QuIPS_Platform

[QuIPS_Platform @QuIPS_Platform]

where four different populations of NGFR-positive HEK293T cells with varying levels of GFP expression were simultaneously isolated for downstream applications. (3/3)

[QuIPS_Platform @QuIPS_Platform]

The FACSMelody cell sorting system enables simultaneous isolation of up to four different fluorescently labeled cell populations.​​

It utilizes the fluorescent signals emitted by various cells to accurately identify and isolate them.​​

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[QuIPS_Platform @QuIPS_Platform]

The accompanying image presents some of the work performed by the Michaels Lab (@YaleMichaels) at the Paul Albrechtsen Research Institute (2/3)

[QuIPS_Platform @QuIPS_Platform]

The FACSMelody uses the fluorescence of a labelled population to identify and sort cells accurately. Being able to sort distinct cell types is useful in many applications including, drug screening, immunophenotyping and transcriptomic assays.

[QuIPS_Platform @QuIPS_Platform]

The FACSMelody cell sorter housed within the QuIPS platform enables the efficient isolation of a specific cellular population from complex mixture of cell types.🧵1/3

[QuIPS_Platform @QuIPS_Platform]

The accompanying image presents some of the work performed by the Tremblay Lab (@Tremblay_Lab) at the Paul Albrechtsen Research Institute to isolate a T cell population from a mixture of cells for downstream analysis.

[QuIPS_Platform @QuIPS_Platform]

The FACSMelody uses the fluorescence of a labelled population to identify and sort cells accurately. Being able to sort distinct cell types is useful in many applications including, drug screening, immunophenotyping and transcriptomic assays.

[QuIPS_Platform @QuIPS_Platform]

The accompanying image presents some of the work performed by the Tremblay Lab (@CedricSTremblay) at the Paul Albrechtsen Research Institute to isolate a T cell population from a mixture of cells for downstream analysis.

[QuIPS_Platform @QuIPS_Platform]

Visit our website https://t.co/zTEidvM3I3

[QuIPS_Platform @QuIPS_Platform]

The QuIPS Platform at the Paul Albrechtsen Research Institute provides leading-edge technologies & services for researchers within the Institute, the University of Manitoba and academic and industrial partners.

Please contact us for more information about our services. 🧵1/2

[QuIPS_Platform @QuIPS_Platform]

The QuIPS Platform features two IN Carta Analysis workstations designed to handle the heavy lifting of image analysis, allowing users to focus on their research.

[QuIPS_Platform @QuIPS_Platform]

IN Carta Analysis Software equipped with SINAP (Segmentation Is Not A Problem) deep learning modules employs advanced artificial intelligence to transform images into data that can be easily quantified and interpreted.
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[QuIPS_Platform @QuIPS_Platform]

The Nuclei module segments cells based on nuclear DAPI staining (green mask) paired with a 15 um collar (yellow mask) to approximate the cell boundary, while the Organelle module identifies micronuclei within the cell boundary (red mask).

[QuIPS_Platform @QuIPS_Platform]

Please visit our website (https://t.co/AB89kBOvrz) to learn more about how we can assist you in enabling, optimizing, accelerating your research.

[QuIPS_Platform @QuIPS_Platform]

The BD FACSMelody within the QuIPS platform can sort or enrich specific cell populations based on their fluorescence intensities using Fluorescence Activated Cell Sorting technology.​
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[QuIPS_Platform @QuIPS_Platform]

In this experiment, individual cells expressing green fluorescent protein were sorted into each well of a 96-well plate to ultimately generate CRISPR knockout clones. FACS based cell isolation is an efficient and accurate way to isolate single cells for downstream applications.

[QuIPS_Platform @QuIPS_Platform]

Please visit our website (https://t.co/d6QIuqc5Ke) to learn more about how we can assist you in enabling, optimizing, accelerating your research.

[QuIPS_Platform @QuIPS_Platform]

By combining the transmitted light microscope and 40X objective with auto-stitching capabilities, the PhenoImager captures high-dimensional images of tissues and allows users to visualize their entire slide in one image file.🧵1/3

[QuIPS_Platform @QuIPS_Platform]

Shown is a DAB-stained mouse brain from the Sharif Laboratory (@SharifLab) at the University of Manitoba zoomed in to 4x, 10x, 20x, 40x magnification. 

Images like these can be studied to enhance their understanding of brain cancers including medulloblastoma and glioblastoma.