Biological Applications of Microfluidics
Microfluidics has facilitated major biochemical application advancements in point-of-care diagnostics, bioterrorism detection, and drug discovery. There are numerous potential applications in biotechnology, pharmaceuticals, the life sciences, defense, public health, and agriculture. Microfluidic lab-on-a-chip (LOC) technologies represent a revolution in laboratory experimentation, bringing the benefits of miniaturization, integration, and automation to many research-based industries.
Biological Applications of Microfluidics details recent advances in the biological applications of microfluidics, including cell sorting, DNA sequencing on a chip, microchip capillary electrophoresis, and synthesis on a microfluidic format. After an overview of microfluidics highlighting recent seminal works, it includes multiple chapters on:
Cell analysis on microfluidic devices
Chemical (enzymatic and non-enzymatic) reactions on microchips
Separations on microchips
Biomedical applications of microfluidics
Hybrid microfluidic applications
Microfluidics has incredible potential in a variety of areas. This book covers many recent advances, including microfabricated LOC technologies, advanced microfluidic tools, microfluidic culture platforms for stem cell and neuroscience research, a novel application of microfluidic LOC devices that facilitates fundamental research in proteomics that cannot be performed without miniaturization, the nano fountain pen, and more.
With contributions from leading experts in chemistry, physics, bioengineering, material science, biomedicine, and other fields plus references at the end of each chapter to facilitate further study, this is an all-in-one, hands-on resource for analytical chemists and researchers. It is also an excellent resource for students studying analytical chemistry or biotechnology.
PART I CELL ANALYSIS ON MICROFLUIDIC DEVICES.
2 Using Microfluidics to Understand and Control the Cellular Microenvironment.
2.1 Introduction: Engineering the Microenvironment.
2.2 The Chemical Microenvironment.
2.3 The Mechanical Microenvironment.
3 Microfabricated Devices for Cell Sorting.
3.2 Microfabricated Formats for Cell Sorting.
3.3 Outlook for the Future.
4 Advanced Microfluidic Tools for Single-Cell Manipulation and Analysis.
4.2 Fluidic Control.
4.3 Temperature Control.
4.4 Cell Manipulation.
5 Engineering Cellular Microenvironments with Microfluidics.
5.2 Microfluidic Cultures can Simulate in vivo Microenvironments.
5.3 Other Useful Capabilities of Microfluidic Cell Culture Devices.
5.4 Microfluidic Devices Useful for Cell Applications Other than Culture.
5.5 Future Prospects for Biological Studies in Microfluidic Bioreactors.
6 Microfluidic Culture Platforms for Stem Cell and Neuroscience Research.
6.2 Applications for Stem Cell Research.
6.3 Applications for Neuroscience Research.
6.4 Summary and Future Directions.
PART II ENZYMATIC AND NONENZYMATIC REACTIONS ON
7 Microfluidics for Studying Enzyme Inhibition.
7.1 Enzyme Assays and Inhibition.
7.2 Microfluidic Assays for Enzymes and Enzyme Inhibition.
7.3 Enzyme Inhibition Studies in Microfluidic Devices: Specific Studies.
8 Chemical Synthesis within Continuous Flow Microreactors.
8.2 Advantages of Performing Chemical Synthesis in Microreactors.
8.3 Chemical Synthesis in Microreactors.
8.4 Large-Scale Manufacture Using Microreactors.
9 Microfluidic Reactors for Sequential and Parallel Reactions.
9.2 Sequential Reactions in Microfluidic Devices.
9.3 Parallel Reactions in Microfluidic Devices.
10 Gene Isolation, Gene Transformation, and Enzyme Reaction on a Chip.
10.2 DNA/RNA Isolation on a Microfluidic Chip.
10.3 Gene Ligation on a Microfluidic Chip.
10.4 Gene Transformation on a Chip.
10.5 Enzymatic Reaction on a Chip.
10.6 Summary and Perspective.
PART III SEPARATIONS ON MICROCHIPS.
11 Chemical Monitoring in Complex Biological Environments Using Separation-Based Sensors in Chips.
11.1 Separation-Based Sensors.
11.2 Fast Separations with Separation-Based Sensors.
11.3 Micro Total Analysis Systems with Electrophoretic Separations for Monitoring of Biological Systems.
11.4 Miniaturization and Integration of Separation-Based Sensor Components.
12 Analytical Strategies Toward the Analysis of Phenolic
Compounds (Capillary Electrophoresis and Microchip
12.2 Experimental Section.
12.3 Results and Discussion.
13 Chemical Separations in 3D Microfluidics.
13.3 Results and Discussion on 3D Valves.
13.4 Microfluidic Three-Dimensional Separation Columns.
13.5 Results on Liquid Chromatography.
14 Enabling Fundamental Research in Proteomics.
14.2 Membrane Protein Extraction.
PART IV BIOMEDICAL APPLICATIONS OF MICROFLUIDICS.
15 Microengineering Neural Development.
15.2 Microengineering Guidance of Axons to their Targets.
15.3 Synaptogenesis on a Microfluidic Chip.
16 Applications of Centrifugal Microfluidics in Biology.
16.2 Why Use Centrifugal Force for Fluid Manipulation?
16.3 How Centrifugal Microfluidic Platforms Work.
16.4 CD Applications.
17 Microfluidic Techniques for Point-of-Care In Vitro Diagnostics.
17.2 Microfluidic Immunoassays.
17.3 Microfluidic Vias and Derivative Applications.
PART V MICROFLUIDIC FABRICATION STUDIES.
18 Fabrication of Polymeric Microfluidic Devices.
18.2 Glass- and Silicon-Based Materials.
18.3 Plastics and Polymeric Materials.
18.4 Approaches to Microfabrication.
18.5 Selected Microfabrication Techniques.
19 Nano Fountain Pen: Toward Integrated, Portable, Lab-on-Chip Devices.
19.2 Nano Fountain Pen.
19.3 Protein Printing.
19.4 Enzyme Lithography.
19.5 Polymer Microlenses.
20 Surface Engineering of Microfluidic Devices Using Reactive Polymer Coatings.
20.2 Microfluidics Surface Modification Techniques.
21 Microchips Containing In Situ Patterned Polymeric Media for Biochemical Analysis.
21.1 Introduction and Scope.
21.2 General Information about Patterned Materials.
21.3 Photopatterned Materials for Protein Analysis.
21.4 DNA Purification and Analysis.
21.5 Patterned Materials for Cell Culture and Analysis.
21.6 Other Biomolecules.
PART VI HYBRID MICROFLUIDIC APPLICATIONS.
22 Coupling Electrochemistry to Microfluidics.
22.2 Electrochemical Methods of Analysis.
22.3 Microfluidic Devices.
22.5 Conclusions and Future Directions.
23 Manipulating Mass-Limited Samples Using Hybrid Microfluidic/Nanofluidic Networks.
23.3 Hybrid Microfluidic/Nanofluidic Systems.
23.4 Functionalized NCAMs.
23.5 The Future.
24 Magnetic Bead-based Methods to Study the Interaction of Teicoplanin with Peptides and Bacteria.
24.3 Results and Discussion.
25 Interfacing Microchannel Electrophoresis with Electrospray Ionization Mass Spectrometry.
25.2 Electrospray Ionization.
25.4 Spray Emitters.
25.5 CE and ESI Electrode Connections.
25.6 Integrated Applications.
Frank A. Gomez, PhD, is the Director of the CSULA-Caltech Partnership for Research and Education in Materials (PREM) Collaborative. He is a Professor in the Department of Chemistry and Biochemistry at California State University, Los Angeles, and a Visiting Research Associate at the California Institute of Technology.
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