SIRT5 Deacetylates Carbamoyl Phosphate Synthetase 1 and Regulates the Urea Cycle

Nakagawa, Takashi, Lomb, David J., Haigis, Marcia C., Guarente, Leonard·2009·Cell
DOI 10.1016/j.cell.2009.02.026

Cited by (793)

Items 601–700 of 793

  1. Porphyromonas gingivalis Induces Endothelial Dysfunction Through Sirt3‐Dependent CypD Acetylation
    Shengming Xu, Cheng Zheng, Jianmin Huang, Bin Lü, Hanxin Que, Leyan Xu, Yubo Hou, Linlin He, Xia Fan, Ke Deng et al. · 2025 · Journal of Periodontal Research
  2. Papel pleiotrópico y homeostático de las Sirtuinas en la función biológica humana.
    Marco Antonio Hernández-Bedolla, Alma Rosa Barajas‐Espinosa, Fernando Ochoa‐Cortés, Dulce Edith Alonzo Alonso, Abizai Herrera Hernández, Zaida Burgos Ostoa, Itzel Guadalupe Díaz Salguero · 2020 · Ciencias Huasteca Boletín Científico de la Escuela Superior de Huejutla
  3. Mitochondrial Dysfunction and Sirtuins: Important Targets in Hearing Loss
    Lingjun Zhang, Zhengde Du, Shusheng Gong · 2021 · Neural Plasticity
  4. Uncovering the roles of sirtuin activity and food availability during the onset of the heat shock response in the California mussel (Mytilus californianus): Implications for antioxidative stress responses
    Melissa May, Lars Tomanek · 2023 · Comparative Biochemistry and Physiology Part B Biochemistry and Molecular Biology
  5. Cloning, chromosomal characterization and FISH mapping of the NAD+-dependent histone deacetylase gene sirtuin 5 in the mouse
    Susanne Voelter‐Mahlknecht, Ulrich Mahlknecht · 2013 · International Journal of Oncology
  6. Can we use the epigenetic bioactivity of caloric restriction and phytochemicals to promote healthy ageing?
    Michael S. Christodoulou, Adeline Thomas, Stéphane Poulain, Melita Vidaković, Maija K. Lahtela-Kakkonen, Daumantas Matulis, Philippe Bertrand, Eva Bártová, Christophe Blanquart, Emmanuel Mikros et al. · 2014 · MedChemComm
  7. The Role of HATs and HDACs in Cell Physiology and Disease
    Irene Santos‐Barriopedro, Helena Raurell‐Vila, Alejandro Vaquero · 2017 · Wiley eBooks
  8. Recent insights into the roles and therapeutic potentials of GLS1 in inflammatory diseases
    Jian-Xiang Sheng, Yan-Jun Liu, Jing Yu, Ran Wang, Ru-Yi Chen, Jinjin Shi, Guan‐Jun Yang, Jiong Chen · 2025 · Journal of Pharmaceutical Analysis
  9. The advances in acetylation modification in senescence and aging-related diseases
    Maiqi Xu, Wenbin Wang, Saien Lu, Mengyao Xiong, Tong Zhao, Yao Yu, Chunyu Song, Jinjing Yang, Naijin Zhang, Liu Cao et al. · 2025 · Frontiers in Physiology
  10. Sirtuin 5-mediated desuccinylation of Slc25a4 inhibits osteoporosis by enhancing mitochondrial respiration
    Jun Chen, Xinquan Jiang · 2025 · Bone Research
  11. Unveiling the importance of SIRT5 for cardiac health and disease in an era of increasing longevity
    Arkadiusz Grzeczka, Szymon Graczyk, Paweł Kordowitzki · 2025 · GeroScience
  12. Sirtuins and tumor immunity: mechanistic insights, immunotherapy prospects, and therapeutic horizons
    Jinning Gu, Shanshan Liu, Wen Xiao, Wei Qu · 2025 · Frontiers in Immunology
  13. Multifunctional boronic acid-modified zirconium-based MOFs as peroxidase-mimicking colorimetric platforms for β-NAD capture and detection
    Burcu Gökçal, Seher Parlak, Duygu Hacıefendioğlu, M. Cihan Demir, Alï Tuncel, Çiğdem Kip · 2026 · Talanta
  14. MoCox6 is a regulator of mitophagy and a druggable target in Magnaporthe oryzae
    Ming‐Hua Wu, Ya-Nan Lv, Hui Li, Hui Qian, Yun-Yun Wei, Yun‐Ran Zhang, Shuang Liang, Xue‐Ming Zhu, Jianping Lu, Maurizio Del Poeta et al. · 2026 · Nature Microbiology
  15. Loss of pyruvate carboxylase suppresses lethality in propionic acidemia
    Jasmine Encarnacion, Susanna Scafidi, Michael J. Wolfgang · 2026 · Cell Reports
  16. Desuccinylation of inosine-5′-monophosphate dehydrogenase 1 by SIRT5 promotes tumor cell proliferation
    Chang Xu, Pengbo Yao, Jie Cheng, Peng Jiang · 2024 · Journal of Biological Chemistry
  17. Mitochondrial Sirtuins
    Wen Yang, Robert A. H. van de Ven, Marcia C. Haigis · 2018 · Elsevier eBooks
  18. Bioinformatics Analysis and Competitive Regulation by Transcription Factors of SIRT5 at the Core Promoter Region Using Bovine Adipocytes
    Jieyun Hong, Chugang Mei, Xiaoyu Wang, Gong Cheng, Linsen Zan · 2018 · DNA and Cell Biology
  19. Sirtuins and their role as physiological modulators of metabolism
    Grażyna Sygitowicz, Dariusz Sitkiewicz · 2020 · Postępy Higieny i Medycyny Doświadczalnej
  20. Deregulation of Mitochondrial Sirtuins and OGG1-2a Acts as a Prognostic and Diagnostic Biomarker in Leukemia
    Kinza Zoraiz, Muhammad Attique, Shanzah Shahbaz, Malik Waqar Ahmed, Mahmood Akhtar Kayani, Ishrat Mahjabeen · 2021 · Future Oncology
  21. Protein Acetylation as an Integral Part of Metabolism in Cancer Development and Progression
    Miroslava Čuperlović‐Culf, Adrian S. Culf · 2014
  22. Sirtuin Activation by Small Molecules
    Hassina Massudi, Lindsay E. Wu, David A. Sinclair · 2016 · Springer eBooks
  23. Roles for Sirtuins in Cardiovascular Biology
    Adam Stein, William Giblin, Angela H. Guo, David B. Lombard · 2018 · Elsevier eBooks
  24. Mitochondrial sirtuins sir - 2.2 and sir - 2.3 regulate lifespan in C. elegans
    Sarah M Chang, Melanie R. McReynolds, Wendy Hanna‐Rose · 2017 · bioRxiv (Cold Spring Harbor Laboratory)
  25. Human SIRT5 variants with reduced stability and activity do not cause neuropathology in mice
    Taolin Yuan, Surinder Kumar, Mary E. Skinner, Ryan Victor-Joseph, Majd Abuaita, Jaap Keijer, Jessica Zhang, Thaddeus J. Kunkel, Yanghan Liu, Elyse M. Petrunak et al. · 2024 · iScience
  26. Acetylation in Cardiac Aging: Molecular Mechanism and Therapeutic Approaches
    Aditi Dattatraya Hase, S. Banerjee · 2025 · Results and problems in cell differentiation
  27. Nobiletin Prevents Cardiac Hypertrophy via SIRT5-Mediated Downregulation of p300
    Yoichi Sunagawa, Masafumi Funamoto, Toshihide Hamabe‐Horiike, Kehima Hieda, Seiichiro Yabuki, Midori Tomino, Yoshimi Ikai, Anna Suzuki, Ogawahara Shintaro, Asami Yabuta et al. · 2025 · Hypertension
  28. Mitochondrial Regulation by Protein Acetylation
    David B. Lombard, Daniel X. Tishkoff, Bernadette M. M. Zwaans · 2012 · Oxidative stress and disease
  29. y-mtPTM: Yeast mitochondrial posttranslational modification database
    Broňa Brejová, Veronika Vozáriková, Ivan Agarský, Hana Derková, Matej Fedor, Dominika Harmanová, Lukáš Kiss, Andrej Korman, Martin Pašen, Filip Brázdovič et al. · 2023 · Genetics
  30. A Pilot Proteomic Analysis of Huntington’s Disease by Functional Capacity
    Andrew J. McGarry, Ruin Moaddel · 2025 · Brain Sciences
  31. Deacetylation by SIRT3 Relieves Inhibition of Mitochondrial Protein Function
    Peter Chhoy, Kristin A. Anderson, Kathleen A. Hershberger, Frank K. Huynh, Angelical S. Martin, Eoin McDonnell, Brett S. Peterson, Laura A. Starzenski, Donald S. Backos, Kristofer S. Fritz et al. · 2016 · Springer eBooks
  32. Nutritional Influences on Epigenetics, Aging and Disease
    Anna Meiliana, Nurrani Mustika Dewi, Andi Wijaya · 2019 · The Indonesian Biomedical Journal
  33. Sirtuins and cellular metabolism in cancers
    Zhen Dong, Hongjuan Cui · 2021 · Elsevier eBooks
  34. NAD+: a crucial regulator of sirtuin activity in aging
    Nady Braidy, Maria D. Villalva · 2021 · Elsevier eBooks
  35. Dictyostelium discoideum: A Model System to Study Autophagy Mediated Life Extension
    Punita Jain, Priyanka Sharma, Anju Shrivastava, Shweta Saran · 2016 · Springer eBooks
  36. Metabolic Pathways of Eukaryotes and Connection to Cell Mechanics
    Claudia Tanja Mierke · 2020 · Biological and medical physics, biomedical engineering
  37. Genetic Interactions of Mitochondrial Sirtuins in Brain Tumorigenesis
    Maria Fazal Ul Haq, Mahmood Akhtar Kayani, Taaha Arshad, Raja Abdul Hadi Anwar, Nadia Saeed, Rabia Shafique, Sumaira Fida Abbasi, Malik Waqar Ahmed, Ishrat Mahjabeen · 2022 · Future Oncology
  38. Sirtuins, healthspan, and longevity in mammals
    Surinder Kumar, William Giblin, David B. Lombard · 2021 · Elsevier eBooks
  39. Proteogenomic Characterization Reveals Therapeutic Opportunities Related to Mitochondrial Function in Melanoma
    Jeovanis Gil, Yonghyo Kim, Viktória Doma, Uğur Çakır, Magdalena Kuras, Lazaro Hiram Betancourt, Indira Plá, Aniel Sánchez, Yutaka Sugihara, Roger Appelqvist et al. · 2022 · bioRxiv (Cold Spring Harbor Laboratory)
  40. Lithocholic acid targets TULP3 to activate sirtuins and AMPK to retard ageing
    Qi Qu, Yan Chen, Yu Wang, Shating Long, Weiche Wang, Heng-Ye Yang, Jianfeng Wu, Mengqi Li, Xiao Tian, Xiaoyan Wei et al. · 2023 · bioRxiv (Cold Spring Harbor Laboratory)
  41. Sirt5 preserves cardiac function in ischemia-reperfusion injury by inhibiting ANT2 lactylation
    Simeng Li, Siman Shen, Yongfang Hong, Kun Ding, Suyun Chen, Jianning Chen, Changsen Wang, Yaofeng Wen, Guixi Mo, Lili Yu et al. · 2024 · bioRxiv (Cold Spring Harbor Laboratory)
  42. Role of SIRT7 in Prostate Cancer Progression: New Insight Into Potential Therapeutic Target
    Jiale Zhang, Chenxin Liu, Wenting Luo, Baoqing Sun · 2025 · Cancer Medicine
  43. Mitochondrial sirtuins sir-2.2 and sir-2.3 regulate lifespan in C. elegans
    Sarah M Chang, Latisha P. Franklin, Sampurna Sattar, Corinna A. Moro, Michael V. DeGennaro, Nicole G LaGanke, Wendy Hanna‐Rose · 2025 · Genetics
  44. NAD+ and Sirt5 restore mitochondrial bioenergetics failure and improve locomotor defects caused by sucla2 mutations
    Joy Richard, Giulia Lizzo, Noélie Rochat, Adrien Jouary, Pedro TM Silva, Alice Parisi, Stefan Christen, Sofia Moco, Michael B. Orger, Philipp Gut · 2026 · JCI Insight
  45. Mechanisms of NAD+ Homeostasis in Aging and Disease
    Melanie R. McReynolds · 2026 · Annual Review of Nutrition
  46. The Sirtuin Network: Linking NAD + Metabolism, Mitochondrial Function, and Metabolic Homoeostasis
    Ewa Szczęsny-Małysiak, Valentina Schiavoni, Rossella Rotondo, Sabrina Donati Zeppa, Arianna Vignini, Eleonora Moriconi, Monia Cecati, Andrea Armani, Stefania Gorini, Roberto Campagna et al. · 2026 · Diabetes/Metabolism Research and Reviews
  47. SIRT Family: Biological Functions and Therapeutic Targets
    Jia‐Yi Wang, Feng‐Li Jiang, FANG-YUAN ZHANG, Dong‐Hui Huang, X G Li, Song Gao, Hua You, Qijun Wu, Huanhuan Chen, T Q Gong · 2026 · MedComm
  48. Characteristics of SP600125 Induced Tetraploid Cells in Comparison With Diploid and Tetraploid Cells of Fish
    Yunpeng Fan, Guangjing Zhang, Kaiyue Zhao, Wen Fu, Shujuan Chen, Jinhui Liu, Wenbin Liu, Liangyue Peng, Li Ren, Shaojun Liu et al. · 2021 · Frontiers in Genetics
  49. Diet restriction-induced mitochondrial signaling and healthy aging
    Meredith Pinkerton, Antoni Barrientos · 2022 · Elsevier eBooks
  50. The role of sirtuins and uncoupling proteins on vascular aging: The Northern Manhattan Study experience
    David Della‐Morte, Francesca Pacifici, Marialaura Simonetto, Chuanhui Dong, Nicole Dueker, Susan Halloran Blanton, Liyong Wang, Tatjana Rundek · 2024 · Free Radical Biology and Medicine
  51. Bioluminescence assay of lysine deacylase sirtuin activity
    Alexandria Van Scoyk, Orlando Antelope, Anca Franzini, Donald E. Ayer, Randall Theodore Peterson, Anthony D. Pomicter, Shawn C. Owen, Michael W. Deininger · 2024 · Cell chemical biology
  52. In vitro investigation of the toxicological mechanisms of Fingolimod (S)-phosphate in HEPG2 cells
    Ayşenur Bilgehan, Zehra Şeker, Mohammed T. Qaoud, Gül Özhan · 2025 · Toxicology Research
  53. The Emerging Role of Sirtuin 1,-3 and -4 in Glucose and Lipid Metabolism and in Diabetes Mellitus
    Emin Murat Akbaş · 2014 · Journal of Molecular and Genetic Medicine
  54. Protein Lysine Acylation: Abundance, Dynamics and Function
    Olga Pougovkina, Vincent C. J. de Boer · 2016 · Springer eBooks
  55. Sirtuins and Aging
    Carles Cantó, Riekelt H. Houtkooper · 2016 · Springer eBooks
  56. Sirtuin Deacetylases: Linking Mycobacterial Infection and Host Metabolism
    Lorissa J. Smulan, Hardy Kornfeld, Amit Singhal · 2020 · Springer eBooks
  57. Epigenetic role of sirtuins in neurodegenerative brain disorders
    Archita Khanna, Anamika Anamika, Surendra Kumar Trigun · 2021 · Elsevier eBooks
  58. Sirtuins and next generation hallmarks of cancer: cellular energetics and tumor promoting inflammation
    Robert Kleszcz, Wanda Baer‐Dubowska · 2021 · Elsevier eBooks
  59. Sirtuins and aging
    Brian J. Morris · 2021 · Elsevier eBooks
  60. The histone demethylase JMJD1C regulates CPS1 expression and promotes the proliferation of paroxysmal nocturnal haemoglobinuria clones through cell metabolic reprogramming
    Yingying Chen, Hui Liu, Chaomeng Wang, Weixin Chen, Liyan Li, Junshu Wu, Guanrou Wang, Guang Sheng Ling, Rong Fu · 2024 · British Journal of Haematology
  61. Sirtuin functions in the brain: From physiological to pathological aspects
    Jiaxiang Shao, Tingting Zhang, Tengyuan Liu, Yizhou Quan, Li Fan, Jie Liu, Xiao Yi Yang, Qian Reuben Xie, Weiliang Xia · 2014 · Journal of Shanghai Jiaotong University (Science)
  62. Sirtuins and Mammalian Aging
    Edward H. Sharman · 2010 · Humana Press eBooks
  63. The Controversy Around Sirtuins and Their Functions in Aging
    Yu Sun, Weiwei Dang · 2016 · Elsevier eBooks
  64. Short-term urea cycle inhibition in rat liver cells induced by polyethylene glycol
    Li Xu, Jiapei Yang, Yumin Liu, Leilei Shi, Chenwei Wu, Hua Jin, Xin Jin, Yue Su, Xinyuan Zhu · 2018 · Biomaterials Science
  65. Sirtuin Inhibitors and Activators
    Minna Rahnasto‐Rilla, Jonna Tyni, Maija K. Lahtela-Kakkonen · 2019 · Topics in medicinal chemistry
  66. The bifunctional roles of sirtuins and their therapeutic potential in cancer
    Yeuan Ting Lee, Yi Jer Tan, Pei Yi Mok, Ayappa V. Subramaniam, Chern Ein Oon · 2021 · Elsevier eBooks
  67. To eat or not to eat – Anti‐ageing effects of energy restriction
    Delminda Neves, Maria João Martins, Emanuel Passos, Inês Tomada · 2015 · Wiley eBooks
  68. Not low hanging but still sweet: Metabolic proteomes in cardiovascular disease
    Emma Monte, Rachel Lopez, Thomas M. Vondriska · 2015 · Journal of Molecular and Cellular Cardiology
  69. Regulation of urea cycle related enzymes in response to freezing in the wood frog, Rana sylvatica
    Stuart Green · 2017
  70. Deglutarylation of GCDH by SIRT5 controls lysine metabolism in mice
    Dhaval P. Bhatt, Christine A. Mills, Kristin A. Anderson, Bárbara J. Henriques, Tânia G. Lucas, Sara Francisco, Juan Liu, Olga Ilkayeva, Alexander E. Adams, Shreyas R. Kulkarni et al. · 2020 · bioRxiv (Cold Spring Harbor Laboratory)
  71. In-depth Analysis of the Sirtuin 5-regulated Mouse Brain Acylome using Library-free Data-Independent Acquisitions
    Joanna Bons, Jacob Rose, Ran Zhang, Jordan B. Burton, Christopher Carrico, Eric M. Verdin, Birgit Schilling · 2022 · bioRxiv (Cold Spring Harbor Laboratory)
  72. Metadichol® a Sirtuin Modulator for Anti-Aging Therapies
    Palayakotai R. Raghavan · 2023 · Research Square
  73. Sirtuins and mitochondrial dysfunction
    Jianli He, Tian-Shi Wang, Yi-Ping Wang · 2021 · Elsevier eBooks
  74. Modulations of SIRTUINs and Management of Brain Disorders
    Sudhir Kumar Shekhar, Sarfraj Ahmad Siddiqui, Girish Rai · 2023 · BENTHAM SCIENCE PUBLISHERS eBooks
  75. Research progress on sirtuin family genes in colorectal cancer
    Tong Liu, Tianhua Wu, Lijun Luo, Wei Li, Minglin Zhang · 2025 · Frontiers in Oncology
  76. Sirtuin 5-mediated post-translational modifications as a promising therapeutic approach to attenuate liver diseases
    Yanqin Yue, Yuxin Ge, Rui Wang, Ge Qin, Bowen Fu, Xuemei Li, Wang Guo, Jinying Liu, Xingyuan Yang, Xiaoli Ma et al. · 2025 · European Journal of Pharmacology
  77. Quantitative acetylomic analysis reveals a key role of acetylation site 1168K in carbamoyl-phosphate synthase 1 (CPS1) following exposure to PFOA and PFO4DA in mouse liver
    Jiamiao Chen, Hua Guo, Nan Sheng, Yitao Pan, Ruming Wang, Jiayin Dai · 2026 · Environmental Pollution
  78. Intra-mitochondrial glycolysis maintains mitochondrial function and underlies the pathogenesis of retinitis pigmentosa
    Linghui Kong, Jiajian Liang, Dan Liu, Shanshan Jia, Hui Gu, Yiwen He, Wenting Luo, Songying Cao, Yizhang Dong, Chao Yang et al. · 2026 · Nature Communications
  79. Cancer, Senescence, and Aging: Translation from Basic Research to Clinics
    Matilde Esther LLeonart, Amancio Carnero, Rosanna Paciucci, Zhao‐Qi Wang, Noam Shomron · 2011 · Journal of Aging Research
  80. Elixir of immortality? Wine, resveratrol and sirtuins: an overview
    Daniel Casey · 2012 · Journal of Wine Research
  81. Mitochondrial Dysfunction in Stem Cell Aging
    Anna Meiliana, Nurrani Mustika Dewi, Andi Wijaya · 2015 · The Indonesian Biomedical Journal
  82. Silent Information Regulator 2 from Trypanosoma cruzi Is a Potential Target to Infection Control
    Luís Gaspar, Terry Smith, Nilmar Silvio Moretti, Sérgio Schenkman, Anabela Cordeiro‐da‐Silva · 2018 · InTech eBooks
  83. Progress on mitochondrial silence information regulator family in epilepsy
    Feng ZHU, Yingchun Xiang, Linghui Zeng · 2021 · Journal of Zhejiang University (Medical Sciences)
  84. Association Between a Sirtuin 5 SNP (rs SIRT5 SNP, rs9382222) and Three Functional Markers of Brain Health
    Enrique Israel Velazquez · 2011 · D-Scholarship@Pitt (University of Pittsburgh)
  85. Biochemistry and Enzymology of Sirtuins
    Yue Jin Yang, Anthony A. Sauve · 2016 · Springer eBooks
  86. Mammalian Sirtuins, Cellular Energy Regulation, and Metabolism, and Carcinogenesis
    Athanassios Vassilopoulos, Rui-Hong Wang, David R. Gius · 2018 · Elsevier eBooks
  87. Aryl Fluorosulfate Based Inhibitors That Covalently Target the SIRT5 Lysine Deacylase**
    Julie E. Bolding, Pablo Martín‐Gago, Nima Rajabi, Luke F. Gamon, Tobias N. Hansen, Christian R. O. Bartling, Kristian Strømgaard, Michael J. Davies, Christian Adam Olsen · 2022 · Angewandte Chemie
  88. Synthesis and Anti-Tumor Effects of Novel Pomalidomide Derivatives Containing Urea Moieties
    Yajie Guo, Xi Wang, Zhenzhen Wang, Longfei Mao, Jiahao Wang, Lizeng Peng, Guiqing Xu · 2022 · Pharmaceuticals
  89. Functional analysis of mitochondrial sirtuins in C. elegans and mammalian cells
    Martina Wirth · 2011 · eDiss (Georg-August-Universität Göttingen)
  90. The Role of Histone Deacetylases in Cytokine Regulation in Human Gestational Tissues
    Sheryl K. Munro · 2013 · ResearchSpace (University of Auckland)
  91. Novel NAD+ metabolomic technologies and their applications to Nicotinamide Riboside interventions
    Samuel A.J. Trammell, Michael E. Wright, Robert C. Piper, Charles Brenner, Diane C. Slusarski, Mary E. Wilson · 2016
  92. Molecular Responses to Whole-Body Dehydration in a Sequenced Vertebrate, Xenopus Laevis: Regulation of Antioxidants and Metabolism by the Sirtuin Protein Deacetylases
    Bryan C. Luu · 2018 · Carleton University's Institutional Repository (MacOdrum Library, Carleton University)
  93. Amino Acids | Ornithine Cycle
    Malcolm Watford · 2020 · Elsevier eBooks
  94. Nobiletin, a Polymethoxyflavonoid, Activates the Desuccinylase Activity of SIRT5 and Prevents the Development of Heart Failure
    Yoichi Sunagawa, Masafumi Funamoto, Toshihide Hamabe‐Horiike, Kehima Hieda, Seiichiro Yabuki, Midori Tomino, Yoshimi Ikai, Anna Suzuki, Ogawahara Shintaro, Asami Yabuta et al. · 2024 · bioRxiv (Cold Spring Harbor Laboratory)
  95. Regulation of pituitary growth hormone synthesis by NAD+ dependent deacetylase Sirt1
    Monteserin Garcia · 2014 · Electronic Theses of LMU Munich (Ludwig-Maximilians-Universität München)
  96. Mitochondrial Respiratory Function Decline in Aging and Life-Span Extension by Caloric Restriction
    Shi‐Bei Wu, Yuting Wu, Chih‐Hao Wang, Wan‐Yu Lee, Yau‐Huei Wei · 2010 · Humana Press eBooks
  97. USING RECOMBINANT HUMAN CARBAMOYL PHOSPHATE SYNTHETASE 1 (CPS1) FOR STUDYING THIS ENZYME'S FUNCTION, REGULATION, PATHOLOGY AND STRUCTURE
    Carmen Díez‐Fernández · 2015
  98. Metabolic and cellular effects of calorie restriction and whey proteins in experimental obesity
    Eveliina Kurki · 2013 · Työväentutkimus Vuosikirja
  99. A Potential Tumor Suppressive Role of SIRT1 in Cancer
    Neha Kabra · 2010 · Digital Commons - University of South Florida (University of South Florida)
  100. Sirtuins as Potential Drug Targets for Metabolic Diseases
    Qiang Tong · 2011 · Wiley eBooks