Current Project:
Physics-informed AI for low-dimensional modeling of regional aerosol deposition in the human respiratory tract
Multiscale modeling of tuberculosis aerosol deposition and infectious onset prediction
Modeling the infectious onset mechanisms of Nipah virus
Geometric simplification for a quick estimate of regional penetration in the respiratory tract.
Impact of vorticity on inhaled particle transport in the upper airway
Pathogen concentration in mucosal microdroplets formed by viscoelastic fragmentation
Completed Project:
Decoding the mechanophysiology for inhaled onset of smallpox with model-based implications for mpox spread
Mechanics-guided parametric modeling of intranasal spray devices and formulations for targeted drug delivery to the nasopharynx
Reduced-order modeling of solute transport within physiologically realistic solid tumor microenvironment (Master's degree project)
To exhale or not to exhale: Host barriers shaping airborne transmissibility (A review paper)
Alterations in respiratory flow dynamics following surgical modifications, such as the pyriform aperture enlargement (will be submitted soon)
(Senior Design Project)
An automated tank cleaning system involves a pump that fills the tank to a specified water level and then stops automatically. After the water is used, the cleaning system activates and, once cleaning is complete, the pump resumes filling the tank.
Working on this project enhanced my understanding of pump mechanisms, Arduino programming, water sensor functionality, and long nut bolt mechanisms.
During building or structure collapses caused by earthquakes or fires, rescue robots are often essential. Together with some classmates, I designed a rescue robot for this purpose. This robot can navigate uneven terrain, carry sufficient food and oxygen for trapped individuals, and break through small obstacles using its arm. This was my first SolidWorks project, and I learned many valuable skills, such as precise measurement, accurate assembly, and design criteria.
Designed and built a U-type shell and tube heat exchanger. It was a project assigned by the Mechanical Department of BUET. It is designed to decrease approximately 25 degrees of temperature. It is more efficient than a normal shell and tube heat exchanger. This project improved my design criteria knowledge and helped to realize the difference between a designed model and a real model.
It was an introductory project assigned by our department. Ansys was quite new for us then. We were asked to design a rectangular shape containing a hole and do a stress analysis on it. It was a quite simple work to be done. But as it was our first project, we were excited lot to work on this simulation software.
Our main concern is to increase the efficiency of a wind turbine. So, we planned to insert a nozzle shape in front of the turbine blade which will increase the velocity of wind more effectively than before.
We select Chattogram area in Bangladesh as our plot. Normally we can get power from a wind turbine for 4/5 months of a year whereas using nozzle we can get power constantly all over a year which will make a great impact in power generation of our country.