<transcript><audio_17>arteries small veins arteriales venol and then micro capillaries the micro capillaries are like microfluidic channels so blood flow through micro capillaries is a natural biomicrofluidics uh taking place in</transcript><video><caption><image_18>The image is a slide from the Indian Institute of Technology, Kharagpur, India. It is titled "Biomicrofluidics" and it is divided into three sections. 

The first section on the left side of the slide has a title that reads "Cells: Animal cells, yeast, bacteria". Below the title, there is an illustration of a cell with a red cross over it. The cell is surrounded by a green background.

On the right side, there are three smaller illustrations of different types of microfluids. The first illustration shows a cell membrane, the second illustration shows an animal cell, and the third illustration shows the cell membrane. The image also has a red arrow pointing to the cell, indicating that the cell is in the process of blooming. The text on the slide explains that the image is related to the study of biomicrofluids and how they interact with each other.</caption><caption><image_19>The image is a presentation slide from the Indian Institute of Technology, Kharagpur, India. It is titled "Cellular Biomicrofluidics". The slide is divided into three sections. 

The first section on the left side of the slide has a diagram of a cell membrane with different types of cells and their properties. The cells are arranged in a grid-like pattern, with each cell having a different color and shape. The colors range from light blue to dark blue, with some areas being yellow and others being red.

On the top left corner, there is an illustration of a microscope with a yellow background. The microscope is shown with a red arrow pointing to the left, indicating that the cells are being analyzed. The text on the slide explains that the image is related to cellular biomicfluids and how they can be used to analyze and analyze data.
- On the top right corner, the slide shows a map of the cell membrane, showing the location of the cells in a chip, chip, and chip. The map also shows the total analysis systems in the cell, including the total number of cells in each cell. The image also includes a legend that explains the different colors and symbols used in the diagram.</caption></video><transcript><audio_20>human bodies so as I mentioned that biomicrofluidic is an agglomeration of biology with microfluidics and there are whole lots of applications that we talk</transcript><transcript><audio_21>about now uh as I mentioned in the first part of my uh lecture today we will be concerning About Cellular biomicrofluidics and uh we will also</transcript><transcript><audio_22>give you some idea of multicellular biomicrofluidics and uh but to begin with like we have to clearly understand that why are we going for cellular microfluidics what are the outstanding</transcript><caption><image_23>The image is a slide from the Indian Institute of Technology, Kharagpur, India. It is titled "Why Cellular Microfluidics?". The slide has a white background with black text. The title of the slide is "Dynamic analysis of cells are crucial to understand the operational modes of biological systems. Microfluids may capture dynamic features over cellular length scales."

Below the title, there is a subtitle that reads "Controlling fluid flow in the microscope is precisely defined geometrics of microfluidic cell culture and analysis starting from a single cell level to issues cultured in fully integrated and automated chips. In disease conditions, different properties of cells like morphology, membrane dynamics are significantly affected. These alterations in cellular properties affect the dynamics of cell systems in physiological environment.

The slide also mentions that microfluids offer the possibility to deliver not only chemical but also mechanical signals, providing an extra degree of control.</caption> arteries small veins arteriales venol and then micro capillaries the micro capillaries are like microfluidic channels so blood flow through micro capillaries is a natural biomicrofluidics uh taking place in human bodies so as I mentioned that biomicrofluidic is an agglomeration of biology with microfluidics and there are whole lots of applications that we talk about now uh as I mentioned in the first part of my uh lecture today we will be concerning About Cellular biomicrofluidics and uh we will also give you some idea of multicellular biomicrofluidics and uh but to begin with like we have to clearly understand that why are we going for cellular microfluidics what are the outstanding
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