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Paving The Road from Small- to Large-scale Production of Green Nano Pharmaceuticals.
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1  Department of Pharmaceutics and Pharmaceutical Technology, The British University in Egypt (BUE), El-Sherouk City, Cairo, 11837, Egypt
Academic Editor: Luis Cerdán

Abstract:

Introduction

Nanotechnology has successfully invaded medical science, especially in drug delivery field. Despite the huge advances achieved in the field of nanomedicines on laboratory scale, a limited number of nanotechnology-based drugs are available in the global market​. This is because hazardous chemicals are frequently used in conventional nanoparticle synthesis methods. The goal of this study was to investigate novel, easily scalable, environmentally friendly methods to prepare drug-loaded nanoparticles on a pilot-scale without using toxic organic solvents. Additionally, to locally design, develop, and optimize prototype pilot scale equipment for nanoparticle synthesis as a means of creating a bridge between laboratory and industrial scales.

Methods

Carbamazepine-loaded transfersomes (CZTs), a type of lipid-based nanoparticles, were prepared on a small scale using the modified scalable heating method that avoids organic solvents usage and high energy procedures (green synthesis) in a specially designed homemade vessel replicating Mozafari’s containing baffles forming many turbulences leading to formation of nanosized particles​. A three-factor, three-level Box-Behnken design was employed to optimize process and formulation factors. Furthermore, the optimized formulation was synthesized on both a small-scale and pilot-scale via the modified heating method.

Results

The small-scale beaker simulating Mozafari’s was successfully scaled up to a pilot-scale tank of large capacity (13 Liters) compared to the small-scale beaker of capacity 50 milliliters only. Consistent results were observed for the optimized formula on both small and pilot-scale showing a mean size of 323.12±0.3 nm and 341.5±1.4 respectively, a high entrapment efficiency (EE) of 76.12±1.1% and 75.01± 0.5% respectively, and a sustained release profile.

Conclusion

CZTs optimized formulation was successfully fabricated on both small- and pilot-scale using a simple, scalable, green, modified heating method. Box–Behnken surface analysis proved to be an efficient tool to optimize the CZTs formulations. CZTs fabricated on the two scales possessed comparable results.

https://www.youtube.com/watch?v=FWOMPJhLTDQ

Keywords: Transfersomes; Pilot scale; Green synthesis; Heating method
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