<transcript><audio_74>based now uh many times you uh may not be satisfied with uh a simple microfic Channel but you can make a complex network of biom mtic microfic devices and you can study the cellular</transcript><caption><image_75>The image is a slide from the Indian Institute of Technology, Kharagpur, India. It is titled "Designing and constructing more complex biomimetic microfluidic devices". The slide has a white background with black text. On the left side of the slide, there is a title that reads "Basic of microfluidsic network design". 

On the right side, there are three images - one is a red square with a grid-like pattern, another is a green square with an irregular pattern, and the third is a black square with the word "PMMA" written on it.

The slide also mentions that the slide is discussing the various types of microfibular devices that can be used in the design and construction of them. The text also mentions the benefits of using PMMA, which is a type of semiconductor material used in a variety of applications.</caption><transcript><audio_76>Behavior the whole uh issue is that like uh earlier we have discussed one example where we are having a targeted drug delivery through uh a complex network of microfuidic channels uh and the and the</transcript><transcript><audio_77>drug is targeted towards cancer cells so what it will do to the cancer cells basically is first it will create a blockage of supply of oxygen to the cancer cells uh or nutrients to the</transcript><transcript><audio_78>cancer cells so it will cause esia to the cancer cells not only that what it will do is it will supply the necessary drug or the necessary chemical to the cancer cells so in order to do so uh</transcript><transcript><audio_79>basically the uh the drug loaded molecule Mo the the drug loaded bids so to say uh I have shown you an example video that how</transcript><transcript><audio_80>these bids are designed to pass through the micr fluidic networks and uh in this way you can create an artificial animal model so instead of making a whole lot</transcript> based now uh many times you uh may not be satisfied with uh a simple microfic Channel but you can make a complex network of biom mtic microfic devices and you can study the cellular Behavior the whole uh issue is that like uh earlier we have discussed one example where we are having a targeted drug delivery through uh a complex network of microfuidic channels uh and the and the drug is targeted towards cancer cells so what it will do to the cancer cells basically is first it will create a blockage of supply of oxygen to the cancer cells uh or nutrients to the cancer cells so it will cause esia to the cancer cells not only that what it will do is it will supply the necessary drug or the necessary chemical to the cancer cells so in order to do so uh basically the uh the drug loaded molecule Mo the the drug loaded bids so to say uh I have shown you an example video that how these bids are designed to pass through the micr fluidic networks and uh in this way you can create an artificial animal model so instead of making a whole lot
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