Innovative preclinical models for pulmonary drug delivery research
Инновационные доклинические модели для исследований доставки лекарственных средств в легкие
2020-02-14
SCID: 54.1/hyea2mn9
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aerosol depositioncascade impactor technologyinhaled drug deliverylung-on-chip technologypulmonary drug delivery
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Abstract (AI)
Introduction: Pulmonary drug delivery is a complex field of research combining physics which drive aerosol transport and deposition and biology which underpins efficacy and toxicity of inhaled drugs. A myriad of preclinical methods, ranging from in-silico to in-vitro, ex–vivo and in-vivo, can be implemented.Areas covered: The present review covers in-silico mathematical and computational fluid dynamics modelization of aerosol deposition, cascade impactor technology to estimated drug delivery and deposition, advanced in-vitro cell culture methods and associated aerosol exposure, lung-on-chip technology, ex–vivo modeling, in-vivo inhaled drug delivery, lung imaging, and longitudinal pharmacokinetic analysis.Expert opinion: No single preclinical model can be advocated; all methods are fundamentally complementary and should be implemented based on benefits and drawbacks to answer specific scientific questions. The overall best scientific strategy depends, among others, on the product under investigations, inhalation device design, disease of interest, clinical patient population, previous knowledge. Preclinical testing is not to be separated from clinical evaluation, as small proof-of-concept clinical studies or conversely large-scale clinical big data may inform preclinical testing. The extend of expertise required for such translational research is unlikely to be found in one single laboratory calling for the setup of multinational large-scale research consortiums.
Key Findings
1
No single preclinical model is universally optimal; model selection should reflect the drug product, inhalation device, disease, patient population, and specific scientific question.
2
Preclinical and clinical evaluation should inform each other through proof-of-concept studies and clinical big-data analyses.
3
Pulmonary drug delivery research requires integrating physics of aerosol transport and deposition with biological assessment of inhaled-drug efficacy and toxicity.
4
The breadth of expertise needed for translational pulmonary drug-delivery research supports multinational, large-scale research consortia.
5
The review covers complementary preclinical approaches, including computational models, cascade impactors, advanced cell cultures, lung-on-chip systems, ex vivo and in vivo models, imaging, and longitudinal pharmacokinetics.
Research Object
Preclinical models and methods for pulmonary drug delivery, including aerosol transport and deposition systems and lung-relevant experimental models
Research Subject
Comparative capabilities, applications, and limitations of in-silico, in-vitro, ex-vivo, and in-vivo approaches for evaluating inhaled-drug delivery, deposition, efficacy, toxicity, imaging, and pharmacokinetics
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2020-02-14
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