Creating Semiconducting Polymer Dots with Enhanced Performance Through a Simple Mixed Antisolvent Approach

We present an optimized method for producing semiconducting polymer dots using a water–ethanol mixed antisolvent during nanoprecipitation. Compared to conventional Pdots made with pure water as the antisolvent, these newly produced Pdots exhibit simultaneously enhanced fluorescence efficiency and stability of particle size and emission spectra. These findings should be mainly attributed to an improved core–shell Pdots nanostructure formed by a sequential nanoprecipitation process. It offers Pdots a purer, more compact, and hydrophobic inner core, coated with a greater number of hydrophilic polyethylene glycol shells. This viewpoint is further reinforced by Förster energy-transfer efficiency in a fluorescence donor-acceptor Pdots system. The novelly prepared Pdots can better encapsulate small-molecular cargoes and more efficiently bioconjugate to targets. Consequently, it demonstrates improved specific immunofluorescence staining of microtubule structures in living cells.

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Publication Details

Journal
Biosensors
Published
2026-05-27
DOI
https://doi.org/10.3390/bios16060308
Primary Topic
Carbon and Quantum Dots Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

Creating Semiconducting Polymer Dots with Enhanced Performance Through a Simple Mixed Antisolvent Approach

Xuehan He, Y ZHAO, Dingshi Xu, Le Chen et al.
Biosensors
Carbon and Quantum Dots Applications
article

Creating Semiconducting Polymer Dots with Enhanced Performance Through a Simple Mixed Antisolvent Approach

Xuehan He, Y ZHAO, Dingshi Xu, Le Chen, Yi-Xiang Wang
article en

Abstract

We present an optimized method for producing semiconducting polymer dots using a water–ethanol mixed antisolvent during nanoprecipitation. Compared to conventional Pdots made with pure water as the antisolvent, these newly produced Pdots exhibit simultaneously enhanced fluorescence efficiency and stability of particle size and emission spectra. These findings should be mainly attributed to an improved core–shell Pdots nanostructure formed by a sequential nanoprecipitation process. It offers Pdots a purer, more compact, and hydrophobic inner core, coated with a greater number of hydrophilic polyethylene glycol shells. This viewpoint is further reinforced by Förster energy-transfer efficiency in a fluorescence donor-acceptor Pdots system. The novelly prepared Pdots can better encapsulate small-molecular cargoes and more efficiently bioconjugate to targets. Consequently, it demonstrates improved specific immunofluorescence staining of microtubule structures in living cells.

BiosensorsVol. 16(6)
Sun Yat-sen University (CN), Shenzhen University (CN), Shenzhen Technology University (CN)
Natural Science Foundation of Shenzhen City, Natural Science Foundation of Guangdong Province
Affordable and clean energy
Openalex Percentile: Top 12%
Carbon and Quantum Dots Applications
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