Literature DB >> 19846549

Identification of anabolic selective androgen receptor modulators with reduced activities in reproductive tissues and sebaceous glands.

Azriel Schmidt1, Shun-Ichi Harada2, Donald B Kimmel2, Chang Bai2, Fang Chen2, Su Jane Rutledge2, Robert L Vogel2, Angela Scafonas2, Michael A Gentile2, Pascale V Nantermet2, Sheila McElwee-Witmer2, Brenda Pennypacker2, Patricia Masarachia2, Soumya P Sahoo3, Yuntae Kim4, Robert S Meissner4, George D Hartman4, Mark E Duggan4, Gideon A Rodan2, Dwight A Towler2, William J Ray2.   

Abstract

Androgen replacement therapy is a promising strategy for the treatment of frailty; however, androgens pose risks for unwanted effects including virilization and hypertrophy of reproductive organs. Selective Androgen Receptor Modulators (SARMs) retain the anabolic properties of androgens in bone and muscle while having reduced effects in other tissues. We describe two structurally similar 4-aza-steroidal androgen receptor (AR) ligands, Cl-4AS-1, a full agonist, and TFM-4AS-1, which is a SARM. TFM-4AS-1 is a potent AR ligand (IC(50), 38 nm) that partially activates an AR-dependent MMTV promoter (55% of maximal response) while antagonizing the N-terminal/C-terminal interaction within AR that is required for full receptor activation. Microarray analyses of MDA-MB-453 cells show that whereas Cl-4AS-1 behaves like 5alpha-dihydrotestosterone (DHT), TFM-4AS-1 acts as a gene-selective agonist, inducing some genes as effectively as DHT and others to a lesser extent or not at all. This gene-selective agonism manifests as tissue-selectivity: in ovariectomized rats, Cl-4AS-1 mimics DHT while TFM-4AS-1 promotes the accrual of bone and muscle mass while having reduced effects on reproductive organs and sebaceous glands. Moreover, TFM-4AS-1 does not promote prostate growth and antagonizes DHT in seminal vesicles. To confirm that the biochemical properties of TFM-4AS-1 confer tissue selectivity, we identified a structurally unrelated compound, FTBU-1, with partial agonist activity coupled with antagonism of the N-terminal/C-terminal interaction and found that it also behaves as a SARM. TFM-4AS-1 and FTBU-1 represent two new classes of SARMs and will allow for comparative studies aimed at understanding the biophysical and physiological basis of tissue-selective effects of nuclear receptor ligands.

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Year:  2009        PMID: 19846549      PMCID: PMC2794752          DOI: 10.1074/jbc.M109.049734

Source DB:  PubMed          Journal:  J Biol Chem        ISSN: 0021-9258            Impact factor:   5.157


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