- Sony Biotechnology
- Sony Biotechnology
Learn how the automated cleaning function of the MA900 Multi-Application Cell Sorter saves time and reduces errors for multi-user labs.
David Savage's laboratory uses progressive cell sorting of large libraries to allosterically engineer protein biosensors and direct the genome editing activity of Cas9. Second in a series of real-world applications for the Sony SH800 cell sorter.
A study of porcine iPS cells in an SLA-matched setting is a possible robust model for transplantation of human iPS cells in an HLA-matched setting. The Sony SH800 was used to perform the NK mediated cytotoxicity assay.
Join flow cytometry experts for a webinar on best practices in cell sorting. This webinar will be valuable to those with any level of cell sorting experience.
The Sony MA900 Multi-Application Cell Sorter has been nominated for the Best New Life Sciences Product of 2018 in the Scientists' Choice Awards.
Learn how a developmental cell biology lab combined single-cell sorting with RNA sequencing to accelerate stem cell maturation and model cardiac abnormalities. This is the first in our profile series of real-world applications for the Sony SH800 cell sorter.
Learn how the Sony SH800S cell sorter supports gene expression profiling to purify phenotypically similar cell populations in bulk.
Researchers used spectral flow cytometry and fluorescent proteins to capture both movement and interactions of immune cells in live mice.
Recent advances in genome editing and the application of fluorescent proteins have accelerated Interest in isolating specific populations of brain cells from mixed populations. Researchers are also using cell sorting to isolate single cells for expansion and analysis.
Placing several fluorescent proteins together in a flow cytometry panel offers greater power and capability for experiments. However, handling autofluorescent signal with fluorescent proteins is out of reach for conventional flow cytometetry users. Sony spectral flow cytometry analyzers enable researchers to harness up to five near infra-red fluorescent proteins in a single experiment. Moreover, spectral technology lets users accurately identify autofluorescence, and eliminate it if needed.