<transcript><audio_239>or when the H star falls below critical limit that is H by H cell Falls below 70 Micron and the stress is greater than 10 D per CM squ so this is called as confinement effect the confinement and</transcript><transcript><audio_240>the stressful condition combined together can reduce the response time of the cell for adjusting it to its micro environment now the second question that</transcript><transcript><audio_241>we addressed that we tried to uh address uh the confinement effect is more exclusive for cancer cells so uh we have studied several cancer cell lines and normal cell lines and our study has</transcript><caption><image_242>The image is a graph that shows the correlation between cancer cells and cancer cells. The graph is divided into two sections, one on the left side and the other on the right side. 

The left side of the graph shows the results of a study conducted by the Indian Institute of Technology, Kharagpur, India. The results are:

- TPA (TPA) is a type of cancer cell that increases tumorogenic property and confirms cancerous nature to normal cells.

There are two lines in the graph, one in blue and one in red. The blue line shows the growth of the tumor cells, while the red line shows a decrease in the growth. The lines show that the tumor cell has increased significantly over time, indicating that the growth has decreased significantly.
- The graph also shows that TPA has increased the number of tumor cells in the human body, with the highest percentage of tumor cell growth and the lowest percentage of cancer growth in the body. The image also includes a legend that explains the meaning of each line. The text on the image reads "Confinement is Exclusive For Cancer Cells".</caption><transcript><audio_243>revealed that cancer cells are essentially more malleable than normal cells so under a stressful condition the lipid raft Dynamics is more prolific in cancer cells the lipid draft internalization is more prolific in</transcript><transcript><audio_244>cancer cells that makes the cancer cell uh possibly better shape adaptive or shape adjusting or malleable to survive the stress adaptive capability of uh to survive in a stressful condition in a</transcript><transcript><audio_245>microfluidic confinement so the cancer cells adapt themselves better that is how they survive in a metastatic condition and if we can understand the biophysics of this mechanism of cancer cell adaptation in a microfluidic</transcript> or when the H star falls below critical limit that is H by H cell Falls below 70 Micron and the stress is greater than 10 D per CM squ so this is called as confinement effect the confinement and the stressful condition combined together can reduce the response time of the cell for adjusting it to its micro environment now the second question that we addressed that we tried to uh address uh the confinement effect is more exclusive for cancer cells so uh we have studied several cancer cell lines and normal cell lines and our study has revealed that cancer cells are essentially more malleable than normal cells so under a stressful condition the lipid raft Dynamics is more prolific in cancer cells the lipid draft internalization is more prolific in cancer cells that makes the cancer cell uh possibly better shape adaptive or shape adjusting or malleable to survive the stress adaptive capability of uh to survive in a stressful condition in a microfluidic confinement so the cancer cells adapt themselves better that is how they survive in a metastatic condition and if we can understand the biophysics of this mechanism of cancer cell adaptation in a microfluidic
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