<transcript><audio_206>how is it different in cancer cells and normal cells so does the cancer cell possess better stress responsive ability within a micro confinement or does it possess a worse stress responsive</transcript><transcript><audio_207>ability within a micro confinement we need to not only get a qualitative answer to this question but also a quantitative answer that means that we know that confinement has its role on the survival ability of the cell how is this role</transcript><transcript><audio_208>different between cancer cells and cells so this is a cartoon by which I want to demonstrate the whole idea so uh uh you know uh</transcript><caption><image_209>The image is a slide from the Indian Institute of Technology, Kharagpur, India, which is a presentation on the elements of stress response. The slide is titled "Elements of Stress Response" and has a title at the top that reads "Aplical Cell Membrane". Below the title, there is an illustration of a cell membrane with a label that explains the different types of cells and their properties.

The cell membrane is shown in the center of the slide, with a green background and a red line connecting it to the right side. The label also mentions that the cell membrane has a focal adhesion point at basal surface, which helps to reduce the presence of blood vessels in the body. The cell membrane also has a label on the left side that says "Focal Adhesion Points at Basal Surface".

There is also a question at the bottom that asks "Open Question: What are the distinctive features of air-adaptive process Aesthetic of cancer cells in microscopic conditions?" This suggests that the image is related to the study of stress responses in the cell membranes.</caption><transcript><audio_210>there are different types of cells so in this particular cartoon we have focused on adhering cells no now when you look into the adhering cells uh you need to carefully</transcript><transcript><audio_211>understand that as human beings we stand on a surface with the help of our legs in a similar way a cell sits on a substrate with the help of its own legs</transcript><transcript><audio_212>which are called as focal addition points now uh focal addition points on the Basel surface are these ones and then what happens when there is</transcript><transcript><audio_213>a stress on the cell by the incipient blood flow then this focal addition points are first disrupted just like if I'm walking and somebody is kicking at my back then first My legs will be</transcript><transcript><audio_214>destabilized and I would be mechanically destabilized by virtue of the destabilization of my feet similarly the focal addition points will be disrupted Now by a unique mechanism this uh</transcript><transcript><audio_215>disturbance this mechanical disturbance will be propagated through the cell in terms of propagation of biological signal and then what will happen the most distant part of the cell membrane which is called as</transcript> how is it different in cancer cells and normal cells so does the cancer cell possess better stress responsive ability within a micro confinement or does it possess a worse stress responsive ability within a micro confinement we need to not only get a qualitative answer to this question but also a quantitative answer that means that we know that confinement has its role on the survival ability of the cell how is this role different between cancer cells and cells so this is a cartoon by which I want to demonstrate the whole idea so uh uh you know uh there are different types of cells so in this particular cartoon we have focused on adhering cells no now when you look into the adhering cells uh you need to carefully understand that as human beings we stand on a surface with the help of our legs in a similar way a cell sits on a substrate with the help of its own legs which are called as focal addition points now uh focal addition points on the Basel surface are these ones and then what happens when there is a stress on the cell by the incipient blood flow then this focal addition points are first disrupted just like if I'm walking and somebody is kicking at my back then first My legs will be destabilized and I would be mechanically destabilized by virtue of the destabilization of my feet similarly the focal addition points will be disrupted Now by a unique mechanism this uh disturbance this mechanical disturbance will be propagated through the cell in terms of propagation of biological signal and then what will happen the most distant part of the cell membrane which is called as
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