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COLLOIDS AND SURFACES B-BIOINTERFACES · 2024 · IF 5.4

Dandelion Inspired Microparticles with Highly Efficient Drug Delivery to Deep Lung

Huan Sun,Shen Yan,Chaojie Wu,Jingye Ma,Kangwei Lu,Xi Cheng,Wenqi Yan,Shengyu Zhang,Xiao Dong Chen,Winston Duo Wu

Active pharmaceutical ingredient (API) embedded dry powder for inhalation (AeDPI) shows higher drug loading and delivery dose for directly treating various lung infections. Inspired by the dandelion, we propose a novel kind of AeDPI microparticle structure fabricated by spray freeze drying technology, which would potentially enhance the alveoli deposition efficiency. When inhaling, such microparticles are expected to be easily broken-up into fragments containing API that acts as ‘seed’ and could be delivered to alveoli aided by the low density ‘pappus’ composed of excipient. Herein, itraconazole (ITZ), a first-line drug for treating pulmonary aspergillosis, was selected as model API. TPGS, an amphiphilic surfactant, was used to achieve stable primary ITZ nanocrystal (INc) suspensions for spray freeze drying. A series of microparticles were prepared, and the dandelion-like structure was successfully achieved. The effects of feed liquid compositions and freezing parameters on the microparticle size, morphology, surface energy, crystal properties and in vitro aerosol performance were systematically investigated. The optimal sample (SF (-50) D-INc 7 Leu 3 -2) in one-way experiment showed the highest fine particle fraction of ~ 68.96% and extra fine particle fraction of ~ 36.87%, equivalently ~ 4.60   mg and ~ 2.46   mg could reach the lung and alveoli, respectively, when inhaling 10   mg dry powders. The response surface methodology (RSM) analysis provided the optimized design space for fabricating microparticles with higher deep lung deposition performance. This study demonstrates the advantages of AeDPI microparticle with dandelion-like structure on promoting the delivery efficiency of high-dose drug to the deep lung.

研究领域: 药学 · 生物医学工程 · 材料科学 · 呼吸医学
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