Literature DB >> 22249520

Sirtuins mediate mammalian metabolic responses to nutrient availability.

Angeliki Chalkiadaki1, Leonard Guarente.   

Abstract

Metabolic diseases are an increasing threat in developed countries. Dysregulation of metabolic pathways, caused by imbalances in energy homeostasis, leads to obesity, diabetes and cardiovascular disease with devastating results for both individuals and societies. Sirtuins, a conserved family of NAD(+)-dependent deacetylase enzymes found in many species, regulate various metabolic pathways and have emerged as important sensors of energy status in mammals. The nuclear sirtuins, SIRT1, SIRT6 and SIRT7, regulate the activity of key transcription factors and cofactors of numerous metabolic pathways in almost all tissues by linking nutrient signals with the cellular responses to energy demands. The mitochondrial sirtuins, SIRT3, SIRT4 and SIRT5, regulate the activity of important mitochondrial enzymes and drive metabolic cycles in response to fasting and calorie restriction. Accumulating evidence indicates that sirtuins can be beneficial in the prevention of metabolic and age-related diseases and suggests that they can be pharmacologically activated to ameliorate such diseases. This Review describes the latest advances in the understanding of the function of sirtuins as regulators of mammalian metabolism and focuses on the role of these enzymes as mediators of nutrient availability.

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Year:  2012        PMID: 22249520     DOI: 10.1038/nrendo.2011.225

Source DB:  PubMed          Journal:  Nat Rev Endocrinol        ISSN: 1759-5029            Impact factor:   43.330


  156 in total

1.  Calorie restriction enhances cell adaptation to hypoxia through Sirt1-dependent mitochondrial autophagy in mouse aged kidney.

Authors:  Shinji Kume; Takashi Uzu; Kihachiro Horiike; Masami Chin-Kanasaki; Keiji Isshiki; Shin-Ichi Araki; Toshiro Sugimoto; Masakazu Haneda; Atsunori Kashiwagi; Daisuke Koya
Journal:  J Clin Invest       Date:  2010-03-24       Impact factor: 14.808

2.  Genomic instability and aging-like phenotype in the absence of mammalian SIRT6.

Authors:  Raul Mostoslavsky; Katrin F Chua; David B Lombard; Wendy W Pang; Miriam R Fischer; Lionel Gellon; Pingfang Liu; Gustavo Mostoslavsky; Sonia Franco; Michael M Murphy; Kevin D Mills; Parin Patel; Joyce T Hsu; Andrew L Hong; Ethan Ford; Hwei-Ling Cheng; Caitlin Kennedy; Nomeli Nunez; Roderick Bronson; David Frendewey; Wojtek Auerbach; David Valenzuela; Margaret Karow; Michael O Hottiger; Stephen Hursting; J Carl Barrett; Leonard Guarente; Richard Mulligan; Bruce Demple; George D Yancopoulos; Frederick W Alt
Journal:  Cell       Date:  2006-01-27       Impact factor: 41.582

3.  The SIR2/3/4 complex and SIR2 alone promote longevity in Saccharomyces cerevisiae by two different mechanisms.

Authors:  M Kaeberlein; M McVey; L Guarente
Journal:  Genes Dev       Date:  1999-10-01       Impact factor: 11.361

4.  SIRT3 deacetylates mitochondrial 3-hydroxy-3-methylglutaryl CoA synthase 2 and regulates ketone body production.

Authors:  Tadahiro Shimazu; Matthew D Hirschey; Lan Hua; Kristin E Dittenhafer-Reed; Bjoern Schwer; David B Lombard; Yu Li; Jakob Bunkenborg; Frederick W Alt; John M Denu; Matthew P Jacobson; Eric Verdin
Journal:  Cell Metab       Date:  2010-12-01       Impact factor: 27.287

5.  JNK1 phosphorylates SIRT1 and promotes its enzymatic activity.

Authors:  Nargis Nasrin; Virendar K Kaushik; Eric Fortier; Daniel Wall; Kevin J Pearson; Rafael de Cabo; Laura Bordone
Journal:  PLoS One       Date:  2009-12-22       Impact factor: 3.240

6.  STAT3 inhibition of gluconeogenesis is downregulated by SirT1.

Authors:  Yongzhan Nie; Derek M Erion; Zhenglong Yuan; Marcelo Dietrich; Gerald I Shulman; Tamas L Horvath; Qian Gao
Journal:  Nat Cell Biol       Date:  2009-03-22       Impact factor: 28.824

7.  Small molecule activators of sirtuins extend Saccharomyces cerevisiae lifespan.

Authors:  Konrad T Howitz; Kevin J Bitterman; Haim Y Cohen; Dudley W Lamming; Siva Lavu; Jason G Wood; Robert E Zipkin; Phuong Chung; Anne Kisielewski; Li-Li Zhang; Brandy Scherer; David A Sinclair
Journal:  Nature       Date:  2003-08-24       Impact factor: 49.962

8.  Liver steatosis and increased ChREBP expression in mice carrying a liver specific SIRT1 null mutation under a normal feeding condition.

Authors:  Rui-Hong Wang; Cuiling Li; Chu-Xia Deng
Journal:  Int J Biol Sci       Date:  2010-11-16       Impact factor: 6.580

9.  SIRT1 promotes endothelium-dependent vascular relaxation by activating endothelial nitric oxide synthase.

Authors:  Ilwola Mattagajasingh; Cuk-Seong Kim; Asma Naqvi; Tohru Yamamori; Timothy A Hoffman; Saet-Byel Jung; Jeremy DeRicco; Kenji Kasuno; Kaikobad Irani
Journal:  Proc Natl Acad Sci U S A       Date:  2007-09-04       Impact factor: 11.205

10.  PARP-1 inhibition increases mitochondrial metabolism through SIRT1 activation.

Authors:  Péter Bai; Carles Cantó; Hugues Oudart; Attila Brunyánszki; Yana Cen; Charles Thomas; Hiroyasu Yamamoto; Aline Huber; Borbála Kiss; Riekelt H Houtkooper; Kristina Schoonjans; Valérie Schreiber; Anthony A Sauve; Josiane Menissier-de Murcia; Johan Auwerx
Journal:  Cell Metab       Date:  2011-04-06       Impact factor: 27.287

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  157 in total

1.  Transcriptional analysis of histone deacetylase family members reveal similarities between differentiating and aging spermatogonial stem cells.

Authors:  Amber E Kofman; Jessica M Huszar; Christopher J Payne
Journal:  Stem Cell Rev Rep       Date:  2013-02       Impact factor: 5.739

2.  PGC-1α/ERRα-Sirt3 Pathway Regulates DAergic Neuronal Death by Directly Deacetylating SOD2 and ATP Synthase β.

Authors:  Xuefei Zhang; Xiaoqing Ren; Qi Zhang; Zheyi Li; Shuaipeng Ma; Jintao Bao; Zeyang Li; Xue Bai; Liangjun Zheng; Zhong Zhang; Shujiang Shang; Chen Zhang; Chuangui Wang; Liu Cao; Qingsong Wang; Jianguo Ji
Journal:  Antioxid Redox Signal       Date:  2015-11-19       Impact factor: 8.401

3.  Mitochondrial SIRT3 Mediates Adaptive Responses of Neurons to Exercise and Metabolic and Excitatory Challenges.

Authors:  Aiwu Cheng; Ying Yang; Ye Zhou; Chinmoyee Maharana; Daoyuan Lu; Wei Peng; Yong Liu; Ruiqian Wan; Krisztina Marosi; Magdalena Misiak; Vilhelm A Bohr; Mark P Mattson
Journal:  Cell Metab       Date:  2015-11-19       Impact factor: 27.287

4.  Characterization of NAD salvage pathways and their role in virulence in Streptococcus pneumoniae.

Authors:  Michael D L Johnson; Haley Echlin; Tina H Dao; Jason W Rosch
Journal:  Microbiology       Date:  2015-08-25       Impact factor: 2.777

Review 5.  The multifaceted functions of sirtuins in cancer.

Authors:  Angeliki Chalkiadaki; Leonard Guarente
Journal:  Nat Rev Cancer       Date:  2015-09-18       Impact factor: 60.716

6.  Gerometabolites: the pseudohypoxic aging side of cancer oncometabolites.

Authors:  Javier A Menendez; Tomás Alarcón; Jorge Joven
Journal:  Cell Cycle       Date:  2014-02-03       Impact factor: 4.534

Review 7.  Metabolic control of autophagy.

Authors:  Lorenzo Galluzzi; Federico Pietrocola; Beth Levine; Guido Kroemer
Journal:  Cell       Date:  2014-12-04       Impact factor: 41.582

8.  Cardiac mesenchymal cells from diabetic mice are ineffective for cell therapy-mediated myocardial repair.

Authors:  Parul Mehra; Yiru Guo; Yibing Nong; Pawel Lorkiewicz; Marjan Nasr; Qianhong Li; Senthilkumar Muthusamy; James A Bradley; Aruni Bhatnagar; Marcin Wysoczynski; Roberto Bolli; Bradford G Hill
Journal:  Basic Res Cardiol       Date:  2018-10-23       Impact factor: 17.165

9.  Mitochondrial complex I activity and NAD+/NADH balance regulate breast cancer progression.

Authors:  Antonio F Santidrian; Akemi Matsuno-Yagi; Melissa Ritland; Byoung B Seo; Sarah E LeBoeuf; Laurie J Gay; Takao Yagi; Brunhilde Felding-Habermann
Journal:  J Clin Invest       Date:  2013-02-15       Impact factor: 14.808

Review 10.  Review: Metabolic Regulation of Inflammation in Osteoarthritis.

Authors:  Francis Berenbaum; Timothy M Griffin; Ru Liu-Bryan
Journal:  Arthritis Rheumatol       Date:  2017-01       Impact factor: 10.995

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