Ultrafast and one-step coating sporopollenin exine capsules with metal-phenolic networks for bio-composite applications

A schematic representation illustrates the process of extracting sporopollenin exine capsules (SECs) and their subsequent surface enhancement through tannic acids (TA) and ferric ions (Fe III ) coating to boost particle/cell adhesion. Specifically, (a) depicts the acid extraction of SECs from unprocessed pollen, followed by coated by TA-Fe III networks. In part (b), the diagram contrasts particle/cell interaction before and after the application of the TA-Fe III coating, elucidating the adhesion enhancement post-coating. • Tannic acid-ferric ions (TA-Fe III ) networks were utilized to coat SECs. • TA-Fe III coating is distinguished by its exceptional speed and efficiency. • TA@SECs exhibit improved cell adhesion properties. Sporopollenin exine capsules (SECs), extracted from plant pollen grains, are becoming increasingly popular as natural microcapsules for a broad spectrum of bio-composite applications due to their plentiful supply, resilience to chemicals and physical stress, unique species-specific designs, exceptional consistency in structure, and significant internal volume. However, SECs have a relatively bioinert interface hindering their application in biomaterials. Thus, surface modification is an efficient strategy to convert SECs into biocompatible materials better for biological applications. Previous approaches predominantly depend on labor-intensive, multi-stage procedures that are time-consuming. Herein, we report an ultrafast, one-step, and effective modification strategy to render SECs biocompatibility by coating them with ferric ions and tannic acids, which endow them with a better cell adhesion property. In summary, our results show that this ultrafast and one-step biocompatibility strategy enhances the functional characteristics of SECs and holds wide-ranging implications for bio-composite applications. .

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Publication Details

Journal
Materials & Design
Published
2024-10-20
DOI
https://doi.org/10.1016/j.matdes.2024.113390
Citations
3
Primary Topic
Plant Reproductive Biology
Type
article
Field-Weighted Citation Impact
0.70
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article

Ultrafast and one-step coating sporopollenin exine capsules with metal-phenolic networks for bio-composite applications

Dengxian Wu, Qing Jiang, Zhihong H. Xu, Sheng Zhou et al.
3 citations
Materials & Design
Plant Reproductive Biology
0.70
article

Ultrafast and one-step coating sporopollenin exine capsules with metal-phenolic networks for bio-composite applications

Dengxian Wu, Qing Jiang, Zhihong H. Xu, Sheng Zhou, Guanjie Zhou
article en
3 citations

Abstract

A schematic representation illustrates the process of extracting sporopollenin exine capsules (SECs) and their subsequent surface enhancement through tannic acids (TA) and ferric ions (Fe III ) coating to boost particle/cell adhesion. Specifically, (a) depicts the acid extraction of SECs from unprocessed pollen, followed by coated by TA-Fe III networks. In part (b), the diagram contrasts particle/cell interaction before and after the application of the TA-Fe III coating, elucidating the adhesion enhancement post-coating. • Tannic acid-ferric ions (TA-Fe III ) networks were utilized to coat SECs. • TA-Fe III coating is distinguished by its exceptional speed and efficiency. • TA@SECs exhibit improved cell adhesion properties. Sporopollenin exine capsules (SECs), extracted from plant pollen grains, are becoming increasingly popular as natural microcapsules for a broad spectrum of bio-composite applications due to their plentiful supply, resilience to chemicals and physical stress, unique species-specific designs, exceptional consistency in structure, and significant internal volume. However, SECs have a relatively bioinert interface hindering their application in biomaterials. Thus, surface modification is an efficient strategy to convert SECs into biocompatible materials better for biological applications. Previous approaches predominantly depend on labor-intensive, multi-stage procedures that are time-consuming. Herein, we report an ultrafast, one-step, and effective modification strategy to render SECs biocompatibility by coating them with ferric ions and tannic acids, which endow them with a better cell adhesion property. In summary, our results show that this ultrafast and one-step biocompatibility strategy enhances the functional characteristics of SECs and holds wide-ranging implications for bio-composite applications. .

Materials & DesignVol. 247
National Clinical Research Center for Digestive Diseases (CN), Nanjing Drum Tower Hospital (CN), Nanjing University (CN)
Openalex Percentile: Top 29%
Plant Reproductive Biology
0.70
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