Properties, evaluation and application of naringin magnetic molecularly imprinted polymer based on synergistic imprinting strategy

A novel and facile surface molecularly imprinted polymer coated on magnetic chitosan (Fe3O4@CS@MIP) was fabricated for the selective recognition and enrichment of naringin (NRG). The Fe3O4@CS@MIP was prepared based on covalent–noncovalent synergistic imprinting strategies, utilizing 4‐vinyl phenyl b...

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Published inJournal of food science Vol. 89; no. 9; pp. 5748 - 5762
Main Authors Zhang, Li‐Ping, Wang, Miao, Li, Tian, He, Yi‐Fan, Li, Shu‐Jing, Wang, Lan, Mao, Long‐Fei
Format Journal Article
LanguageEnglish
Published United States Wiley Subscription Services, Inc 01.09.2024
Subjects
adsorbents
Adsorption
Binding
Boric acid
boronate affinity
Chitosan
Chitosan - chemistry
Choline
choline chloride
Covalence
crystal structure
deep eutectic solvent
enrichment
Flavanones - chemistry
food science
Imprinted polymers
Iron oxides
Magnetic properties
magnetism
Magnetite Nanoparticles - chemistry
Mass transfer
Methacrylic acid
molecular imprinting
Molecular Imprinting - methods
molecularly imprinted polymer
Molecularly Imprinted Polymers - chemistry
Monomers
Nanoparticles
naringin
phosphates
Polymer coatings
Polymers
Polymers - chemistry
pummelos
Recognition
Solid Phase Extraction - methods
solvents
surface area
deep eutectic solvent
boronate affinity
enrichment
molecularly imprinted polymer
naringin
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Abstract A novel and facile surface molecularly imprinted polymer coated on magnetic chitosan (Fe3O4@CS@MIP) was fabricated for the selective recognition and enrichment of naringin (NRG). The Fe3O4@CS@MIP was prepared based on covalent–noncovalent synergistic imprinting strategies, utilizing 4‐vinyl phenyl boric acid as covalent functional monomer, deep eutectic solvent (choline chloride/methacrylic acid [ChCl/MAA]) as non‐covalent functional monomer and Fe3O4@CS nanoparticles as the magnetic support. The obtained Fe3O4@CS@MIP exhibited a uniform morphology, excellent crystallinity, outstanding magnetic properties, and high surface area. Owing to the double recognition abilities, the resultant polymer showed exceptional binding performance and rapid mass transfer in phosphate buffer (pH 7.0). The maximum binding amount of Fe3O4@CS@MIP was found to be 15.08 mg g−1, and the equilibrium adsorption could be achieved within 180 min. Moreover, they also exhibited stronger selectivity for NRG and satisfactory reusability, with only 11.0% loss after five adsorption‐desorption cycles. Additionally, the Fe3O4@CS@MIP, serving as an adsorbent, presented practical application potential in the separation and enrichment of NRG from pummelo peel, with extraction efficiency in the range of 79.53% to 84.63%. This work provided a new strategy for improving the performance of MIP and contributed an attractive option for the extraction of NRG in complex samples.
AbstractList A novel and facile surface molecularly imprinted polymer coated on magnetic chitosan (Fe₃O₄@CS@MIP) was fabricated for the selective recognition and enrichment of naringin (NRG). The Fe₃O₄@CS@MIP was prepared based on covalent-noncovalent synergistic imprinting strategies, utilizing 4‐vinyl phenyl boric acid as covalent functional monomer, deep eutectic solvent (choline chloride/methacrylic acid [ChCl/MAA]) as non‐covalent functional monomer and Fe₃O₄@CS nanoparticles as the magnetic support. The obtained Fe₃O₄@CS@MIP exhibited a uniform morphology, excellent crystallinity, outstanding magnetic properties, and high surface area. Owing to the double recognition abilities, the resultant polymer showed exceptional binding performance and rapid mass transfer in phosphate buffer (pH 7.0). The maximum binding amount of Fe₃O₄@CS@MIP was found to be 15.08 mg g⁻¹, and the equilibrium adsorption could be achieved within 180 min. Moreover, they also exhibited stronger selectivity for NRG and satisfactory reusability, with only 11.0% loss after five adsorption‐desorption cycles. Additionally, the Fe₃O₄@CS@MIP, serving as an adsorbent, presented practical application potential in the separation and enrichment of NRG from pummelo peel, with extraction efficiency in the range of 79.53% to 84.63%. This work provided a new strategy for improving the performance of MIP and contributed an attractive option for the extraction of NRG in complex samples.
A novel and facile surface molecularly imprinted polymer coated on magnetic chitosan (Fe3O4@CS@MIP) was fabricated for the selective recognition and enrichment of naringin (NRG). The Fe3O4@CS@MIP was prepared based on covalent–noncovalent synergistic imprinting strategies, utilizing 4‐vinyl phenyl boric acid as covalent functional monomer, deep eutectic solvent (choline chloride/methacrylic acid [ChCl/MAA]) as non‐covalent functional monomer and Fe3O4@CS nanoparticles as the magnetic support. The obtained Fe3O4@CS@MIP exhibited a uniform morphology, excellent crystallinity, outstanding magnetic properties, and high surface area. Owing to the double recognition abilities, the resultant polymer showed exceptional binding performance and rapid mass transfer in phosphate buffer (pH 7.0). The maximum binding amount of Fe3O4@CS@MIP was found to be 15.08 mg g−1, and the equilibrium adsorption could be achieved within 180 min. Moreover, they also exhibited stronger selectivity for NRG and satisfactory reusability, with only 11.0% loss after five adsorption‐desorption cycles. Additionally, the Fe3O4@CS@MIP, serving as an adsorbent, presented practical application potential in the separation and enrichment of NRG from pummelo peel, with extraction efficiency in the range of 79.53% to 84.63%. This work provided a new strategy for improving the performance of MIP and contributed an attractive option for the extraction of NRG in complex samples.
A novel and facile surface molecularly imprinted polymer coated on magnetic chitosan (Fe3O4@CS@MIP) was fabricated for the selective recognition and enrichment of naringin (NRG). The Fe3O4@CS@MIP was prepared based on covalent–noncovalent synergistic imprinting strategies, utilizing 4‐vinyl phenyl boric acid as covalent functional monomer, deep eutectic solvent (choline chloride/methacrylic acid [ChCl/MAA]) as non‐covalent functional monomer and Fe3O4@CS nanoparticles as the magnetic support. The obtained Fe3O4@CS@MIP exhibited a uniform morphology, excellent crystallinity, outstanding magnetic properties, and high surface area. Owing to the double recognition abilities, the resultant polymer showed exceptional binding performance and rapid mass transfer in phosphate buffer (pH 7.0). The maximum binding amount of Fe3O4@CS@MIP was found to be 15.08 mg g−1, and the equilibrium adsorption could be achieved within 180 min. Moreover, they also exhibited stronger selectivity for NRG and satisfactory reusability, with only 11.0% loss after five adsorption‐desorption cycles. Additionally, the Fe3O4@CS@MIP, serving as an adsorbent, presented practical application potential in the separation and enrichment of NRG from pummelo peel, with extraction efficiency in the range of 79.53% to 84.63%. This work provided a new strategy for improving the performance of MIP and contributed an attractive option for the extraction of NRG in complex samples.
A novel and facile surface molecularly imprinted polymer coated on magnetic chitosan (Fe O @CS@MIP) was fabricated for the selective recognition and enrichment of naringin (NRG). The Fe O @CS@MIP was prepared based on covalent-noncovalent synergistic imprinting strategies, utilizing 4-vinyl phenyl boric acid as covalent functional monomer, deep eutectic solvent (choline chloride/methacrylic acid [ChCl/MAA]) as non-covalent functional monomer and Fe O @CS nanoparticles as the magnetic support. The obtained Fe O @CS@MIP exhibited a uniform morphology, excellent crystallinity, outstanding magnetic properties, and high surface area. Owing to the double recognition abilities, the resultant polymer showed exceptional binding performance and rapid mass transfer in phosphate buffer (pH 7.0). The maximum binding amount of Fe O @CS@MIP was found to be 15.08 mg g , and the equilibrium adsorption could be achieved within 180 min. Moreover, they also exhibited stronger selectivity for NRG and satisfactory reusability, with only 11.0% loss after five adsorption-desorption cycles. Additionally, the Fe O @CS@MIP, serving as an adsorbent, presented practical application potential in the separation and enrichment of NRG from pummelo peel, with extraction efficiency in the range of 79.53% to 84.63%. This work provided a new strategy for improving the performance of MIP and contributed an attractive option for the extraction of NRG in complex samples.
A novel and facile surface molecularly imprinted polymer coated on magnetic chitosan (Fe3O4@CS@MIP) was fabricated for the selective recognition and enrichment of naringin (NRG). The Fe3O4@CS@MIP was prepared based on covalent-noncovalent synergistic imprinting strategies, utilizing 4-vinyl phenyl boric acid as covalent functional monomer, deep eutectic solvent (choline chloride/methacrylic acid [ChCl/MAA]) as non-covalent functional monomer and Fe3O4@CS nanoparticles as the magnetic support. The obtained Fe3O4@CS@MIP exhibited a uniform morphology, excellent crystallinity, outstanding magnetic properties, and high surface area. Owing to the double recognition abilities, the resultant polymer showed exceptional binding performance and rapid mass transfer in phosphate buffer (pH 7.0). The maximum binding amount of Fe3O4@CS@MIP was found to be 15.08 mg g-1, and the equilibrium adsorption could be achieved within 180 min. Moreover, they also exhibited stronger selectivity for NRG and satisfactory reusability, with only 11.0% loss after five adsorption-desorption cycles. Additionally, the Fe3O4@CS@MIP, serving as an adsorbent, presented practical application potential in the separation and enrichment of NRG from pummelo peel, with extraction efficiency in the range of 79.53% to 84.63%. This work provided a new strategy for improving the performance of MIP and contributed an attractive option for the extraction of NRG in complex samples.A novel and facile surface molecularly imprinted polymer coated on magnetic chitosan (Fe3O4@CS@MIP) was fabricated for the selective recognition and enrichment of naringin (NRG). The Fe3O4@CS@MIP was prepared based on covalent-noncovalent synergistic imprinting strategies, utilizing 4-vinyl phenyl boric acid as covalent functional monomer, deep eutectic solvent (choline chloride/methacrylic acid [ChCl/MAA]) as non-covalent functional monomer and Fe3O4@CS nanoparticles as the magnetic support. The obtained Fe3O4@CS@MIP exhibited a uniform morphology, excellent crystallinity, outstanding magnetic properties, and high surface area. Owing to the double recognition abilities, the resultant polymer showed exceptional binding performance and rapid mass transfer in phosphate buffer (pH 7.0). The maximum binding amount of Fe3O4@CS@MIP was found to be 15.08 mg g-1, and the equilibrium adsorption could be achieved within 180 min. Moreover, they also exhibited stronger selectivity for NRG and satisfactory reusability, with only 11.0% loss after five adsorption-desorption cycles. Additionally, the Fe3O4@CS@MIP, serving as an adsorbent, presented practical application potential in the separation and enrichment of NRG from pummelo peel, with extraction efficiency in the range of 79.53% to 84.63%. This work provided a new strategy for improving the performance of MIP and contributed an attractive option for the extraction of NRG in complex samples.
A novel and facile surface molecularly imprinted polymer coated on magnetic chitosan (Fe 3 O 4 @CS@MIP) was fabricated for the selective recognition and enrichment of naringin (NRG). The Fe 3 O 4 @CS@MIP was prepared based on covalent–noncovalent synergistic imprinting strategies, utilizing 4‐vinyl phenyl boric acid as covalent functional monomer, deep eutectic solvent (choline chloride/methacrylic acid [ChCl/MAA]) as non‐covalent functional monomer and Fe 3 O 4 @CS nanoparticles as the magnetic support. The obtained Fe 3 O 4 @CS@MIP exhibited a uniform morphology, excellent crystallinity, outstanding magnetic properties, and high surface area. Owing to the double recognition abilities, the resultant polymer showed exceptional binding performance and rapid mass transfer in phosphate buffer (pH 7.0). The maximum binding amount of Fe 3 O 4 @CS@MIP was found to be 15.08 mg g −1 , and the equilibrium adsorption could be achieved within 180 min. Moreover, they also exhibited stronger selectivity for NRG and satisfactory reusability, with only 11.0% loss after five adsorption‐desorption cycles. Additionally, the Fe 3 O 4 @CS@MIP, serving as an adsorbent, presented practical application potential in the separation and enrichment of NRG from pummelo peel, with extraction efficiency in the range of 79.53% to 84.63%. This work provided a new strategy for improving the performance of MIP and contributed an attractive option for the extraction of NRG in complex samples.
Author Wang, Miao
Wang, Lan
Li, Tian
Li, Shu‐Jing
Mao, Long‐Fei
He, Yi‐Fan
Zhang, Li‐Ping
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  organization: Henan University of Science and Technology
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  organization: Henan University of Science and Technology
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Keywords deep eutectic solvent
boronate affinity
enrichment
molecularly imprinted polymer
naringin
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SSID ssj0002236
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Snippet A novel and facile surface molecularly imprinted polymer coated on magnetic chitosan (Fe3O4@CS@MIP) was fabricated for the selective recognition and enrichment...
A novel and facile surface molecularly imprinted polymer coated on magnetic chitosan (Fe 3 O 4 @CS@MIP) was fabricated for the selective recognition and...
A novel and facile surface molecularly imprinted polymer coated on magnetic chitosan (Fe O @CS@MIP) was fabricated for the selective recognition and enrichment...
A novel and facile surface molecularly imprinted polymer coated on magnetic chitosan (Fe₃O₄@CS@MIP) was fabricated for the selective recognition and enrichment...
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pubmed
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StartPage 5748
SubjectTerms adsorbents
Adsorption
Binding
Boric acid
boronate affinity
Chitosan
Chitosan - chemistry
Choline
choline chloride
Covalence
crystal structure
deep eutectic solvent
enrichment
Flavanones - chemistry
food science
Imprinted polymers
Iron oxides
Magnetic properties
magnetism
Magnetite Nanoparticles - chemistry
Mass transfer
Methacrylic acid
molecular imprinting
Molecular Imprinting - methods
molecularly imprinted polymer
Molecularly Imprinted Polymers - chemistry
Monomers
Nanoparticles
naringin
phosphates
Polymer coatings
Polymers
Polymers - chemistry
pummelos
Recognition
Solid Phase Extraction - methods
solvents
surface area
Title Properties, evaluation and application of naringin magnetic molecularly imprinted polymer based on synergistic imprinting strategy
URI https://onlinelibrary.wiley.com/doi/abs/10.1111%2F1750-3841.17177
https://www.ncbi.nlm.nih.gov/pubmed/39150691
https://www.proquest.com/docview/3113808805
https://www.proquest.com/docview/3093595087
https://www.proquest.com/docview/3153847316
Volume 89
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