IN-2026-C1464-MU
Location
India
Internship type
ON-SITE
Reference number
IN-2026-C1464-MU
General discipline
Physics and Physical Sciences
Completed Years of Study
1
Fields of Study
Languages
English Excellent (C1, C2)
Required Knowledge and Experience
-
Other Requirements
Specialization: Fluid Dynamics, Machine Design, Finite Element MethodsStudy Level: Graduate
Duration
8 - 10 Weeks
Within These Dates
01.07.2026 - 31.12.2026
Holidays
NONE
Work Environment
-
Gross pay
9000 INR / month
Working Hours
40.0 per week / 8.0 per day
Type of Accommoditation
IAESTE India LC Manipal
Cost of lodging
-
Cost of living
4500 INR / month
Additional Info
The option of Work from Home is available for this offer. In the case where the intern chooses to work from home, there will be no stipend provided. However, in the case where the intern opts to intern at the employer's address, a stipend will be provided for the period of internship.
Work description
Project Title: CFD analysis on upper respiratory human modelThe increase in pollution levels in recent years has increased the prevalence of pulmonary diseases. The accumulation of pollutant particles in the pulmonary tract is speculated to be one of the major reasons for the increase in chronic cases. This necessitates the study of the mechanism of particle deposition in human airways to develop better drug delivery systems. Aerosolized forms of drugs are commonly used to treat pulmonary diseases. The current study employed computational fluid dynamics (CFD) and discrete element method (DEM) techniques to study airflow patterns and particle deposition phenomena. An idealized 3D CAD model will be developed based on available literature. A discretized finite-volume model shall be tested to ensure an independent solution. A user-defined function (UDF) shall be used to simulate realistic breathing dynamics for the respiration cycle. The aerosol particles of the calculated volume were mixed into the airflow domain. The analysis will be conducted using ANSYS FLUENT CFD solver. This study will look for several regions to investigate high turbulence in the upper human airways, with secondary flow structures exhibiting bifurcations and the glottal region. The study also determine the oral cavity and oropharynx regions with higher turbulence. The distribution/ deposition of aerosol particles into the alveolar sacs will also be investigated
Deadline
13.06.2026