Gerald Urban

TL;DR: The ability of this CRISPR/Cas13a powered microfluidic, integrated electrochemical biosensor for the on-site detection of microRNAs shows the ability of the system to be a low-cost and target amplification-free tool for nucleic acid based diagnostics.

TL;DR: In this paper, a thin-film germanium thermistor based flow sensor based on a silicon nitride diaphragm carried by a silicon frame has been developed with high flow sensitivities and short response times.

TL;DR: In this article, a micro-sensor compatible with Bio-MEMS applications for wide-range thermal flow rate measurements in liquids is introduced, based on the applied materials and geometry, the sensor allows an outstanding resolution at minimum thermal crosstalk, enabling flow rate measurement down to 100 μg/h in water, i.e. 100 nl/h.

TL;DR: A battery operated surface mounted device (SMD) potentiostat was developed to obtain a "lab on chip" and provide the possibility of simultaneous measurement of four different parameters at a cell volume of 1 microliter.

TL;DR: In this article, a dual signal amplification strategy consisting of the CRISPR/Cas13a system and a catalytic hairpin DNA circuit (CHDC), integrated on a reusable electrochemical biosensor for rapid and accurate detection of RNAs.