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TL;DR: A high-throughput, on-chip detection scheme that uses biocompatible wetting films to self-assemble aspheric liquid nanolenses around individual nanoparticles to enhance the contrast between the scattered and background light is described.

TL;DR: Using the lensfree video microscopy platform to perform high-throughput real-time monitoring of cell culture, this work introduces specifically devised metrics that are capable of non-invasive quantification of cell functions such as cell-substrate adhesion, cell spreading, cell division, celldivision orientation and cell death.

TL;DR: This novel technique to the observation of µL sample containing bacteria evaporated onto a microscope slide is applied and will be used as a pre-positioning tool prior to other optical identification methods, e.g. Raman spectroscopy.

TL;DR: The speed and sensitivity of the Raman spectrometer pave the way for high-throughput and nondestructive real-time bacteria identification assays that can benefit biomedical, clinical diagnostic, and environmental applications.

TL;DR: This paper discusses an original fluidic architecture based on three connected modules, a sampling module, a sample preparation module and a detection module, which is a PCR based miniaturized platform using digital microfluidics.