CAR-T translational research demands precise, reproducible, and scalable flow cytometry workflows. Manual centrifugation and antibody preparation steps remain major sources of variability and cell ...

Compensation refers to correcting a phenomenon called fluorescence spillover in flow cytometric analysis. This is the removal of the signal of any given fluorochrome from all detectors except the one ...

Flow cytometry offers practical advantages for real-time monitoring of CAR T cell expansion, persistence, and toxicity risk in aggressive large B-cell lymphoma patients. Early CAR T cell expansion is ...

A research team from George R Brown School of Engineering and Computing (Rice University; TX, USA), led by Peter Lillehoj and Kevin Mchugh, have developed an innovative AI-enabled microfluidic ...

With flow cytometry, as with many technologies that enjoy continuous use, we can see an evolution of capabilities. Spectral analysis, image capture, and artificial intelligence are just a few of the ...

Flow cytometry is widely used in areas of research that require analysis or isolation of cells from suspension. This technology makes use of fluorescent probes targeted to specific cell-associated ...

Not all patients respond well to chimeric antigen receptor (CAR) T cell therapies, which reprogram a patient’s own immune cells to recognize and attack cancer. A way to optimize these treatments is to ...

Flow cytometry remains a critical technology for the high-throughput analysis of single cells in complex populations. Attention to good analysis practices is more important than ever due to the recent ...

Flow cytometry detects cells or particles in suspension by separating them in a narrow, rapidly flowing stream of liquid. The sample is passed through a laser, which detects properties such as size, ...

Flow cytometry is a widely used analytical technique that distinguishes between cell populations depending on the presence or absence of chosen markers. However, the number of markers that can be ...