Received a grant to develop the next generation of water sensors together with industry
The increasing population results in increasing contamination of the environment, notably water. This not only affects animal life, but may also threaten the supply of clean drinking water in the future. Monitoring of water quality at water treatment facilities and in surface water will allow the identification of excesses and enable a timely response. In this project we propose to develop biosensors for the monitoring of pharmaceuticals and nutrients in water. The proposed sensors are based on functionalized particles that are monitored in a miniature imaging system, and whose motion responds to the presence of a specific micropollutant. This sensing principle will enable the continuous monitoring of contamination, is extremely specific to a certain micropollutant, and consumes no reagents. The sensor will be developed and characterized in the lab, integrated into a device, and field-tested. The sensing principles can be generalized to other micropollutants by adapting the biofunctionalization, providing a generic platform for continuous monitoring of water quality.
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Plasmon-Enhanced Single-Molecule Enzymology Yuyang Wang and Peter Zijlstra DOI:10.1021/acsphotonics.8b00327 We present a numerical study on plasmon-enhanced single-molecule enzymology. We combine Brownian dynamics and electromagnetic simulations to calculate the enhancement of fluorescence signals...
Peter will present the group’s most recent results at the Gordon Research Conference in Hong Kong on Plasmonically Powered Processes! For the conference’s full program see https://www.grc.org/plasmonically-powered-processes-conference/2019/.
We are happy that our ITN grant called SuperCol was awarded! This is an international training network funded by the European Union and is coördinated by Peter. The network will...