Biomedical Engineering Graduate with 2 years of experience in cutting-edge research, specializing in 3D bioprinting and organ-on-a-chip technologies. Demonstrates proficiency in MATLAB, Python, and AI complemented by strong problem-solving and analytical skills. Passionate about advancing biomedical engineering through innovative solutions and collaborative research, with a proven track record of enhancing research efficiency and securing academic recognition. Offering solid foundation in research principles and keen interest in developing within research environment. Contributes a strong analytical mindset and the ability to quickly learn and apply new research techniques. Ready to use and develop data analysis and literature review skills in a Research Assistant role.
The organ-on-chip (OOC) platform enables faster, better, and less expensive drug development, disease modeling, customized treatment, and insights into human health by providing flexibility and robustness in drug testing. Animal models, on the other hand, have failed to provide effective and efficient drug testing results since different species have distinct characteristics. Here, this study reports a lung-on-chip (LOC) aiming to mimic the basic physiological response in vitro human lungs while breathing. This microfluidic device performed the mechanical movement of 3D cyclic stretching inspired by breathing movements. This device consisted of 2 parts, the fluidic and pneumatic parts. This proposed microfluidic chip had two methods of operating: one was breathing mode and another one was medium exchange mode. The simulation of the lung-on-chip was done in Ansys workbench by using static structural and Computational Fluid Dynamics (CFD). The proposed microfluidic chip has great potential for drug testing and new drug development and has a wide range of applications.
The link to the paper is https://ieeexplore.ieee.org/document/10564084
Date of Birth: 11/13/2000