Abstract. Based on CT medical images of ten volunteers, the 3D FE model of the upper airway was recon-structed by using the method of surface rendering. It is comparatively true that the established model reflects the actual anatomical configuration, and the airflow of the whole cavity is simulated numerically and analyzed by the FE method. From the results of the numerical simulation, the airflow distribution in the whole cavity and pharyngeal cavities in the course of respiration can be obtained. The results of the numerical simulation can be used to diagnose the disease related to the anatomical structure and the function of the upper airway and the additional study of the pathogenesis
Patient specific 3D computational model of diseased human nasal cavity was developed for pre and pos...
This quick glance focuses on the analysis of flow behavior in the obstructed human airway by the num...
International audiencePatient-specific simulation of air flows in lungs is now straightforward using...
Efforts to model the human upper respiratory system have undergone many phases. Geometrical proximit...
The advances reported herein form part of a larger project that has as its objective the development...
Computer simulation of air flow and particle transport phenomenon within the human upper respiratory...
The air flow in the human nasal cavity was simulated applying the Finite Element Method. This accomp...
Past studies utilised Computational Fluid Dynamics (CFD) to analyse the airflow and the particle dep...
Methods of Computational Fluid Dynamics (CFD) nowadays play an important role in the production proc...
Theoretical thesis.Bibliography: pages 48-50.1. Introduction -- 2. Methods -- 3. Results -- 4. Discu...
OBJECTIVE: To use computer simulations to describe the role of fluid dynamics in the human upper air...
International audienceRecurrent problem in medical image segmentation and analysis, establishing a g...
The upper-airway complex is involved in a number of life-sustaining functions, such as swallowing, s...
In this thesis. a three dimensional heat transfer model of heated airflow through the upper human re...
Methods of Computational Fluid Dynamics (CFD) nowadays play an important role in the production proc...
Patient specific 3D computational model of diseased human nasal cavity was developed for pre and pos...
This quick glance focuses on the analysis of flow behavior in the obstructed human airway by the num...
International audiencePatient-specific simulation of air flows in lungs is now straightforward using...
Efforts to model the human upper respiratory system have undergone many phases. Geometrical proximit...
The advances reported herein form part of a larger project that has as its objective the development...
Computer simulation of air flow and particle transport phenomenon within the human upper respiratory...
The air flow in the human nasal cavity was simulated applying the Finite Element Method. This accomp...
Past studies utilised Computational Fluid Dynamics (CFD) to analyse the airflow and the particle dep...
Methods of Computational Fluid Dynamics (CFD) nowadays play an important role in the production proc...
Theoretical thesis.Bibliography: pages 48-50.1. Introduction -- 2. Methods -- 3. Results -- 4. Discu...
OBJECTIVE: To use computer simulations to describe the role of fluid dynamics in the human upper air...
International audienceRecurrent problem in medical image segmentation and analysis, establishing a g...
The upper-airway complex is involved in a number of life-sustaining functions, such as swallowing, s...
In this thesis. a three dimensional heat transfer model of heated airflow through the upper human re...
Methods of Computational Fluid Dynamics (CFD) nowadays play an important role in the production proc...
Patient specific 3D computational model of diseased human nasal cavity was developed for pre and pos...
This quick glance focuses on the analysis of flow behavior in the obstructed human airway by the num...
International audiencePatient-specific simulation of air flows in lungs is now straightforward using...