Magnetic molecularly imprinted polymers obtained by photopolymerization for selective recognition of penicillin G

ABSTRACT Some of the most important life‐saving medications are β‐lactam antibiotics (such as Penicillin G). However, these medicines have not adequately been discharged into the environment; penicillin residues offer health risks and enhance the development of resistances. Thus, its selective separ...

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Veröffentlicht in:Journal of applied polymer science 2020-04, Vol.137 (13), p.n/a
Hauptverfasser: Pupin, Rafael Rovatti, Foguel, Marcos Vinicius, Gonçalves, Luís Moreira, Sotomayor, Maria del Pilar T.
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Foguel, Marcos Vinicius
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Sotomayor, Maria del Pilar T.
description ABSTRACT Some of the most important life‐saving medications are β‐lactam antibiotics (such as Penicillin G). However, these medicines have not adequately been discharged into the environment; penicillin residues offer health risks and enhance the development of resistances. Thus, its selective separation from complex matrices is a challenge worth tackling. A novel strategy of synthesis, by photopolymerization, was applied to develop magnetic molecular imprinted polymers (mag‐MIPs) aiming the recognition of penicillin G (also known as benzylpenicillin). Photopolymerization, when compared with the more common thermopolymerization, has the advantage of occurring at lower temperatures, which prevents analyte degradation. The Mag‐MIP presented higher surface area than the conventional MIP and good adsorption capacity of the analyte while maintaining its selectivity. The synthesized material was characterized by X‐ray diffraction, showing that the magnetite nanoparticles were formed and the MIP polymerization on their surface was performed, once the material was amorphous. Furthermore, the pore formation was evaluated by BET, indicating a high surface area (832 m2 g−1) and large pore volume (0.80 cm3 g−1) in the mag‐MIP compared to the magnetic non‐imprinted polymer (mag‐NIP: 147 m2 g−1 and 0.33 cm3 g−1). © 2019 Wiley Periodicals, Inc. J. Appl. Polym. Sci. 2020, 137, 48496.
doi_str_mv 10.1002/app.48496
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However, these medicines have not adequately been discharged into the environment; penicillin residues offer health risks and enhance the development of resistances. Thus, its selective separation from complex matrices is a challenge worth tackling. A novel strategy of synthesis, by photopolymerization, was applied to develop magnetic molecular imprinted polymers (mag‐MIPs) aiming the recognition of penicillin G (also known as benzylpenicillin). Photopolymerization, when compared with the more common thermopolymerization, has the advantage of occurring at lower temperatures, which prevents analyte degradation. The Mag‐MIP presented higher surface area than the conventional MIP and good adsorption capacity of the analyte while maintaining its selectivity. The synthesized material was characterized by X‐ray diffraction, showing that the magnetite nanoparticles were formed and the MIP polymerization on their surface was performed, once the material was amorphous. Furthermore, the pore formation was evaluated by BET, indicating a high surface area (832 m2 g−1) and large pore volume (0.80 cm3 g−1) in the mag‐MIP compared to the magnetic non‐imprinted polymer (mag‐NIP: 147 m2 g−1 and 0.33 cm3 g−1). © 2019 Wiley Periodicals, Inc. J. Appl. Polym. 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However, these medicines have not adequately been discharged into the environment; penicillin residues offer health risks and enhance the development of resistances. Thus, its selective separation from complex matrices is a challenge worth tackling. A novel strategy of synthesis, by photopolymerization, was applied to develop magnetic molecular imprinted polymers (mag‐MIPs) aiming the recognition of penicillin G (also known as benzylpenicillin). Photopolymerization, when compared with the more common thermopolymerization, has the advantage of occurring at lower temperatures, which prevents analyte degradation. The Mag‐MIP presented higher surface area than the conventional MIP and good adsorption capacity of the analyte while maintaining its selectivity. The synthesized material was characterized by X‐ray diffraction, showing that the magnetite nanoparticles were formed and the MIP polymerization on their surface was performed, once the material was amorphous. 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subjects Amides
Amorphous materials
Antibiotics
biomimetic materials
extraction
Imprinted polymers
Materials science
molecular imprinting and recognition
Nanoparticles
Penicillin
Photopolymerization
Polymers
Pore formation
Recognition
sample preparation
Selectivity
separation science
Surface area
title Magnetic molecularly imprinted polymers obtained by photopolymerization for selective recognition of penicillin G
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