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Introduction to Microfluidics
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Outline
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What is Microfluidics
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What is Microfluidics
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Micro Arrays
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Micro Arrays
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Advantages/Disadvantes
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Growth of Microarrays
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Growth of Microarrays
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Outline
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Physics of Microfluidics
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Electro-osmosis
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Electro-Osmonic Flow EOF
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Some Non-ideal Considerations
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Laminar Flowis the Norm
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Laminar Flow
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Reynolds Number estimating mixing
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Reynolds Number
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Reynolds Number Effects
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Reynolds Number
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Laminar flow depends upon boundary geometry
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Water in a 50 um channel
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Peciet Number diffusion
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Mixers simple design to mix
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Mixers
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Common Materials
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Common Materials
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Common Materials
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Common Materials
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Common Materials
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Common Materials cheap stuff
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Dimensions of a gene chip
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Conclusion
Description:
Explore the fundamentals of microfluidics in this comprehensive lecture by Prof. Terence Kuzma from Pennsylvania State University. Delve into the unique physics of fluids at the microscale, learn about modern manufacturing processes for creating lab-on-a-chip devices, and discover solutions to overcome associated challenges. Gain insights into the fabrication of microfluidic channels through a hands-on experience in a teaching cleanroom, complete with detailed recipes. Examine the simulation of a microfluidic channel designed to separate red blood cells as a practical application. Cover topics such as micro arrays, advantages and disadvantages of microfluidics, electro-osmosis, laminar flow, Reynolds number, Peclet number, mixers, common materials used in microfluidics, and the dimensions of gene chips.

Introduction to Microfluidics

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