<transcript><audio_145>problems that you you you can study so for example uh the traction force that is exerted on the cell as a function of time you can study with different uh</transcript><caption><image_146>The image is a graph that shows the optimization of the static incubation period. The x-axis of the graph is labeled with the title "Optimization of the Static Incubation Period" and the y-axis is labeled as "Traction Forces Decreases After Optimum Time". 

There are two lines in the graph, one in red and one in blue. The red line represents the temperature changes in maximum traction, while the blue line represents a decrease in the maximum traction.

The graph also has a legend that explains the meaning of each line. The legend explains that the graph shows that the maximum increase in the number of traction forces decreases after the maximum time increases with increasing volume per cell. The graph also mentions that the increase in volume of traction is higher than the increase of volume, indicating that the temperature has decreased. The image also has the logo of the Indian Institute of Technology, Kharagpur, India, at the bottom.</caption><transcript><audio_147>fluid flow rates so uh you can see that uh like after some time you can uh see that uh the media has to be replaced for the cell to survive so Optimum static</transcript><transcript><audio_148>incubation period static incubation period is the period over which you do not supply uh fluid to the fluid flow to the cellular environment this increases</transcript> problems that you you you can study so for example uh the traction force that is exerted on the cell as a function of time you can study with different uh fluid flow rates so uh you can see that uh like after some time you can uh see that uh the media has to be replaced for the cell to survive so Optimum static incubation period static incubation period is the period over which you do not supply uh fluid to the fluid flow to the cellular environment this increases
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