberg
Journal:  Trends Endocrinol Metab       Date:  2018-08-24       Impact factor: 12.015

7.  Reversible acetylation regulates salt-inducible kinase (SIK2) and its function in autophagy.

Authors:  Fu-Chia Yang; Bertrand Chin-Ming Tan; Wei-Hao Chen; Ya-Huei Lin; Jing-Yi Huang; Hsin-Yun Chang; Hui-Yu Sun; Pang-Hung Hsu; Gunn-Guang Liou; James Shen; Ching-Jin Chang; Chau-Chung Han; Ming-Daw Tsai; Sheng-Chung Lee
Journal:  J Biol Chem       Date:  2013-01-15       Impact factor: 5.157

8.  PGE(2) induces macrophage IL-10 production and a regulatory-like phenotype via a protein kinase A-SIK-CRTC3 pathway.

Authors:  Kirsty F MacKenzie; Kristopher Clark; Shaista Naqvi; Victoria A McGuire; Gesa Nöehren; Yosua Kristariyanto; Mirjam van den Bosch; Manikhandan Mudaliar; Pierre C McCarthy; Michael J Pattison; Patrick G A Pedrioli; Geoff J Barton; Rachel Toth; Alan Prescott; J Simon C Arthur
Journal:  J Immunol       Date:  2012-12-14       Impact factor: 5.422

9.  LKB1 is a master kinase that activates 13 kinases of the AMPK subfamily, including MARK/PAR-1.

Authors:  Jose M Lizcano; Olga Göransson; Rachel Toth; Maria Deak; Nick A Morrice; Jérôme Boudeau; Simon A Hawley; Lina Udd; Tomi P Mäkelä; D Grahame Hardie; Dario R Alessi
Journal:  EMBO J       Date:  2004-02-19       Impact factor: 11.598

10.  AMPK-induced activation of Akt by AICAR is mediated by IGF-1R dependent and independent mechanisms in acute lymphoblastic leukemia.

Authors:  Gilles M Leclerc; Guy J Leclerc; Guilian Fu; Julio C Barredo
Journal:  J Mol Signal       Date:  2010-09-23
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