<transcript><audio_155>that uh you you can see the Contour of the cell adhering to the substrate the red regions are the regions of high stress concentration and the blue regions are the regions of low stress concentration and intermediate</transcript><transcript><audio_156>colors represent intermediate effects so you can see that uh as a result of this study you can guess get a nice color map</transcript><caption><image_157>The image is a collage of six images that show the traction force evolution during cell deformation. The images are arranged in a grid-like pattern, with each image representing a different stage of the evolution.

The first image on the top left shows a close-up of a person's nose, with the text "Traction Force Evolution during Cell Deformation" above it. The second image shows a closer view of the nose. The third image shows the same person's mouth, with a blue and red color scheme. The fourth image shows an image of the mouth with a red and blue color scheme, representing the different stages of the process. The fifth and sixth images show the same stage, with different colors representing different stages. The seventh and eighth images show a closer look at the person's teeth, with blue and green colors representing the teeth. The ninth and final images show that the person has been affected by a fracture or a fracture, and the final image shows how the fracture has occurred. The image is from the Indian Institute of Technology, Kharagpur, India, as indicated by the logo at the bottom of the image.</caption><transcript><audio_158>cell so with different flu rates you can see that the stress Distribution on the cell is changing and this is this is purely fluid mechanics so uh fluid mechanics as applied to a</transcript> that uh you you can see the Contour of the cell adhering to the substrate the red regions are the regions of high stress concentration and the blue regions are the regions of low stress concentration and intermediate colors represent intermediate effects so you can see that uh as a result of this study you can guess get a nice color map cell so with different flu rates you can see that the stress Distribution on the cell is changing and this is this is purely fluid mechanics so uh fluid mechanics as applied to a
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