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Metastatic prostate cancer remains incurable, why? |
Liang Donga,b,Richard C. Zierena,c,Wei Xueb,Theo M. de Reijkec,Kenneth J. Pientaa,*()
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a The Brady Urological Institute, Johns Hopkins School of Medicine, Baltimore, MD, USA b Department of Urology, Renji Hospital, Shanghai Jiao Tong University School of Medicine, Shanghai, China c Department of Urology, Amsterdam UMC, University of Amsterdam, Amsterdam, the Netherlands |
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Abstract Metastatic prostate cancer patients present in two ways—with already disseminated disease at the time of presentation or with disease recurrence after definitive local therapy. Androgen deprivation therapy is given as the most effective initial treatment to patients. However, after the initial response, almost all patients will eventually progress despite the low levels of testosterone. Disease at this stage is termed castration resistant prostate cancer (CRPC). Before 2010, the taxane docetaxel was the first and only life prolonging agent for metastatic CRPC (mCRPC). The last decade has witnessed robust progress in CRPC therapeutics development. Abiraterone, enzalutamide, apalutamide and sipuleucel-T have been evaluated as first- and second-line agents in mCRPC patients, while cabazitaxel was approved as a second-line treatment. Radium-223 dichloride was approved in symptomatic patients with bone metastases and no known visceral metastases pre- and post-docetaxel. However, despite significant advances, mCRPC remains a lethal disease. Both primary and acquired resistance have been observed in CRPC patients treated by these new agents. It could be solely cell intrinsic or it is possible that the clonal heterogeneity in treated tumors may result from the adaptive responses to the selective pressures within the tumor microenvironment. The aim of this review is to list current treatment agents of CRPC and summarize recent findings in therapeutic resistance mechanisms.
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Received: 08 May 2018
Available online: 29 November 2018
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Corresponding Authors:
Kenneth J. Pienta
E-mail: kpienta1@jhmi.edu
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Agent name | Target | FDA approved year | Chemotherapy | Estramustine | Anti-tubulin, lowering LH + FSH through competitive GnRH receptor binding | 1981 | Mitoxantrone | DNA synthesis, DNA repair | 1996 | Docetaxel | Anti-tubulin, AR signaling disruption | 2004 | Cabazitaxel | Anti-tubulin | 2010 | Androgen deprivation therapy | Ketoconazole | CYP 17 inhibition | Non-FDA approveda | Abiraterone | CYP 17 inhibition | 2011 | Leuprorelin | Lowering LH + FSH through desensitization of pituary gland | 1989 | Goserelin | Lowering LH + FSH through desensitization of pituary gland | 1989 | Histrelin | Lowering LH + FSH through desensitization of pituary gland | 1991 | Triptorelin | Lowering LH + FSH through desensitization of pituary gland | 2000 | Buserelin | Lowering LH + FSH through desensitization of pituary gland | Non-USAb | Abarelix | Lowering LH + FSH through competitive GnRH receptor binding | 2003 | Degarelix | Lowering LH + FSH through competitive GnRH receptor binding | 2008 | Cyproterone | Competitive inhibition of AR | Non-USAb | Flutamide | Competitive inhibition of AR | 1989 | Bicalutamide | Competitive inhibition of AR | 1995 | Nilutamide | Competitive inhibition of AR | 1996 | Enzalutamide | Competitive inhibition of AR | 2012 | Apalutamide | Competitive inhibition of AR | 2018 | Bone health agent | Pamidronate | Inhibition of bone resorption | 1991 | Zoledronic acid | Inhibition of bone resorption | 2003 | Denosumab | RANKL-antibody | 2010 | Bone-directed agent | Radium-223 dichloride | Hydroxyapatite osteoblastic bone metastases | 2013 | Immunotherapy | Sipuleucel-T | Prostatic acid phosphatase | 2010 | Pembroluzimab | PD-1 receptor of lymphocytes in MSI-H patients | 2017 |
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Approved pharmacologic therapies in PCa.
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AR driven mechanisms | AR bypass mechanisms | AR independent mechanisms | ● Androgen biosynthesis up-regulation | ● By glucocorticoid receptor | ● Neuroendocrine differentiation | ● AR amplification/overexpression | ● By progesterone receptor | ● Crosstalk with other pathways | ● AR stabilization | | | ● AR mutation | | | ● AR splice variants | | |
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Mechanisms of resistance to new generation hormonal therapies.
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A potential sequence of therapies for mCRPC patients in 2018. In mCRPC, the first-line treatment options include: Abiraterone, enzalutamide, sipuleucel-T or docetaxel. Additional options include: Bone anti-resorptive therapy with denosumab or zolendronic acid, and immunotherapy with pembroluzimab after DNA sequencing for DNA-MMR and MSI. If symptomatic bone metastases without organ involvement are present, radium-223 can be added. Cabazitaxel can be chosen as a second-line chemotherapy. MMR, mismatch repair; MSI, microsatellite instability; mCRPC, metastatic castration-resistant prostate cancer.
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