Novel Dermal Delivery Cargos of Clobetasol Propionate: An Update
Abstract
:1. Introduction
2. Physiochemical Properties and Metabolism of Clobetasol Propionate
3. Mechanism of Action of Clobetasol Propionate
4. Novel Formulations Reported for Clobetasol Propionate
4.1. Nanoemulsions
4.2. Chitin Nanogel
4.3. Solid Lipid Nanoparticles
4.4. Nanostructured Lipid Carriers
4.5. Nanocapsules
4.6. Nanoparticles
4.7. Lecithin/Chitosan Nanoparticles
4.8. Miscellaneous Cargos
4.9. Other Novel Formulations Reported
4.9.1. Poly (d, l-lactic-co-glycolic Acid) Microspheres
4.9.2. Microemulsions
4.9.3. Microsponges
5. Cell Line Studies of Novel Clobetasol Propionate Formulations
6. In Vivo Studies of Novel Clobetasol Propionate Formulations
7. Stability Concerns of Clobetasol Propionate
8. Safety, Tolerability, and Toxicity Concerns of Clobetasol Propionate
9. Conclusions and Future Prospectus
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Acknowledgments
Conflicts of Interest
Abbreviations
COX | cyclooxygenase |
CP | clobetasol propionate |
DUSP | dual-specificity protein phosphate |
DUSP-1 | dual-specificity protein phosphatase 1 |
GR | glucocorticoid receptors |
GREs | glucocorticoid-responsive elements |
Hsp90 | heat-shock protein 90 |
ICH | International Conference on Harmonization |
IL-1 | interleukin 1 |
IκBa | inhibitory nuclear factor-κBa |
LCNC | loaded lipid core nanocapsule |
LOX | lipoxygenase |
mRNA | messenger RNA |
MTT | 3-(4,5-Dimethylthiazol-2-yl)-2,5-Diphenyltetrazolium bromide |
NF-κb | nuclear factor kappa-light-chain-enhancer |
NLCs | nanostructured lipid carriers |
NTPDase | nucleoside triphosphate phosphohydrolase |
PdI | polydispersity index |
PEPCK | phosphoenolpyruvate carboxykinase |
PLA | poly(DL-lactide) |
PLGA | poly(lactic-co-glycolic acid) |
SLNs | solid lipid nanoparticles |
TAT | tyrosine aminotransferase |
US-FDA | United States-Food and Drug Administration |
UV-Vis | ultraviolet-visible |
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Carrier Systems | Fabrication Methods | Evaluation | References |
---|---|---|---|
Nanoemulsions | Aqueous phase titration method | In vivo anticontact dermatitis, anti-inflammatory, and irritation studies using Wistar rats | [21] |
Rich algal oil nanoemulsion gel | Aqueous phase titration method | In vivo skin irritation, anti-inflammatory studies, and Nucleoside triphosphate phosphohydrolase activity of lymphocytes | [22] |
Nanoemulsion-loaded gels | Spontaneous emulsification method | Codelivery of CP and calcipotriol for the management of psoriasis with dermatokinetics and skin distribution | [23] |
Lipid-core nanocapsules, nanoemulsions | Interfacial deposition of the polymers, spontaneous emulsification | In vivo efficacy against contact dermatitis and Nucleoside triphosphate phosphohydrolase activity of lymphocytes using female Wistar rats | [24] |
Chitin nanogels | Controlled regeneration method | In vitro and in vivo antipsoriatic studies with oxidative stress markers | [7] |
SLNs | Emulsification–homogenization method | Ex vivo diffusion study | [25] |
Nanostructured lipid carriers | Microemulsion technique | CP accumulation in stratum corneum in porcine ear skin | [26] |
Nanostructured lipid carrier gels | The hot high-pressure homogenization method | In vitro release; in vivo anti-inflammatory assay using Wistar albino rats | [27] |
Nanostructured lipid carriers | Microemulsion technique | Epidermal targeting and permeation studies using porcine ear skin | [28] |
Nanocapsules | Interfacial deposition of the polymers | In vitro drug release and photo stability | [29] |
Nanocapsules | Interfacial deposition | In vivo induction and treatment of contact dermatitis in female Wistar rats and oxidative stress assessment in liver tissue | [30] |
Nanospheres, nanocapsules, lipid-core nanocapsules | Nanoprecipitation-solvent evaporation technique | Optimization between interfollicular permeation and follicular uptake balance to minimize adverse effects | [31] |
Lipid nanoparticles | Microemulsion technique | Co-delivery with tacrolimus | [32] |
Hybrid nanoparticles | Monowave assisted ring-opening polymerization | In vivo antipsoriatic activity | [33] |
Lecithin/chitosan nanoparticles | Ionic interaction | Evaluation of skin barrier function and damage | [34] |
Chitosan patches | Electrophoretic deposition | For fast drug delivery in oral mucosa disease | [35] |
Squarticles (nanoemulgels) | Homogenization method | Enhancing the better permeation, increasing skin retention | [36] |
PLGA microspheres | Oil/water emulsion-solvent evaporation method | In vitro drug release studies with sustained release | [37] |
Microemulsion based gels | Homogenization method | Ex vivo skin permeation on male Wistar albino rat skin and in vivo skin irritation studies on Albino rabbits | [16] |
Microemulsion based gels | Homogenization method | In vivo dermatokinetics and pilot clinical studies for vitiligo treatment | [38] |
Microemulsions | Homogenization method | Drug distribution through microscopy, ex vivo skin permeation studies | [39] |
Eudragit microsponge gels | Quasi emulsion solvent diffusion method | Therapeutic efficacy of the drug for psoriasis | [4] |
Lipid nanocarriers | Microemulsion technique | In vitro cutaneous permeation, in vivo hair follicle targeting with physical stimuli (IR, US, mechanical message) | [8] |
Lipid-core nanocapsule gels | Interfacial deposition of preformed polymers | In vitro skin permeation and penetration in abdominal porcine skin | [40] |
Cyclodextrin based nanosponge hydrogel | Melt method | In vivo antipsoriatic activity | [14] |
Carrier Systems | Cell Lines | Assays | References |
---|---|---|---|
Nanoemulsion-loaded gels | HaCaT | Ex vivo efficacy study (MTT assay) | [23] |
Chitin nanogels | L929, HaCaT, and THP1 | Cyto-compatibility, Cell uptake study, COX and LOX activity | [7] |
Mucoadhesive patches | Immortalized oral keratinocytes FNB6-TERT | Cytotoxicity studies | [56] |
Hybrid nanoparticles | HaCaT | Cellular uptake studies, in vitro cytotoxicity assay, apoptosis assay, and Cell-cycle analysis | [33] |
Nanostructured lipid carriers | HaCaT | Cell viability study | [8] |
Nanosponge hydrogels | THP1 | Cytocompatibility studies | [14] |
Delivery Systems | Animals Used | Activity/Bioassay | Remarks | References |
---|---|---|---|---|
Lipid-core nanocapsules, nanoemulsions | Female Wistar rats | 5% Nickle sulfate-induced dermatitis, NTPDase activity of lymphocytes | Enhanced NTPDase activity using lipid core nanocapsule-loaded hydrogels | [24] |
Nanocapsule loaded hydrogels | Female Wistar rats | Nickle sulfate-induced dermatitis, biochemical assays of liver | Enhanced protective action against the oxidative damage using CP-loaded nanocapsules | [30] |
Nanoemulsions | Wistar rats | Anti-inflammatory activity (Hind paw edema method) | Maximum inhibition of edema observed with prepared formulation | [21] |
Nanoemulsions | Wistar rats | Skin irritation test | The formulation showed low irritation potential | [21] |
Microemulsion based gels | Albino rabbits | Skin irritation test | Microemulsion-based gel found to be less irritant than marketed formulation | [16] |
Microemulsion based gels | Albino Wistar rats | Dermatopharmacokinetic study | Enhanced therapeutic activity at the site of action and improvement in bioavailability | [38] |
Nanoemulsions | Wistar rats of either sex | Anti-inflammatory activity (Hind paw edema method) | Hydrogel-thickened nanogel formulation has better anti-inflammatory activity than plain gel | [22] |
Nanoemulsions | Wistar rats of either sex | Skin irritation test | Nanoemulsion showed more irritation potential than placebo formulation but was found safe for human use | [22] |
NLCs | Male Wistar rats | Anti-inflammatory activity (paw edema method) | Decreased inflammation for a longer period was demonstrated by using NLCs | [27] |
Nanoemulsion-loaded gels | Balb C mice | Antipsoriatic activity | Nanoemulsion-loaded gel displayed maximum antipsoriatic activity in comparison to plain gel and marketed formulation | [23] |
Nanoemulsion-loaded gels | Balb C mice | Skin irritation test | Nanoemulsion-loaded gel showed very low irritation potential as compared to plain gel and marketed formulation | [23] |
Nanogels | Balb C mice | Imiquimod induced psoriasis model | Nanogel presented better antipsoriatic activity than marketed formulation | [7] |
Nanogels | Balb C mice | Skin irritation test | Nanogel was not found to induce any noticeable changes on the mice back skin | [7] |
Nanoparticles | Male albino Wistar rats | Anti-inflammatory activity (carrageenan-induced hind paw edema model | Nanoparticles demonstrated significantly higher anti-inflammatory activity when compared to a sodium deoxycholate gel and commercial cream (Dermovate) containing the same drug. | [34] |
Microsponge based gels | Swiss albino mice | Antipsoriatic activity (mouse tail model) | Microsponges displayed a higher efficacy than plain gel | [4] |
Hybrid nanoparticles | Swiss albino mice | Antipsoriatic activity (imiquimod induced psoriasis-like inflammation) | Enhanced antipsoriatic potential | [33] |
Squarticles (nanoemulgels) | Wistar rats | Ultraviolet B exposure; Skin irritation study and pharmacokinetic study | Enhanced antipsoriatic activity compared to marketed formulation, no sign of skin irritation, least penetration of the CP in the blood, and high CP deposition in pilosebaceous glands was observed | [36] |
Nanosponge hydrogels | Swiss mice | Antipsoriatic activity (mouse tail model) | Enhanced antipsoriatic potential compared to plain CP gel | [14] |
Carrier Systems | Storage Conditions | Evaluation | References |
---|---|---|---|
Nanocapsules, nanospheres, and nanoemulsions | Kept in dark at room temperature (25 ± 2 °C) for 9 months | Drug content, pH, encapsulation efficiency, particle size, PdI, and zeta potential | [55] |
Nanocapsules | Stored in dark at room temperature for 3 months | Particle size, PdI, and zeta potential | [29] |
Lecithin/chitosan nanoparticles and their gels | 25 °C and 60% RH for 3 months | Particle size, PdI, and zeta potential for nanoparticles; pH, viscosity, and drug content for nanoparticle-based gels | [6] |
Nanoemulsions | 40 °C ± 2 °C/75% ± 5% RH; 30 °C ± 2 °C/65% RH ± 5% RH | Accelerated stability studies; Shelf life of nanoemulsions | [67] |
Microemulsions and microemulsion based gels | 2–8 °C and 40 ± 2 °C/75 ± 5% RH for three months | Globule size and PdI for microemulsions, appearance for microemulsion-based gel | [16] |
Tea tree oil nanoemulsion | As per ICH guidelines for 3 months | Accelerated stability studies, Phase separation, Ostwald ripening, coalescence, and creaming | [69] |
Nanoemulsion gel | Centrifugation (5000 rpm) for 30 min, heating and cooling cycles, and Freeze-thaw cycles | Physical stability studies | [22] |
Nanocarriers | Room temperature (25 ± 2 °C) for 3 months | Particle size, PdI, pH, and zeta potential | [31] |
Nanostructured lipid gel | 5 ± 1, 25 ± 2, 40 ± 2, 60 ± 2 °C, and 75 ± 5% RH for 6 months | Shelf life of the prepared formulation | [27] |
NLCs | Room temperature (25 ± 2 °C) 4 °C for 7 days | Colloidal stability assessment using Turbiscan Lab apparatus for 90 min | [28] |
Chitin nanogels | 2–8 °C, 25 ± 5 °C and 40 °C with 65% RH for 3 months | Appearance, physical state, odor, color, and particle size | [7] |
Bio-based microemulsions | Centrifugation (13,000 rpm) for 30 min; Also, at 2–8 °C and room temperature (25 ± 2 °C) | Physical stability studies | [39] |
Microsponge gel | 5 ± 2 °C, 25 ± 2 °C and 40 ± 2 °C for 40 days | Appearance, pH, drug content, and in vitro release pattern | [4] |
NLCs | 5, 25 and 40 °C for 30 days | Hydrodynamic diameter, PdI, zeta potential, pH, and entrapment efficiency | [8] |
Squarticles based gel | 4 ± 2, 25 ± 2 and 45 ± 2 °C for 6 months | Entrapment efficiency, PdI, particle size, and drug content at periodical intervals | [36] |
Nanosponges | 25 °C for 3 months | Particle size, zeta potential, PdI, and drug content | [14] |
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Nair, A.B.; Kumar, S.; Dalal, P.; Nagpal, C.; Dalal, S.; Rao, R.; Sreeharsha, N.; Jacob, S. Novel Dermal Delivery Cargos of Clobetasol Propionate: An Update. Pharmaceutics 2022, 14, 383. https://doi.org/10.3390/pharmaceutics14020383
Nair AB, Kumar S, Dalal P, Nagpal C, Dalal S, Rao R, Sreeharsha N, Jacob S. Novel Dermal Delivery Cargos of Clobetasol Propionate: An Update. Pharmaceutics. 2022; 14(2):383. https://doi.org/10.3390/pharmaceutics14020383
Chicago/Turabian StyleNair, Anroop B., Sunil Kumar, Pooja Dalal, Chahat Nagpal, Sweta Dalal, Rekha Rao, Nagaraja Sreeharsha, and Shery Jacob. 2022. "Novel Dermal Delivery Cargos of Clobetasol Propionate: An Update" Pharmaceutics 14, no. 2: 383. https://doi.org/10.3390/pharmaceutics14020383
APA StyleNair, A. B., Kumar, S., Dalal, P., Nagpal, C., Dalal, S., Rao, R., Sreeharsha, N., & Jacob, S. (2022). Novel Dermal Delivery Cargos of Clobetasol Propionate: An Update. Pharmaceutics, 14(2), 383. https://doi.org/10.3390/pharmaceutics14020383