Nanovectorization of Prostate Cancer Treatment Strategies: A New Approach to Improved Outcomes
Abstract
:1. Introduction
1.1. Prostate Cancer and CRPC Emergence
1.2. Classical Androgen Receptor Pathway in CRPC Progression
1.3. Non-Androgen Receptor Pathways in CRPC Progression
Treatment | Strenghts | Limitations | Ref |
---|---|---|---|
SURGERY | Effective for localized tumours, Combine with pre/postoperative chemo/radiotherapies | Ineffective for metastatic PC Recurrence rate is high | [18] |
RADIATION THERAPY | Effective with organ specific tumor. Prevents post-operative reoccurrence | Synonymous with high rate of collateral lethality | [19] |
(HORMONAL THERAPY)ADT | Effective for advanced cancers | High rate of recurrence and emergence of CRPC | [20] |
CHEMOTHERAPY | Effective in combination with ADT | Synonymous with with high rate of collateral lethality | [21] |
GENOTHERAPY | Inhibits specific genes that drive Prostate Cancer. More effective in combination with chemotherapy | Ineffective as a monotherapy | [22] |
1.4. Current Prostate Cancer Treatment Strategies and Their Limiting Factors
1.5. Nanoparticles in Prostate Cancer Therapies: The Awaiting Possibilities
1.6. Classification of Therapeutic Nanoparticles in Prostate Cancer
2. EPR Effect and Active Targeting in CRPC Therapy
3. Some Nanoparticles and Their Clinical Adaptations to CRPC Treatment
3.1. Liposomal Nanoparticles
3.1.1. Liposomal Nanoparticle in Therapeutic Gene Delivery
3.1.2. Liposomal Drug Loading and Release
3.2. Micellar Nanoparticles
3.2.1. Polymeric Micelles in Targeted Delivery
3.2.2. Polymeric Micelle Drug Release
3.2.3. Micelles in Chemogene Co-Delivery for CRPC Therapy
3.3. Dendrimer Nanoparticles
3.3.1. Mechanism of Action of Dendrimers
3.3.2. Clinical Significance of Dendrimer
4. Immunologic Response and Nanovectorization-Based Drug Delivery
5. Nanotheranostic Approach for CRPC Therapy
6. Studies on Nanovectorization of Chemical Drugs for CRPC Treatment
7. Studies on Nanovectorization of Therapeutic Oligonucleotides for CRPC Treatment
8. Conclusions
Author Contributions
Funding
Conflicts of Interest
References
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Stress Response Pathways | Signals Transduction Targets | Cellular Proliferative Targets | Tumor Microenvironment | |
---|---|---|---|---|
Targets | Clusterin, HSP90, Bcl-2, HSP27 | PI3K, Akt, mTOR, eIF4E, IGF-IR | Microtubules, PARP1, SERCA Pump | Neurotransmitters, somatostatin, endoglins, VEGF/FGFR, α-integrin |
Approved therapy | - | - | Docetaxel, cabaxitacel | Denosumab, Radium-223 |
Experimental therapy | OGX-011, OGX-427 | BEZ235, BKM120, AZD6363, MK2206, AZD8186, Linsitinib, Lapatinib | Tesetaxel, Patupilone, Ixabepilone, G-202 | Sibrotuzumab, TRC-105, EMD525797, BMTP-11, Dovitinib, Beracizumab, pazopanib, phenelzine, pasireotide |
Generation | Particle | Targeting | Loading | Ref |
---|---|---|---|---|
First | Liposome 1 | EPR | Celecoxib/Genistein | [83] |
Polymeric 2/Nanobuble | EPR | Curcumin | [84] | |
Liposome | EPR | PEG (avoid RES 3 uptake) | [59] | |
Second | Liposome 4 | Apatamer | TFO 5 | [85] |
Liposome 6 | Peptide | Doxorubicine/Vinorebline | [86] | |
Liposome 7 | Antibody 8 | Doxorubicine | [87] | |
Third | DNA nanostructure | Apatamer | Doxorubicine | [88] |
PMB nanoparticle 9 | Small Molecule 10 | Reservatrol/Docetaxel | [89] | |
Liposome | RGD | siRNA 11/Docetaxel | [90] | |
Gold Nanoparticle | Small Molecule 10 | siRNA | [91] |
Drug | Nanoformulation | Phase | Trial Status | Clinicaltrial.Gov Identifier |
---|---|---|---|---|
Curcumin | Nanomicellar gel | Second phase | ongoing | NCT02724618 |
Paclitaxel Lapatinib | Albumin NP | First | Completed | NCT00313599 |
siRNA for inhibition of M2 subunit of Ribonucleotide reductase (R2) | Cyclodexrin containing polymer stabilized by PEG | First | Terminated in 2013 | NCT00689065 |
2-Hydroxyl Flutamide (2-HOF) | Calcium sulphate gel | second | completed | NCT02341404 |
M-VM3 (TLR5-receptor and its agonist protein 502s) | Adenoviral | First | Ongoing | NCT02654938 |
IL-12 | Adenoviral | First | completed | NCT00406939 |
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Omabe, K.; Paris, C.; Lannes, F.; Taïeb, D.; Rocchi, P. Nanovectorization of Prostate Cancer Treatment Strategies: A New Approach to Improved Outcomes. Pharmaceutics 2021, 13, 591. https://doi.org/10.3390/pharmaceutics13050591
Omabe K, Paris C, Lannes F, Taïeb D, Rocchi P. Nanovectorization of Prostate Cancer Treatment Strategies: A New Approach to Improved Outcomes. Pharmaceutics. 2021; 13(5):591. https://doi.org/10.3390/pharmaceutics13050591
Chicago/Turabian StyleOmabe, Kenneth, Clément Paris, François Lannes, David Taïeb, and Palma Rocchi. 2021. "Nanovectorization of Prostate Cancer Treatment Strategies: A New Approach to Improved Outcomes" Pharmaceutics 13, no. 5: 591. https://doi.org/10.3390/pharmaceutics13050591
APA StyleOmabe, K., Paris, C., Lannes, F., Taïeb, D., & Rocchi, P. (2021). Nanovectorization of Prostate Cancer Treatment Strategies: A New Approach to Improved Outcomes. Pharmaceutics, 13(5), 591. https://doi.org/10.3390/pharmaceutics13050591