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Regional aerosol deposition in the human airways: The SimInhale benchmark case and a critical assessment of in silico methods
P. Koullapis, SC. Kassinos, J. Muela, C. Perez-Segarra, J. Rigola, O. Lehmkuhl, Y. Cui, M. Sommerfeld, J. Elcner, M. Jicha, I. Saveljic, N. Filipovic, F. Lizal, L. Nicolaou,
Language English Country Netherlands
Document type Journal Article, Review
- MeSH
- Respiratory Tract Absorption MeSH
- Aerosols chemistry MeSH
- Administration, Inhalation MeSH
- Benchmarking methods MeSH
- Models, Biological MeSH
- Chemistry, Pharmaceutical methods MeSH
- Hydrodynamics MeSH
- Laryngeal Masks * MeSH
- Drug Delivery Systems methods MeSH
- Humans MeSH
- Nebulizers and Vaporizers MeSH
- Permeability MeSH
- Lung drug effects MeSH
- Computer Simulation * MeSH
- Powders chemistry MeSH
- Rheology MeSH
- Particle Size MeSH
- Check Tag
- Humans MeSH
- Publication type
- Journal Article MeSH
- Review MeSH
Regional deposition effects are important in the pulmonary delivery of drugs intended for the topical treatment of respiratory ailments. They also play a critical role in the systemic delivery of drugs with limited lung bioavailability. In recent years, significant improvements in the quality of pulmonary imaging have taken place, however the resolution of current imaging modalities remains inadequate for quantifying regional deposition. Computational Fluid-Particle Dynamics (CFPD) can fill this gap by providing detailed information about regional deposition in the extrathoracic and conducting airways. It is therefore not surprising that the last 15years have seen an exponential growth in the application of CFPD methods in this area. Survey of the recent literature however, reveals a wide variability in the range of modelling approaches used and in the assumptions made about important physical processes taking place during aerosol inhalation. The purpose of this work is to provide a concise critical review of the computational approaches used to date, and to present a benchmark case for validation of future studies in the upper airways. In the spirit of providing the wider community with a reference for quality assurance of CFPD studies, in vitro deposition measurements have been conducted in a human-based model of the upper airways, and several groups within MP1404 SimInhale have computed the same case using a variety of simulation and discretization approaches. Here, we report the results of this collaborative effort and provide a critical discussion of the performance of the various simulation methods. The benchmark case, in vitro deposition data and in silico results will be published online and made available to the wider community. Particle image velocimetry measurements of the flow, as well as additional numerical results from the community, will be appended to the online database as they become available in the future.
Barcelona Supercomputing Center Barcelona Spain
Chair of Applied Mechanics Friedrich Alexander University Erlangen Nuremberg Germany
Department of Mechanical and Manufacturing Engineering University of Cyprus Nicosia Cyprus
Department of Mechanical Engineering Imperial College London London UK
Faculty of Engineering University of Kragujevac Kragujevac Serbia
Faculty of Mechanical Engineering Brno University of Technology Brno Czech Republic
Heat and Mass Transfer Technological Centre Universitat Politècnica de Catalunya Terrassa Spain
Institute of Process Engineering Otto von Guericke University Magdeburg Halle Germany
References provided by Crossref.org
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- $a Regional deposition effects are important in the pulmonary delivery of drugs intended for the topical treatment of respiratory ailments. They also play a critical role in the systemic delivery of drugs with limited lung bioavailability. In recent years, significant improvements in the quality of pulmonary imaging have taken place, however the resolution of current imaging modalities remains inadequate for quantifying regional deposition. Computational Fluid-Particle Dynamics (CFPD) can fill this gap by providing detailed information about regional deposition in the extrathoracic and conducting airways. It is therefore not surprising that the last 15years have seen an exponential growth in the application of CFPD methods in this area. Survey of the recent literature however, reveals a wide variability in the range of modelling approaches used and in the assumptions made about important physical processes taking place during aerosol inhalation. The purpose of this work is to provide a concise critical review of the computational approaches used to date, and to present a benchmark case for validation of future studies in the upper airways. In the spirit of providing the wider community with a reference for quality assurance of CFPD studies, in vitro deposition measurements have been conducted in a human-based model of the upper airways, and several groups within MP1404 SimInhale have computed the same case using a variety of simulation and discretization approaches. Here, we report the results of this collaborative effort and provide a critical discussion of the performance of the various simulation methods. The benchmark case, in vitro deposition data and in silico results will be published online and made available to the wider community. Particle image velocimetry measurements of the flow, as well as additional numerical results from the community, will be appended to the online database as they become available in the future.
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