Literature DB >> 17127291

Signature of mitochondria of steroidal hormones-dependent normal and cancer cells: potential molecular targets for cancer therapy.

Deodutta Roy1, Quentin Felty, Satya Narayan, Prasanna Jayakar.   

Abstract

The cross-talk between the cell nucleus and mitochondria appears to control hormone-induced signaling involved in the apoptosis, proliferation, and differentiation of both normal and malignant cells. Evaluation of the defects in genetics and physiology of human endocrine diseases, such as cancer, may manifest as a result of mitochondrial physiologic and metabolic compensation of genetic defects. Steroidal agents control biogenesis and maintenance of mitochondria through the crosstalk between nuclear and mitochondrial genomes. The regulation of mitochondrial transcription by steroidal hormones, presumably occurring through pathways similar to those that take place in the nucleus, opens a new way to better understand steroid hormone and vitamin action at the cellular level. In addition to the steroid hormone receptors, estrogen generated mitochondrial oxidants together with an estrogen-driven increase in epithelial cell proliferation have been shown to participate in the initiation and promotion of the neoplastic lesions in estrogen-sensitive tissues. Mitochondria generation of ROS appears to transduce signals to the nucleus for the activation of transcription factors involved in the cell cycle progression of estrogen-dependent cancer cells. Therefore, an in-depth analysis of such redox regulatory mechanisms is pertinent to the development of novel drugs and gene therapy strategies for the treatment of steroid hormone-dependent diseases related to mitochondrial disorders including cancer.

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Year:  2007        PMID: 17127291     DOI: 10.2741/2056

Source DB:  PubMed          Journal:  Front Biosci        ISSN: 1093-4715


  6 in total

1.  Bayesian network and mechanistic hierarchical structure modeling of increased likelihood of developing intractable childhood epilepsy from the combined effect of mtDNA variants, oxidative damage, and copy number.

Authors:  Brenda Luna; Sanjiv Bhatia; Changwon Yoo; Quentin Felty; David I Sandberg; Michael Duchowny; Ziad Khatib; Ian Miller; John Ragheb; Jayakar Prasanna; Deodutta Roy
Journal:  J Mol Neurosci       Date:  2014-07-16       Impact factor: 3.444

2.  Proteomic and Mitochondrial Genomic Analyses of Pediatric Brain Tumors.

Authors:  Brenda Luna; Sanjiv Bhatia; Changwon Yoo; Quentin Felty; David I Sandberg; Michael Duchowny; Ziad Khatib; Ian Miller; John Ragheb; Jayakar Prasanna; Deodutta Roy
Journal:  Mol Neurobiol       Date:  2014-10-25       Impact factor: 5.590

Review 3.  Mitochondrial biogenesis and healthy aging.

Authors:  Guillermo López-Lluch; Pablo M Irusta; Placido Navas; Rafael de Cabo
Journal:  Exp Gerontol       Date:  2008-07-09       Impact factor: 4.032

Review 4.  Nuclear receptors, mitochondria and lipid metabolism.

Authors:  William A Alaynick
Journal:  Mitochondrion       Date:  2008-02-26       Impact factor: 4.160

5.  Vitamin D Receptor Is Necessary for Mitochondrial Function and Cell Health.

Authors:  Chiara Ricca; Alessia Aillon; Loredana Bergandi; Daniela Alotto; Carlotta Castagnoli; Francesca Silvagno
Journal:  Int J Mol Sci       Date:  2018-06-05       Impact factor: 5.923

6.  Mechanisms underlying the protective effect of tannic acid against arsenic trioxide‑induced cardiotoxicity in rats: Potential involvement of mitochondrial apoptosis.

Authors:  Yucong Xue; Mengying Li; Yurun Xue; Weiyue Jin; Xue Han; Jianping Zhang; Xi Chu; Ziliang Li; Li Chu
Journal:  Mol Med Rep       Date:  2020-10-11       Impact factor: 2.952

  6 in total

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