Flow cytometry is an important technology for the study of microbial communities. It grants
the ability to rapidly generate phenotypic single-cell data that are both quantitative …

The study of complex microbial communities typically entails high-throughput sequencing
and downstream bioinformatics analyses. Here we expand and accelerate microbiota …

Isogenic bacterial populations are known to exhibit phenotypic heterogeneity at the single-
cell level. Because of difficulties in assessing the phenotypic heterogeneity of a single taxon …

Microbial flow cytometry can rapidly characterize the status of microbial communities. Upon
measurement, large amounts of quantitative single-cell data are generated, which need to …

The use of advanced membrane processes, such as reverse osmosis (RO) are of great
importance for process water and drinking water production. As the water quality is bound to …

A bottleneck for microbial community experiments with many samples and/or replicates is
the fast quantification of individual taxon abundances, which is commonly achieved through …

Microbiome management research and applications rely on temporally resolved
measurements of community composition. Current technologies to assess community …

Since the late 1960s, FCM has given the biologist the ability to interrogate both normal and
diseased biological conditions at the single-cell level in a statistically relevant way (1). For …

Antimicrobial resistance is one of the greatest challenges to global health. While the
development of new antimicrobials can combat resistance, low profitability reduces the …

Escherichia coli (E. coli) is a Gram-negative bacterium commonly found in the lower
intestine of warm-blooded organisms, including humans. Although the majority of the strains …