4.7 Article

Formulation-by-Design of Efinaconazole Spanlastic Nanovesicles for Transungual Delivery Using Statistical Risk Management and Multivariate Analytical Techniques

期刊

PHARMACEUTICS
卷 14, 期 7, 页码 -

出版社

MDPI
DOI: 10.3390/pharmaceutics14071419

关键词

efinaconazole; spanlastics; nail delivery; transungual; QbD; Ishikawa fishbone diagram; risk management; multivariate analysis

资金

  1. Promising Researcher track by the Deanship of Scientific Research, Vice-Presidency for Graduate Studies and Scientific Research, King Faisal University, Saudi Arabia [GRANT8]

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With the rapidly evolving regulatory and technical landscapes in pharmaceutical formulation development, a risk-management approach using multivariate analysis is highly essential for designing a product with necessary critical quality attributes. This study optimized efinaconazole spanlastics using the concepts of Formulation-by-Design and explored the application of transungual delivery for the management of onychomycosis. The study employed various techniques such as Ishikawa fishbone diagram, Plackett-Burman experimental design, and Pareto charts to identify the risk factors and optimize the formulation parameters, resulting in efinaconazole spanlastics with improved quality features.
As regulatory and technical landscapes for pharmaceutical formulation development are rapidly evolving, a risk-management approach using multivariate analysis is highly essential for designing a product with requisite critical quality attributes (CQA). Efinaconazole, a newly approved poorly water-soluble antifungal triazole drug has poor permeability. Spanlastics, new-generation surfactant nanovesicles, being fluidic, help improve the permeability of drugs. Therefore, we optimized efinaconazole spanlastics using the concepts of Formulation-by-Design (FbD) and explored the feasibility of transungual delivery for the management of onychomycosis. Using the Ishikawa fishbone diagram, the risk factors that may have an impact on the CQA of efinaconazole spanlastic vesicles were identified. Application of the Plackett-Burman experimental design facilitated the screening of eight different formulation and process parameters influencing particle size, transmittance, relative deformability, zeta potential, entrapment efficiency, and dissolution efficiency. With the help of Pareto charts, the three most significant factors were identified, viz., vesicle builder (Span), edge activator (Tween), and mixing time. The levels of these three critical variables were optimized by FbD to reduce the particle size and maximize the transparency, relative deformability, encapsulation efficiency, and dissolution efficiency of efinaconazole spanlastic nanovesicles. Bayesian and Lenth's analysis and mathematical modeling of the experimental data helped to quantify the critical formulation attributes required for getting the formulation with optimum quality features. The optimized efinaconazole-loaded spanlastic vesicles had a particle size of 197 nm, transparency of 91%, relative deformability of 12.5 min, and dissolution efficiency of 81.23%. The spanlastic formulation was incorporated into a gel and explored ex vivo for transungual delivery. This explorative study provides an example of the application of principles of risk management, statistical multivariate analysis, and the FbD approach in developing efinaconazole spanlastic nanovesicles.

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