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干粉吸入器设计和颗粒技术在增强肺部药物沉积中的作用:挑战与未来策略。

Dry powder inhaler design and particle technology in enhancing Pulmonary drug deposition: challenges and future strategies.

机构信息

Pharmacy Discipline, School of Clinical Sciences, Faculty of Health, Queensland University of Technology, Brisbane, QLD, Australia.

Centre for Immunology and Infection Control (CIIC), Queensland University of Technology, Brisbane, QLD, Australia.

出版信息

Daru. 2024 Dec;32(2):761-779. doi: 10.1007/s40199-024-00520-3. Epub 2024 Jun 11.

Abstract

OBJECTIVES

The efficient delivery of drugs from dry powder inhaler (DPI) formulations is associated with the complex interaction between the device design, drug formulations, and patient's inspiratory forces. Several challenges such as limited emitted dose of drugs from the formulation, low and variable deposition of drugs into the deep lungs, are to be resolved for obtaining the efficiency in drug delivery from DPI formulations. The objective of this study is to review the current challenges of inhaled drug delivery technology and find a way to enhance the efficiency of drug delivery from DPIs.

METHODS/EVIDENCE ACQUISITION: Using appropriate keywords and phrases as search terms, evidence was collected from the published articles following SciFinder, Web of Science, PubMed and Google Scholar databases.

RESULTS

Successful lung drug delivery from DPIs is very challenging due to the complex anatomy of the lungs and requires an integrated strategy for particle technology, formulation design, device design, and patient inhalation force. New DPIs are still being developed with limited performance and future device design employs computer simulation and engineering technology to overcome the ongoing challenges. Many issues of drug formulation challenges and particle technology are concerning factors associated with drug dispersion from the DPIs into deep lungs.

CONCLUSION

This review article addressed the appropriate design of DPI devices and drug formulations aligned with the patient's inhalation maneuver for efficient delivery of drugs from DPI formulations.

摘要

目的

干粉吸入器(DPI)制剂的药物有效传递与设备设计、药物制剂和患者吸气力之间的复杂相互作用有关。为了提高 DPI 制剂的药物传递效率,需要解决一些挑战,如制剂中药物的发射剂量有限、药物在肺部深处的沉积率低且变化大。本研究旨在综述吸入药物传递技术的当前挑战,并寻找提高 DPI 制剂药物传递效率的方法。

方法/证据获取:使用适当的关键字和短语作为搜索词,从 SciFinder、Web of Science、PubMed 和 Google Scholar 数据库中发表的文章中收集证据。

结果

由于肺部的复杂解剖结构,DPI 制剂的肺部药物传递非常具有挑战性,需要综合考虑颗粒技术、制剂设计、设备设计和患者吸气力等因素。新型 DPI 仍在开发中,但性能有限,未来的设备设计采用计算机模拟和工程技术来克服当前的挑战。药物制剂挑战和颗粒技术的许多问题是与 DPI 向肺部深处分散药物相关的关注因素。

结论

本文讨论了 DPI 装置和药物制剂的适当设计,以及与患者吸气动作的一致性,以实现 DPI 制剂的药物有效传递。

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6
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7
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Pharmaceutics. 2023 May 13;15(5):1488. doi: 10.3390/pharmaceutics15051488.
10
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