Membrane-Mediated Nanoassembly of Lysozyme–Tannic Acid for Crystallization-Suppressed Nobiletin Delivery: Enhanced Cellular Uptake and Mucus Penetration

To enhance the bioavailability of hydrophobic nobiletin (NOB), this study constructed nanoparticles (LT-NOB) via self-assembly of lysozyme and tannic acid (TA). The multivalent weak interaction network between TA and lysozyme effectively encapsulated amorphous NOB, inhibiting crystallization. The optimized LT-NOB exhibited a size of 212 nm, high encapsulation efficiency (89.5%), and drug loading (47.25%). Cellular uptake was significantly improved, primarily through macropinocytosis, followed by lysosomal escape and endoplasmic reticulum targeting. In Caco-2 and co-culture models, LT-NOB enhanced mucosal permeation by 75% and 50%, respectively, compared to free NOB. This work elucidates a robust strategy for stabilizing amorphous drugs and promoting their intestinal absorption, providing a foundation for advanced nanodrug delivery.

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Publication Details

Journal
Biomolecules
Published
2026-02-03
DOI
https://doi.org/10.3390/biom16020242
Primary Topic
Bioactive Compounds in Plants
Type
article
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article

Membrane-Mediated Nanoassembly of Lysozyme–Tannic Acid for Crystallization-Suppressed Nobiletin Delivery: Enhanced Cellular Uptake and Mucus Penetration

Hongshan Liang, Hongyu Liang, Bin Zhou, Qiuyue Hou et al.
Biomolecules
Bioactive Compounds in Plants
article

Membrane-Mediated Nanoassembly of Lysozyme–Tannic Acid for Crystallization-Suppressed Nobiletin Delivery: Enhanced Cellular Uptake and Mucus Penetration

Hongshan Liang, Hongyu Liang, Bin Zhou, Qiuyue Hou, Jiahao Xing, Bin Li, Luyang Bao
article en

Abstract

To enhance the bioavailability of hydrophobic nobiletin (NOB), this study constructed nanoparticles (LT-NOB) via self-assembly of lysozyme and tannic acid (TA). The multivalent weak interaction network between TA and lysozyme effectively encapsulated amorphous NOB, inhibiting crystallization. The optimized LT-NOB exhibited a size of 212 nm, high encapsulation efficiency (89.5%), and drug loading (47.25%). Cellular uptake was significantly improved, primarily through macropinocytosis, followed by lysosomal escape and endoplasmic reticulum targeting. In Caco-2 and co-culture models, LT-NOB enhanced mucosal permeation by 75% and 50%, respectively, compared to free NOB. This work elucidates a robust strategy for stabilizing amorphous drugs and promoting their intestinal absorption, providing a foundation for advanced nanodrug delivery.

BiomoleculesVol. 16(2)
Huazhong Agricultural University (CN), Center of Hubei Cooperative Innovation for Emissions Trading System (CN), Hubei University of Technology (CN)
Clean water and sanitation
Openalex Percentile: Top 69%
Bioactive Compounds in Plants
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