A New Productive Approach and Formulative Optimization for Curcumin Nanoliposomal Delivery Systems

Area of Science:

• Pharmaceutical Technology
• Nanotechnology
• Natural Product Chemistry

Background:

• Modern manufacturing increasingly relies on sustainable resource utilization and technological advancements.
• Liposomal curcumin holds promise for cancer therapies and nutraceutical applications due to its therapeutic potential.
• Existing methods for liposome production face challenges in scalability and efficiency.

Purpose of the Study:

• To investigate the use of simil-microfluidic technology for producing liposomal curcumin.
• To optimize the formulation for enhanced curcumin loading and encapsulation.
• To address process-related issues like curcumin aggregation during production.

Main Methods:

• Utilized simil-microfluidic technology based on lipid-ethanol and aqueous phase interdiffusion.
• Performed studies on liposomal production focusing on curcumin loading.
• Investigated and elucidated process issues, specifically curcumin aggregations.
• Optimized formulation parameters to maximize curcumin load.

Main Results:

• Successfully produced massive quantities of nanometric-scale liposomes using simil-microfluidic technology.
• Identified and addressed curcumin aggregation issues during the production process.
• Achieved significant curcumin loads and high encapsulation efficiencies in the nanoliposomes.

Conclusions:

• Simil-microfluidic technology is a viable and efficient method for large-scale nanoliposomal curcumin production.
• Optimized process conditions allow for high curcumin loading and encapsulation, suitable for therapeutic and nutraceutical uses.
• This technology offers a sustainable approach to manufacturing advanced curcumin delivery systems.