VisionSort for Drug Discovery
Watch: VisionSort for Drug Discovery
VisionSort: A New Dimension in Cell Analysis & Sorting
VisionSort: A New Dimension in Cell Analysis & Sorting (JPN/日本語)
Pooled compound screening using DNA barcoding and Ghost Cytometry
Watch: VisionSort: Applications in Stem Cell R&D Webinar
VisionSort: Applications in Stem Cell R&D Webinar
Learn more about VisionSort applications in stem cell R&D and regenerative medicine. Highlights include applications in induced pluripotent stem cells (iPSC), human mesenchymal stem cells (hMSC), and progenitor cells. Combining gentle microfluidics based sorting that maintains stem cell viability and differentiation potential with sensitive, label-free isolation of specific cell phenotypes, VisionSort is uniquely positioned to address fundamental challenges in stem cell R&D and regenerative medicine.
Assessment of Nuclear Morphology in Flow
VisionSort for Phenotypic Drug Screening (JPN/日本語)
VisionSort for Phenotypic Drug Screening
Learn more about VisionSort applications in phenotypic drug screening. Providing a perfect complement to existing drug discovery technologies, see how the power of AI and high-resolution morphological profiling come together to enable new phenotypes to screen for and the identification of differentiated hits for discovery campaigns.
Classification of Mitochondrial Morphology in Activated T cells
Intracellular Protein Aggregation as a High Content Readout in Flow-Based Phenotypic Drug Discovery
TCY-AN-014.23.1-PDD-in-Flow (3)
Ghost Cytometry Explained in 2 minutes
Introduction to the VisionSort Platform
Introduction to the VisionSort Platform (JPN/日本語)
Ghost Cytometry for Functional Genomics Screening
Label-free assessment of B cell differentiation by Ghost Cytometry
Characterization and label-free isolation of phenotypically defined human immune cells using Ghost Cytometry
VisionSort Technical Specifications
VisionSort Brochure
VisionSort Brochure (JPN/日本語)
Label Free Detection of Subtle Morphological Differences in Immune Cells
Label-Free High Throughput CRISPR-Based Screening for Morphological Phenotypes in Flow
The development of CRISPR-Cas9 genome editing technology has led to the emergence of a new generation of novel life sciences applications. In drug discovery, researchers have harnessed the precision of selective gene knockouts by CRISPR to enable genome-wide drug screening. By mapping genotypes to phenotypes, CRISPR-based phenotypic screens can enable a better understanding of drug mechanism of actions (MOAs) and identification of novel druggable targets. However, current phenotypic CRISPR screening approaches rely heavily on microscopic imaging of target phenotypes, a process that imposes throughput limitations and restricts screening to only a handful of simple phenotypes based on binary fluorescence signals. To fully realize the potential of CRISPRbased phenotypic screening, here […]
High Throughput CRISPR-Based Phenotypic Screening in Flow for Complex Intracellular Phenotypes
The development of CRISPR-Cas9 genome editing technology has led to the emergence of a new generation of novel life sciences applications1. In drug discovery, researchers have harnessed the precision of selective gene knockouts by CRISPR to enable genome-wide drug screening. By mapping genotypes to phenotypes, CRISPR-based phenotypic screens can enable a better understanding of drug mechanism of actions (MOAs) and identification of novel druggable targets. However, current phenotypic CRISPR screening approaches rely heavily on microscopic imaging of target phenotypes, a process that imposes throughput limitations and restricts screening to only a handful of simple phenotypes by binary fluorescence signals. To fully realize the potential of CRISPR-based phenotypic screening, here show […]
Intracellular Phenotyping with Enhanced Spatial Resolution in Flow
B cell Plasma Cell Differentiation
