Plug Library Generation
Plug Library Generation - Related Videos
10:05
Generation of Native Chromatin Immunoprecipitation Sequencing Libraries for Nucleosome Density Analysis
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Cited by 12 •
2017
We present a modified native chromatin immunoprecipitation sequencing (ChIP-seq) methodology for the generation of sequence datasets suitable for a nucleosome density ChIP-seq analytical framework integrating micrococcal nuclease (MNase) accessibility with histone modification measurements.
01:22
Formation of the Platelet Plug
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2024
The platelet phase, the second stage of hemostasis, commences around 15-20 seconds after an injury. It follows and overlaps with the vascular phase, during which blood vessels constrict to minimize blood loss. As the injured blood vessel contracts, endothelial cells undergo contraction, revealing collagen fibers in the basement membrane and underlying connective tissue. Furthermore, the plasma membrane of endothelial cells becomes adhesive, preparing the site for platelet adhesion. Platelets...
13:26
Automated Gel Size Selection to Improve the Quality of Next-generation Sequencing Libraries Prepared from Environmental Water Samples
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Cited by 9 •
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This manuscript describes an automated gel size selection approach for purifying DNA fragments for next-generation sequencing. The Ranger Technology provides complete automation of the entire process of agarose gel loading, electrophoretic analysis, and recovery of targeted DNA fragments allowing for high-throughput and high quality next-generation sequencing libraries.
20:59
Large Insert Environmental Genomic Library Production
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Cited by 18 •
2009
Construction of a fosmid library with environmental genomic DNA isolated from the vertical depth continuum of a seasonally hypoxic fjord is described. The resulting clone library is picked into 384-well plates and archived for downstream sequencing and functional screening by the application of an automated colony picking system.
18:38
Large-scale Gene Knockdown in C. elegans Using dsRNA Feeding Libraries to Generate Robust Loss-of-function Phenotypes
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Cited by 5 •
2013
While dsRNA feeding in C. elegans is a powerful tool to assess gene function, current protocols for large scale feeding screens result in variable knockdown efficiencies. We describe an improved protocol for performing large scale RNAi feeding screens that results in highly efficacious and reproducible knockdown of gene expression.
FAQs
At the microfluidic junction, controlled aqueous streams meet an immiscible phase, which separates the aqueous material into discrete units. The resulting plugs are intended to be uniform, so each unit can serve as a comparable experimental compartment. Altering the input solutions changes composition, while modifying flow conditions changes how the library is produced, allowing systematic combinations rather than a single formulation.
The immiscible phase keeps adjacent aqueous plugs physically separated as they pass through the microfluidic device. This separation helps limit cross-contamination, preserving the intended composition of each compartment and making comparisons among library members more reliable. Because each plug remains isolated, researchers can test many conditions while using smaller amounts of cells, reagents, or biomaterials than separate bulk experiments may require.
Library diversity comes from deliberately changing the aqueous inputs or the flow conditions used during plug formation. These changes can create defined combinations of cells, reagents, or biomaterials rather than uncontrolled variation. Such controlled diversity allows researchers to compare multiple compositions in parallel and identify how specific combinations influence a biochemical reaction, cell behavior, or biomaterial outcome.
The approach requires aqueous sample streams, an immiscible phase, and a microfluidic device containing a junction where the phases meet. Researchers adjust the input solutions or flow conditions to generate the desired set of compositions. This workflow links device operation directly to library design, because the selected streams and conditions determine which experimental combinations are represented.
Researchers can use plug libraries when they need to screen many biochemical reactions, cell conditions, biomaterial formulations, or assay conditions in parallel. The format supports systematic optimization by placing varied conditions into discrete experimental compartments. It is especially relevant when reducing reagent use and increasing throughput are important, because many candidate conditions can be evaluated within one microfluidic platform.
In bioengineering, these libraries can reveal which combinations of cells, reagents, or biomaterials produce useful experimental outcomes. Parallel testing supports systematic optimization rather than relying on isolated trial conditions. The resulting approach can contribute to scalable microfluidic platforms for screening reactions, studying cell behavior, evaluating material formulations, and refining assay conditions while limiting cross-contamination and reagent consumption.