Literature DB >> 30076241

CD38 Inhibits Prostate Cancer Metabolism and Proliferation by Reducing Cellular NAD+ Pools.

Jeffrey P Chmielewski1, Sarah C Bowlby1, Frances B Wheeler1, Lihong Shi1, Guangchao Sui1, Amanda L Davis1, Timothy D Howard2, Ralph B D'Agostino3,4, Lance D Miller1,3, S Joseph Sirintrapun5, Scott D Cramer6, Steven J Kridel7,3.   

Abstract

Tumor cells require increased rates of cell metabolism to generate the macromolecules necessary to sustain proliferation. They rely heavily on NAD+ as a cofactor for multiple metabolic enzymes in anabolic and catabolic reactions. NAD+ also serves as a substrate for PARPs, sirtuins, and cyclic ADP-ribose synthases. Dysregulation of the cyclic ADP-ribose synthase CD38, the main NAD'ase in cells, is reported in multiple cancer types. This study demonstrates a novel connection between CD38, modulation of NAD+, and tumor cell metabolism in prostate cancer. CD38 expression inversely correlates with prostate cancer progression. Expressing CD38 in prostate cancer cells lowered intracellular NAD+, resulting in cell-cycle arrest and expression of p21Cip1 (CDKNA1). In parallel, CD38 diminishes glycolytic and mitochondrial metabolism, activates AMP-activated protein kinase (AMPK), and inhibits fatty acid and lipid synthesis. Pharmacologic inhibition of nicotinamide phosphoribosyltransferase (NAMPT) mimicked the metabolic consequences of CD38 expression, demonstrating similarity between CD38 expression and NAMPT inhibition. Modulation of NAD+ by CD38 also induces significant differential expression of the transcriptome, producing a gene expression signature indicative of a nonproliferative phenotype. Altogether, in the context of prostate cancer, the data establish a novel role for the CD38-NAD+ axis in the regulation of cell metabolism and development.Implications: This research establishes a mechanistic connection between CD38 and metabolic control. It also provides the foundation for the translation of agents that modulate NAD+ levels in cancer cells as therapeutics. Mol Cancer Res; 16(11); 1687-700. ©2018 AACR. ©2018 American Association for Cancer Research.

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Year:  2018        PMID: 30076241      PMCID: PMC6214722          DOI: 10.1158/1541-7786.MCR-17-0526

Source DB:  PubMed          Journal:  Mol Cancer Res        ISSN: 1541-7786            Impact factor:   5.852


  51 in total

1.  Structure and enzymatic functions of human CD38.

Authors:  Hon Cheung Lee
Journal:  Mol Med       Date:  2006 Nov-Dec       Impact factor: 6.354

2.  Regulation of SIRT 1 mediated NAD dependent deacetylation: a novel role for the multifunctional enzyme CD38.

Authors:  Pinar Aksoy; Carlos Escande; Thomas A White; Michael Thompson; Sandra Soares; Juan Claudio Benech; Eduardo N Chini
Journal:  Biochem Biophys Res Commun       Date:  2006-08-22       Impact factor: 3.575

3.  Integrative genomic profiling of human prostate cancer.

Authors:  Barry S Taylor; Nikolaus Schultz; Haley Hieronymus; Anuradha Gopalan; Yonghong Xiao; Brett S Carver; Vivek K Arora; Poorvi Kaushik; Ethan Cerami; Boris Reva; Yevgeniy Antipin; Nicholas Mitsiades; Thomas Landers; Igor Dolgalev; John E Major; Manda Wilson; Nicholas D Socci; Alex E Lash; Adriana Heguy; James A Eastham; Howard I Scher; Victor E Reuter; Peter T Scardino; Chris Sander; Charles L Sawyers; William L Gerald
Journal:  Cancer Cell       Date:  2010-06-24       Impact factor: 31.743

Review 4.  NAD⁺ in aging, metabolism, and neurodegeneration.

Authors:  Eric Verdin
Journal:  Science       Date:  2015-12-04       Impact factor: 47.728

5.  Heterogeneity in primary and metastatic prostate cancer as defined by cell surface CD profile.

Authors:  Alvin Y Liu; Martine P Roudier; Lawrence D True
Journal:  Am J Pathol       Date:  2004-11       Impact factor: 4.307

6.  Human gene encoding CD38 (ADP-ribosyl cyclase/cyclic ADP-ribose hydrolase): organization, nucleotide sequence and alternative splicing.

Authors:  K Nata; T Takamura; T Karasawa; T Kumagai; W Hashioka; A Tohgo; H Yonekura; S Takasawa; S Nakamura; H Okamoto
Journal:  Gene       Date:  1997-02-28       Impact factor: 3.688

Review 7.  Mammalian sirtuins: biological insights and disease relevance.

Authors:  Marcia C Haigis; David A Sinclair
Journal:  Annu Rev Pathol       Date:  2010       Impact factor: 23.472

Review 8.  Nampt: linking NAD biology, metabolism and cancer.

Authors:  Antje Garten; Stefanie Petzold; Antje Körner; Shin-Ichiro Imai; Wieland Kiess
Journal:  Trends Endocrinol Metab       Date:  2008-12-26       Impact factor: 12.015

9.  High expression of a CD38-like molecule in normal prostatic epithelium and its differential loss in benign and malignant disease.

Authors:  G Kramer; G Steiner; D Födinger; E Fiebiger; C Rappersberger; S Binder; J Hofbauer; M Marberger
Journal:  J Urol       Date:  1995-11       Impact factor: 7.450

10.  Genetic and epigenetic regulation of the organic cation transporter 3, SLC22A3.

Authors:  L Chen; C Hong; E C Chen; S W Yee; L Xu; E U Almof; C Wen; K Fujii; S J Johns; D Stryke; T E Ferrin; J Simko; X Chen; J F Costello; K M Giacomini
Journal:  Pharmacogenomics J       Date:  2012-01-10       Impact factor: 3.550

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  17 in total

Review 1.  Cellular and Molecular Mechanisms Underlying Prostate Cancer Development: Therapeutic Implications.

Authors:  Ugo Testa; Germana Castelli; Elvira Pelosi
Journal:  Medicines (Basel)       Date:  2019-07-30

Review 2.  Subcellular compartmentalization of NAD+ and its role in cancer: A sereNADe of metabolic melodies.

Authors:  Yi Zhu; Jiaqi Liu; Joun Park; Priyamvada Rai; Rong G Zhai
Journal:  Pharmacol Ther       Date:  2019-04-08       Impact factor: 12.310

Review 3.  The CD38 glycohydrolase and the NAD sink: implications for pathological conditions.

Authors:  Julianna D Zeidler; Kelly A Hogan; Guillermo Agorrody; Thais R Peclat; Sonu Kashyap; Karina S Kanamori; Lilian Sales Gomez; Delaram Z Mazdeh; Gina M Warner; Katie L Thompson; Claudia C S Chini; Eduardo Nunes Chini
Journal:  Am J Physiol Cell Physiol       Date:  2022-02-09       Impact factor: 4.249

Review 4.  Immune checkpoint modulators in cancer immunotherapy: recent advances and emerging concepts.

Authors:  Yuchen Wang; Hao Zhang; Chao Liu; Zeyu Wang; Wantao Wu; Nan Zhang; Longbo Zhang; Jason Hu; Peng Luo; Jian Zhang; Zaoqu Liu; Yun Peng; Zhixiong Liu; Lanhua Tang; Quan Cheng
Journal:  J Hematol Oncol       Date:  2022-08-17       Impact factor: 23.168

Review 5.  NAD+ metabolism: pathophysiologic mechanisms and therapeutic potential.

Authors:  Na Xie; Lu Zhang; Wei Gao; Canhua Huang; Peter Ernst Huber; Xiaobo Zhou; Changlong Li; Guobo Shen; Bingwen Zou
Journal:  Signal Transduct Target Ther       Date:  2020-10-07

6.  Identification of a Metabolism-Related Signature for the Prediction of Survival in Endometrial Cancer Patients.

Authors:  Yuan Fan; Xingchen Li; Li Tian; Jianliu Wang
Journal:  Front Oncol       Date:  2021-03-08       Impact factor: 6.244

7.  Quantitative proteomic analysis of prostate tissue specimens identifies deregulated protein complexes in primary prostate cancer.

Authors:  Bo Zhou; Yiwu Yan; Yang Wang; Sungyong You; Michael R Freeman; Wei Yang
Journal:  Clin Proteomics       Date:  2019-04-13       Impact factor: 3.988

Review 8.  The Good, the Bad and the Unknown of CD38 in the Metabolic Microenvironment and Immune Cell Functionality of Solid Tumors.

Authors:  Jessica M Konen; Jared J Fradette; Don L Gibbons
Journal:  Cells       Date:  2019-12-24       Impact factor: 6.600

Review 9.  Beyond Energy Metabolism: Exploiting the Additional Roles of NAMPT for Cancer Therapy.

Authors:  Christine M Heske
Journal:  Front Oncol       Date:  2020-01-17       Impact factor: 6.244

10.  CD38 in Advanced Prostate Cancers.

Authors:  Christina Guo; Mateus Crespo; Bora Gurel; David Dolling; Jan Rekowski; Adam Sharp; Antonella Petremolo; Semini Sumanasuriya; Daniel N Rodrigues; Ana Ferreira; Rita Pereira; Ines Figueiredo; Niven Mehra; Maryou B K Lambros; Antje Neeb; Veronica Gil; George Seed; Leon Terstappen; Andrea Alimonti; Charles G Drake; Wei Yuan; Johann S de Bono
Journal:  Eur Urol       Date:  2021-03-05       Impact factor: 20.096

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