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Article Synopsis
  • - Palladium (Pd) is a heavy metal with great catalytic properties, widely used in industries like pharmaceuticals, but it poses health and environmental risks, highlighting the need for effective analytical methods.
  • - A new fluorescent probe called INXPd has been developed, which can selectively detect palladium concentration through a color and fluorescence change when Pd cleaves the allyl carbonate component in the probe.
  • - INXPd shows high sensitivity with a detection limit of 56 nM and a quick response time of 2.0 minutes, making it useful for analyzing Pd in various samples, including drugs, water, and food, as well as for imaging in living cells.
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In recent years, bioorthogonal uncaging reactions have been developed to proceed efficiently under physiological conditions. However, limited progress has been made in the development of protecting groups combining stability under physiological settings with the ability to be quickly removed bioorthogonal catalysis. Herein, we present a new water-soluble coumarin-derived probe bearing an internal nucleophilic group capable of promoting Tsuji-Trost deallylation under palladium catalysis.

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Extensive use of palladium in many catalysts and catalytic converters causes a high degree of pollution of water and soil resources. Therefore, there is an urgent need to develop rapid and sensitive palladium probes. Herein, a novel "turn-on" near-infrared (NIR) fluorescence and colorimetric probe for Pd has been designed on the basis of the deallylation of the probe, followed by the release of NIR emissive fluorophore through the Tsuji-Trost reaction.

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Surface Preparation for Single-Molecule Chemistry.

Langmuir

February 2019

Biophysical Chemistry , Saarland University, Building B2.2 , 66123 Saarbrücken , Germany.

Immobilization procedures, intended to enable prolonged observation of single molecules by fluorescence microscopy, may generate heterogeneous microenvironments, thus inducing heterogeneity in the molecular behavior. On that account, we propose a straightforward surface preparation procedure for studying chemical reactions on the single-molecule level. Sensor fluorophores were developed, which exhibit dual-emissive characteristics in a homogeneously catalyzed showcase reaction.

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