<transcript><audio_8>biomicrofluidics we have to keep in mind that there are whole lots of issues of biomicrofluidics and I don't have any intention of touching upon all the issues of biomicrofluidics in this</transcript><transcript><audio_9>particular course rather my objective will be to give you some glimpses of ideas relating to biological applications of microfluidics so in the first part of the lecture we will be discussing about</transcript><transcript><audio_10>biomicrofluidics of uh cells uh and uh in biomicrofluidics of cells and</transcript><caption><image_11>The image is a slide from the Indian Institute of Technology, Kharagpur, India, which is a research paper on microfluidics. The slide is divided into three sections. 

The first section on the left side of the slide has a title that reads "Science of manipulating small volumes of liquid (L) in microfluids". Below the title, there is a description of the research paper, which explains that the paper is about the use of microfluideics in the study.

On the right side, there are three sections that explain the research findings. The first section is titled "Microfluids" and shows a diagram of a microfluida molecule. The diagram shows the structure of the molecule, which appears to be made up of multiple layers of different components. The components are arranged in a grid-like pattern, with each component represented by a different color. The colors used in the diagram are red, green, and blue, and the text is written in black. The background of the image is white, and there is the logo of the institute at the bottom right corner.</caption><transcript><audio_12>DNA uh we will be mainly concerned about the interfacing of microfluidics with uh uh cells or with DNA or in in in general</transcript><transcript><audio_13>with cellular biology or with genomics uh for instance so as we know that microfluidics deals with uh uh miniaturized devices and is mainly concerned with laminer flow uh it</transcript><transcript><audio_14>requires lower reagent volume and reagent quantities one can use it for high throughput screening uh micro fic devices tend to consume less power and one of the very big and important issues</transcript><transcript><audio_15>of concern uh why we intend to study cellular biology using microfluidics is that microfluidics can selectively address cellular link scales uh not only that one can have precise volumetric and thermal control</transcript><transcript><audio_16>of samples and uh you know in human body there is some natural microfluidics biom microfluid like for example in human body you have a hierarchy of blood vessels like you have large arteries uh large veins small</transcript> biomicrofluidics we have to keep in mind that there are whole lots of issues of biomicrofluidics and I don't have any intention of touching upon all the issues of biomicrofluidics in this particular course rather my objective will be to give you some glimpses of ideas relating to biological applications of microfluidics so in the first part of the lecture we will be discussing about biomicrofluidics of uh cells uh and uh in biomicrofluidics of cells and DNA uh we will be mainly concerned about the interfacing of microfluidics with uh uh cells or with DNA or in in in general with cellular biology or with genomics uh for instance so as we know that microfluidics deals with uh uh miniaturized devices and is mainly concerned with laminer flow uh it requires lower reagent volume and reagent quantities one can use it for high throughput screening uh micro fic devices tend to consume less power and one of the very big and important issues of concern uh why we intend to study cellular biology using microfluidics is that microfluidics can selectively address cellular link scales uh not only that one can have precise volumetric and thermal control of samples and uh you know in human body there is some natural microfluidics biom microfluid like for example in human body you have a hierarchy of blood vessels like you have large arteries uh large veins small
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