Quantitative phase imaging (QPI) has been demonstrated to be a versatile tool for minimally
invasive label-free imaging of biological specimens and time-resolved cellular analysis. In …

Cytotoxicity quantification of nanoparticles is commonly performed by biochemical assays to
evaluate their biocompatibility and safety. We explored quantitative phase imaging (QPI) …

We explored the capabilities of quantitative phase imaging (QPI) with digital holographic
microscopy (DHM) to quantify nanoparticle-induced tissue alterations and the performance …

For the analysis of the impact of pharmaceuticals or pathogens on different cellular
phenotypes under identical measurement conditions and to analyze interactions between …

Significant improvements in quantitative phase imaging (QPI) technologies established
digital holographic microscopy (DHM) and holotomography (HT) as tools for label-free …

Digital holographic microscopy (DHM) is an interferometry-based variant of quantitative
phase microscopy (QPM) that can be integrated modular into various common microscopes …

The cytotoxic potential of nanomaterials is commonly evaluated by different cellular
endpoints as reactive oxygen species formation, cell viability or cell death. Usually these …

To understand complex biological processes, scientists must gain insight into the function of
individual living cells. In contrast to the imaging of fixed cells, where a single snapshot of the …

For the example of digital holographic microscopy (DHM), a variant of quantitative phase
imaging (QPI), we explored strategies for the analysis of confluent cell layers utilizing …

Label-free quantitative in vitro imaging of living cell cultures with light microscopy is an
important tool for various research fields in the life sciences. Digital holographic microscopy …