Polychromatic flow cytometry results in complex, multivariate datasets. To date, tools for the
aggregate analysis of these datasets across multiple specimens grouped by different …

Flow cytometric analysis allows rapid single cell interrogation of surface and intracellular
determinants by measuring fluorescence intensity of fluorophore-conjugated reagents. The …

Polychromatic flow cytometry offers the unprecedented ability to investigate multiple
antigens per cell. Unfortunately, unwanted spectral overlaps and compensation problems …

Ever since its invention half a century ago, flow cytometry has been a major tool for single‐
cell analysis, fueling advances in our understanding of a variety of complex cellular systems …

Major technological advances in flow cytometry (FC), both for instrumentation and reagents,
have emerged over the past few decades. These advances facilitate simultaneous …

In the last 10 years, a tremendous progress characterized flow cytometry in its different
aspects. In particular, major advances have been conducted regarding the hardware …

Multiparameter flow cytometry has matured tremendously since the 1990s, giving rise to a
technology that allows us to study the immune system in unprecedented detail. In this article …

Statistical mixture modeling provides an opportunity for automated identification and
resolution of cell subtypes in flow cytometric data. The configuration of cells as represented …

Cytometry is used extensively in clinical and laboratory settings to diagnose and track cell
subsets in blood and tissue. High-throughput, single-cell approaches leveraging cytometry …

Flow Cytometry has become a mainstay technique for measuring fluorescent and physical
attributes of single cells in a suspended mixture. These data are reduced during analysis …