<transcript><audio_187>boundary condition to make uh uh the model look more generic so uh then we study the EGF concentration as a function of the picle number if you recall the p number is the ratio of the advection to diffusion</transcript><caption><image_188>The image is a graph that shows the EGF concentration near cell surface. The graph is divided into two sections. The top section shows the graph with a line graph and a bar graph. The x-axis represents the concentration of the cell surface, while the y-axis shows the number of cells in the cell.

The graph shows that the concentration increases with increasing confinement, as indicated by the increase in concentration. The line graph shows a steady increase in the concentration, with the highest concentration at the top and the lowest at the bottom. The bars on the graph represent the number, with different colors representing different levels of concentration. There is also a label on the right side of the graph that reads "Increase is More Pronounced at Low Pecot Number".

At the bottom of the image, there is a logo for the Indian Institute of Technology, Kharagpur, India, which is the logo of the institute of technology.</caption><transcript><audio_189>strength or the diffusion time scale by advection time scale and uh you can see that EGF concentration near the cell surface increases with increasing confinement so uh</transcript><transcript><audio_190>confinement is a very important problem see in microfluidics there are two important issues that we need to address while uh modeling a real biophysical system in a human body one is</transcript><transcript><audio_191>confinement another is flexibility the confinement is something the confinement effect is something which we want to capture through the results that I am going to present here the flexibility is a more critical</transcript> boundary condition to make uh uh the model look more generic so uh then we study the EGF concentration as a function of the picle number if you recall the p number is the ratio of the advection to diffusion strength or the diffusion time scale by advection time scale and uh you can see that EGF concentration near the cell surface increases with increasing confinement so uh confinement is a very important problem see in microfluidics there are two important issues that we need to address while uh modeling a real biophysical system in a human body one is confinement another is flexibility the confinement is something the confinement effect is something which we want to capture through the results that I am going to present here the flexibility is a more critical
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