Direct role of nucleotide metabolism in C-MYC-dependent proliferation of melanoma cells

Mannava, Sudha, Grachtchouk, Vladimir, Wheeler, Linda J., Im, Michael, Zhuang, Dazhong, Slavina, Elena G., Mathews, Christopher K., Shewach, Donna S. +1 more·2008·Cell Cycle
DOI 10.4161/cc.6390

Cited by (266)

Items 201–266 of 266

  1. Myc family proteins: Molecular drivers of tumorigenesis and resistance in neuroendocrine tumors
    Hannah M Hylton-McComas, Anna F. Cordes, Konstantinos V. Floros, Anthony C. Faber, Benjamin Jacob Drapkin, Wayne O. Miles · 2025 · Biochimica et Biophysica Acta (BBA) - Reviews on Cancer
  2. Reversible dissociation of mitochondrial Complex V balances anabolic and energy-generating needs in cancer
    Huabo Wang, Jie Lu, Colin Henchy, Steven J. Mullett, Adam C. Richert, Eric S. Goetzman, Ahmet Toksoz, Leonardo Hale, Brandon B. Wang, Nelli Mnatsakanyan et al. · 2026 · iScience
  3. Overexpressed c-Myc Sensitizes Cells to TH1579, a Mitotic Arrest and Oxidative DNA Damage Inducer
    Sofia Henriksson, José Manuel Calderón‐Montaño, Daniel Solvie, Ulrika Warpman Berglund, Thomas Helleday · 2022 · Biomolecules
  4. Molecular Signatures Integral to Natural Reprogramming in the Pigment Epithelium Cells after Retinal Detachment in Pleurodeles waltl
    Yu. V. Markitantova, Alexander Fokin, D. V. Boguslavsky, V. N. Simirskii, А. М. Куликов · 2023 · International Journal of Molecular Sciences
  5. Does Metabolite Deficiency Mark Oncogenic Cell Cycles?
    Ashok R. Venkitaraman · 2011 · Cell
  6. Purine Nucleotide Alterations in Tumoral Cell Lines Maintained with Physiological Levels of Folic Acid
    Claudia Cano-Estrada, Lidia de Benito-Gómez, Paula Escudero-Ferruz, Neus Ontiveros, Daniel Iglesias‐Serret, José Manuel López · 2023 · International Journal of Molecular Sciences
  7. Regulatory role of transcription factor c-Myc in the pathogenesis of psoriasis
    Yue Cao, Xuping Niu, Kaiming Zhang · 2025 · PeerJ
  8. Detection of Nucleotide Disbalance in Cells Undergoing Oncogene-Induced Senescence
    Mikhail A. Nikiforov, Donna S. Shewach · 2016 · Methods in molecular biology
  9. MYC Regulation of Metabolism and Cancer
    Arvin M. Gouw, Annie Lee Hsieh, Zachary E. Stine, Chi Van Dang · 2015 · Springer eBooks
  10. Slowing down the Grand Touring Prototype speed of cancer cells
    Anna Bianchi, Mikhail A. Nikiforov · 2015 · Molecular & Cellular Oncology
  11. Metabolic dysregulation in cancer progression
    Saniya Arfin, Kirti Agrawal, Ashok Kumar, Arun J. Kumar, Brijesh Rathi, Dhruv Kumar · 2022 · Elsevier eBooks
  12. Cytosolic EZH2-IMPDH2 complex regulates melanoma progression and metastasis via GTP regulation
    Gamze Kuser Abali, Fumihito Noguchi, Pacman Szeto, Youfang Zhang, Cheng Huang, Christopher K. Barlow, Giovanna Pomilio, Christopher Chew, Samar Masoumi Moghaddam, Peinan Zhao et al. · 2021 · bioRxiv (Cold Spring Harbor Laboratory)
  13. Cancer Metabolism
    Natalya N. Pavlova, Craig B. Thompson · 2016 · Wiley eBooks
  14. Dynamic control of nucleotide metabolism in physiology and disease
    Dohun Kim, Gerta Hoxhaj · 2026 · Nature Cell Biology
  15. SURVEY AND SUMMARY Regulation of mammalian nucleotide metabolism and biosynthesis
    Andrew N. Lane · 2015
  16. Targeting Myc-driven tumours - BETing on ATR
    Somsundar Veppil Muralidharan · 2016
  17. dTMP imbalance through thymidylate 5′-phosphohydrolase activity induces apoptosis in triple-negative breast cancers
    Dae-Ho Kim, Jin-Sook Kim, Chang-Soo Mok, En-Hyung Chang, Jiwon Choi, Junsub Lim, Chul‐Ho Kim, Ah-Reum Park, Yu-Jeong Bae, Bong-Seong Koo et al. · 2022 · Scientific Reports
  18. Regulation of pentose phosphate pathway in bladder cancer
    Mohammad Kaleem Ahmad, Anveshika Manoj · 2024 · Elsevier eBooks
  19. Pathogenesis of Malignant Melanoma
    Keith Sean Hoek · 2010 · Springer eBooks
  20. Impedimetric immunosensors for detection of biomarkers
    Münteha Nur Sonuç Karaboğa, Mustafa Kemal Sezgintürk · 2021 · Elsevier eBooks
  21. Nucleotide imbalance driven by dTMP hydrolysis by cytosolic thymidylate 5'-phosphohydrolase induces apoptosis in metabolically vulnerable TNBC Cells
    Dae-Ho Kim, Jinsook Kim, Chang-Soo Mok, En-Hyung Chang, Jiwon Choi, Jun-Sup Lim, Chul‐Ho Kim, Ah-Reum Park, Yu-Jeong Bae, Bong-Seong Koo et al. · 2022 · Research Square
  22. IRE-1 Dependent Expression of Phosphoribosyl Pyrophosphate Synthetase Genes in U87 Glioma Cells: Effect of Glucose or Glutamine Deprivation
    Dmytro O. Minchenko, I. A. Garmash · 2013 · International Journal of Genomic Medicine
  23. Myc-induced Lymphomagenesis In vivo assessment of downstream pathways
    Sara Rimpi · 2010
  24. Interplay Between Metabolism and Oncogenic Process: Role of microRNAs
    B. R. Ambedkar · 2015
  25. O papel da autofagia no estresse oncogênico promovido por HRASG12V em queratinócitos humanos imortalizados por E6E7
    Eduardo Cararo Lopes · 2017
  26. The Effects Of Bone Marrow Adipocytes On Metabolic Regulation In Metastatic Prostate Cancer
    Jonathan D. Diedrich · 2017 · Human Biology
  27. Cell Metabolism in Cancer: An Energetic Switch
    Inês Pimenta de Castro · 2019 · Learning materials in biosciences
  28. Role of Autophagy in Cancer Cell Metabolism
    Diego A. Pedroza, Vaishali Chandel, Dhruv Kumar, Prakash Doddapattar, Mallanagoud S. Biradar, Rajkumar Lakshmanaswamy, Shrikanth S. Gadad, Ramesh Choudhari · 2020 · Springer eBooks
  29. The cytosolic role of EZH2-IMPDH2 complex in melanoma progression and metastasis via GTP regulation
    Gamze Kuser Abali, Fumihito Noguchi, Pacman Szeto, Youfang Zhang, Cheng Huang, Christopher K. Barlow, Giovanna Pomilio, Christopher Chew, Samar Masoumi Moghaddam, Peinan Zhao et al. · 2021 · Research Square
  30. Cancer Metabolism
    Natalya N. Pavlova, Aparna Dodla Rao, Ralph J. DeBerardinis, Craig B. Thompson · 2022 · Wiley eBooks
  31. Regulatory mechanism and expression level of PRPS2 in lung cancer
    Ying Meng, Hua Zhang, Mingling Xu, Zhenzhen Chen, Lei Wei · 2024 · Thoracic Cancer
  32. Metabolic Reprogramming of Clear Cell Renal Cell Carcinoma and Its Clinical Significance
    文昊 周 · 2024 · Advances in Clinical Medicine
  33. Impaired DNA damage response and inflammatory signalling underpins hematopoietic stem cell defects in Gata2 haploinsufficiency
    Ali Abdelfattah, Ahmad Habib, Leigh-anne Thomas, Juan Bautista Menendez-Gonzalez, Alhomidi Almotiri, Hind Alqahtani, Hannah Lawson, Sarab Taha, Millie Steadman, Radhika Athalye et al. · 2024 · bioRxiv (Cold Spring Harbor Laboratory)
  34. Metabolomics: metabolic signatures in cancer biomarkers
    Chandramani Pathak, Foram U. Vaidya, Aafreen Ansari · 2025 · Elsevier eBooks
  35. Inosine Monophosphate Dehydrogenase: The Molecular Target of Mycophenolate
    Sara Bremer · 2009 · NORA - Norwegian Open Research Archives
  36. Nanoparticle Delivery of siRNA for Cancer Therapy
    Yunching Chen · 2019 · Carolina Digital Repository (University of North Carolina at Chapel Hill)
  37. Additional file 13 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Qiang Tang · 2024 · Figshare
  38. Additional file 3 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  39. Additional file 10 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  40. Additional file 16 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  41. Additional file 9 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  42. Additional file 4 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  43. Additional file 1 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  44. Additional file 18 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  45. Additional file 17 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  46. Additional file 8 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  47. Additional file 14 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  48. Additional file 11 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  49. Additional file 5 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  50. Additional file 15 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  51. Additional file 2 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  52. Additional file 6 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  53. Additional file 12 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  54. Additional file 7 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  55. Additional file 19 of Spatial transcriptome and single-cell reveal the role of nucleotide metabolism in colorectal cancer progression and tumor microenvironment
    Liu, Junzhi, Li, Huimin, Wang, Lantian, Shurui Wang, Tang, Qiang · 2024 · Figshare
  56. The role of autophagy in the face of the oncogenic stress triggered by HRASG12V in human keratinocytes immortalized by E6E7
    Eduardo Lopes-Cararo · 2017 · LA Referencia (Red Federada de Repositorios Institucionales de Publicaciones Científicas)
  57. Profiling the pancreatic cancer secretome with metabolic glycoengineering
    Kris Dammen‐Brower, Stanley E. Zhu, Christian Agatemor, Safiya Aafreen, Vrinda Dharharma, Christopher T. Saeui, Hui Li, Jian Song, Matthew J. Buettner, Keith R. Kwagala et al. · 2026 · Journal of Biological Chemistry
  58. Marek's disease virus hijacks host nucleotide metabolism via UL23-mediated c-Myc activation
    Qingsen Wang, Hongxia Shao, Kun Qian, Jianqiang Ye, Aijian Qin · 2026 · Veterinary Microbiology
  59. Metabolic fueling of hematopoietic stem cell differentiation to the erythroid lineage
    Leal Oburoglu · 2014 · theses.fr (ABES)
  60. Biochemical characterization of mTORC1 regulation by glutamine metabolism
    Clément Bodineau · 2020 · theses.fr (ABES)
  61. Enzymes de la voie de biosynthèse de novo des nucléotides puriques chez les bactéries : caractérisation et rôle physiologique
    Nour Ayoub · 2024
  62. Enzyme Assemblies in Nucleotide Metabolism: Structure, Regulation, and Disease Implications
    Jack P. Boylan, Timothy D. Iles, Alexis Nguyen, Anthony M. Pedley · 2026 · Advances in experimental medicine and biology
  63. Cytosolic EZH2-IMPDH2 complexes regulate melanoma progression and metastasis via GTP
    Gamze Kuser Abali, Fumihito Noguchi, Peinan Zhao, Pacman Szeto, Youfang Zhang, Cheng Huang, Christopher K. Barlow, Giovanna Pomilio, Marion Boudes, Christopher Chew et al. · 2026 · Molecular Cell
  64. The Same, but Different: Shared Hallmarks and Divergent Drivers in Adult, Pediatric and Canine Glioma
    R. Timothy Bentley, Sagar M. Utturkar, Harish Kothandaraman, Deepika Dhawan, Daomin Liu, Matthew Beyers, Min Zhang, Deborah W. Knapp, Nadia A. Lanman · 2026 · Current Oncology
  65. The role of linker histone H1.2 in tumor progression, resistance, and clinical translation
    Jiayang Zhou, Jiajian Shi, Ling Zheng, Kun Huang, Yangkai Li · 2026 · Epigenomics
  66. BindingDB Entry 5673: Probing the active site of the deoxynucleotide N-hydrolase Rcl encoded by the rat gene c6orf108.
    BindingDB · 2012 · UC San Diego