Literature DB >> 30242113

CAMKK2 Promotes Prostate Cancer Independently of AMPK via Increased Lipogenesis.

Lucy Penfold1, Angela Woods1, Phillip Muckett1, Alexander Yu Nikitin2, Tera R Kent2, Shuai Zhang1, Rebecca Graham1, Alice Pollard1, David Carling3,4.   

Abstract

: New targets are required for treating prostate cancer, particularly castrate-resistant disease. Previous studies reported that calcium/calmodulin-dependent protein kinase kinase 2 (CAMKK2) expression is increased in human prostate cancer. Here, we show that Camkk2 deletion or pharmacologic inhibition protects against prostate cancer development in a preclinical mouse model that lacks expression of prostate-specific Pten. In contrast, deletion of AMP-activated protein kinase (Ampk) β1 resulted in earlier onset of adenocarcinoma development. These findings suggest for the first time that Camkk2 and Ampk have opposing effects in prostate cancer progression. Loss of CAMKK2 in vivo or in human prostate cancer cells reduced the expression of two key lipogenic enzymes, acetyl-CoA carboxylase and fatty acid synthase. This reduction was mediated via a posttranscriptional mechanism, potentially involving a decrease in protein translation. Moreover, either deletion of CAMKK2 or activation of AMPK reduced cell growth in human prostate cancer cells by inhibiting de novo lipogenesis. Activation of AMPK in a panel of human prostate cancer cells inhibited cell proliferation, migration, and invasion as well as androgen-receptor signaling. These findings demonstrate that CAMKK2 and AMPK have opposing effects on lipogenesis, providing a potential mechanism for their contrasting effects on prostate cancer progression in vivo. They also suggest that inhibition of CAMKK2 combined with activation of AMPK would offer an efficacious therapeutic strategy in treatment of prostate cancer. SIGNIFICANCE: These findings show that CAMKK2 and its downstream target AMPK have opposing effects on prostate cancer development and raise the possibility of a new combined therapeutic approach that inhibits CAMKK2 and activates AMPK. ©2018 American Association for Cancer Research.

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Year:  2018        PMID: 30242113      PMCID: PMC6295249          DOI: 10.1158/0008-5472.CAN-18-0585

Source DB:  PubMed          Journal:  Cancer Res        ISSN: 0008-5472            Impact factor:   13.312


  50 in total

1.  AMPK regulates NADPH homeostasis to promote tumour cell survival during energy stress.

Authors:  Sang-Min Jeon; Navdeep S Chandel; Nissim Hay
Journal:  Nature       Date:  2012-05-09       Impact factor: 49.962

2.  AMPK is a negative regulator of the Warburg effect and suppresses tumor growth in vivo.

Authors:  Brandon Faubert; Gino Boily; Said Izreig; Takla Griss; Bozena Samborska; Zhifeng Dong; Fanny Dupuy; Christopher Chambers; Benjamin J Fuerth; Benoit Viollet; Orval A Mamer; Daina Avizonis; Ralph J DeBerardinis; Peter M Siegel; Russell G Jones
Journal:  Cell Metab       Date:  2012-12-27       Impact factor: 27.287

3.  The AMPKγ1 subunit plays an essential role in erythrocyte membrane elasticity, and its genetic inactivation induces splenomegaly and anemia.

Authors:  Marc Foretz; Sophie Hébrard; Soizic Guihard; Jocelyne Leclerc; Marcio Do Cruzeiro; Ghislaine Hamard; Florence Niedergang; Muriel Gaudry; Benoit Viollet
Journal:  FASEB J       Date:  2010-09-29       Impact factor: 5.191

Review 4.  Mouse models of prostate carcinogenesis.

Authors:  Cory Abate-Shen; Michael M Shen
Journal:  Trends Genet       Date:  2002-05       Impact factor: 11.639

Review 5.  AMPK signalling in health and disease.

Authors:  David Carling
Journal:  Curr Opin Cell Biol       Date:  2017-02-21       Impact factor: 8.382

6.  AMP-activated protein kinase activators can inhibit the growth of prostate cancer cells by multiple mechanisms.

Authors:  Xiaoqin Xiang; Asish K Saha; Rong Wen; Neil B Ruderman; Zhijun Luo
Journal:  Biochem Biophys Res Commun       Date:  2004-08-13       Impact factor: 3.575

7.  The androgen receptor fuels prostate cancer by regulating central metabolism and biosynthesis.

Authors:  Charles E Massie; Andy Lynch; Antonio Ramos-Montoya; Joan Boren; Rory Stark; Ladan Fazli; Anne Warren; Helen Scott; Basetti Madhu; Naomi Sharma; Helene Bon; Vinny Zecchini; Donna-Michelle Smith; Gina M Denicola; Nik Mathews; Michelle Osborne; James Hadfield; Stewart Macarthur; Boris Adryan; Scott K Lyons; Kevin M Brindle; John Griffiths; Martin E Gleave; Paul S Rennie; David E Neal; Ian G Mills
Journal:  EMBO J       Date:  2011-05-20       Impact factor: 11.598

8.  The fatty acid synthase inhibitor triclosan: repurposing an anti-microbial agent for targeting prostate cancer.

Authors:  Martin C Sadowski; Rebecca H Pouwer; Jennifer H Gunter; Amy A Lubik; Ronald J Quinn; Colleen C Nelson
Journal:  Oncotarget       Date:  2014-10-15

9.  A novel direct activator of AMPK inhibits prostate cancer growth by blocking lipogenesis.

Authors:  Giorgia Zadra; Cornelia Photopoulos; Svitlana Tyekucheva; Pedram Heidari; Qing Ping Weng; Giuseppe Fedele; Hong Liu; Natalia Scaglia; Carmen Priolo; Ewa Sicinska; Umar Mahmood; Sabina Signoretti; Neal Birnberg; Massimo Loda
Journal:  EMBO Mol Med       Date:  2014-02-04       Impact factor: 12.137

10.  Compartmentalized activities of the pyruvate dehydrogenase complex sustain lipogenesis in prostate cancer.

Authors:  Jingjing Chen; Ilaria Guccini; Diletta Di Mitri; Daniela Brina; Ajinkya Revandkar; Manuela Sarti; Emiliano Pasquini; Abdullah Alajati; Sandra Pinton; Marco Losa; Gianluca Civenni; Carlo V Catapano; Jacopo Sgrignani; Andrea Cavalli; Rocco D'Antuono; John M Asara; Andrea Morandi; Paola Chiarugi; Sara Crotti; Marco Agostini; Monica Montopoli; Ionica Masgras; Andrea Rasola; Ramon Garcia-Escudero; Nicolas Delaleu; Andrea Rinaldi; Francesco Bertoni; Johann de Bono; Arkaitz Carracedo; Andrea Alimonti
Journal:  Nat Genet       Date:  2018-01-15       Impact factor: 38.330

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  22 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.  AR-dependent phosphorylation and phospho-proteome targets in prostate cancer.

Authors:  Varadha Balaji Venkadakrishnan; Salma Ben-Salem; Hannelore V Heemers
Journal:  Endocr Relat Cancer       Date:  2020-06       Impact factor: 5.678

3.  Dysregulated lipid metabolism in hepatocellular carcinoma cancer stem cells.

Authors:  Alicia Bort; Belén G Sánchez; Irene de Miguel; Pedro A Mateos-Gómez; Inés Diaz-Laviada
Journal:  Mol Biol Rep       Date:  2020-03-03       Impact factor: 2.316

Review 4.  Regulation and role of CAMKK2 in prostate cancer.

Authors:  Thomas L Pulliam; Pavithr Goli; Dominik Awad; Chenchu Lin; Sandi R Wilkenfeld; Daniel E Frigo
Journal:  Nat Rev Urol       Date:  2022-04-26       Impact factor: 14.432

5.  Systemic Ablation of Camkk2 Impairs Metastatic Colonization and Improves Insulin Sensitivity in TRAMP Mice: Evidence for Cancer Cell-Extrinsic CAMKK2 Functions in Prostate Cancer.

Authors:  Thomas L Pulliam; Dominik Awad; Jenny J Han; Mollianne M Murray; Jeffrey J Ackroyd; Pavithr Goli; Jonathan S Oakhill; John W Scott; Michael M Ittmann; Daniel E Frigo
Journal:  Cells       Date:  2022-06-10       Impact factor: 7.666

6.  CaMKK2 is inactivated by cAMP-PKA signaling and 14-3-3 adaptor proteins.

Authors:  Christopher G Langendorf; Matthew T O'Brien; Kevin R W Ngoei; Luke M McAloon; Urmi Dhagat; Ashfaqul Hoque; Naomi X Y Ling; Toby A Dite; Sandra Galic; Kim Loh; Michael W Parker; Jonathan S Oakhill; Bruce E Kemp; John W Scott
Journal:  J Biol Chem       Date:  2020-09-09       Impact factor: 5.157

7.  The potent AMPK inhibitor BAY-3827 shows strong efficacy in androgen-dependent prostate cancer models.

Authors:  Clara Lemos; Volker K Schulze; Simon J Baumgart; Ekaterina Nevedomskaya; Tobias Heinrich; Julien Lefranc; Benjamin Bader; Clara D Christ; Hans Briem; Lara P Kuhnke; Simon J Holton; Ulf Bömer; Philip Lienau; Franz von Nussbaum; Carl F Nising; Marcus Bauser; Andrea Hägebarth; Dominik Mumberg; Bernard Haendler
Journal:  Cell Oncol (Dordr)       Date:  2021-01-25       Impact factor: 6.730

8.  CAMKK2 regulates mitochondrial function by controlling succinate dehydrogenase expression, post-translational modification, megacomplex assembly, and activity in a cell-type-specific manner.

Authors:  Mohammad Golam Sabbir; Carla G Taylor; Peter Zahradka
Journal:  Cell Commun Signal       Date:  2021-09-25       Impact factor: 5.712

Review 9.  The PI3K-AKT-mTOR Pathway and Prostate Cancer: At the Crossroads of AR, MAPK, and WNT Signaling.

Authors:  Boris Y Shorning; Manisha S Dass; Matthew J Smalley; Helen B Pearson
Journal:  Int J Mol Sci       Date:  2020-06-25       Impact factor: 5.923

Review 10.  Role of Calcium Signaling in Prostate Cancer Progression: Effects on Cancer Hallmarks and Bone Metastatic Mechanisms.

Authors:  Juan A Ardura; Luis Álvarez-Carrión; Irene Gutiérrez-Rojas; Verónica Alonso
Journal:  Cancers (Basel)       Date:  2020-04-25       Impact factor: 6.639

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