Robust tetra‐armed poly (ethylene glycol)‐based hydrogel as tissue bioadhesive for the efficient repair of meniscus tears

Repair and preservation of the injured meniscus has become paramount in clinical practice. However, the complexities of various clinic stitching techniques for meniscus repair pose challenges for grassroots doctors. Hence, there is a compelling interest in innovative therapeutic strategies such as bioadhesives. An ideal bioadhesive must cure quickly in aqueous and blood environments, bind strongly, endure arthroscopic washing pressures, and degrade appropriately for tissue regeneration. Here, we present a tetra-poly (ethylene glycol) (PEG)-based hydrogel bioadhesive, boasting high biocompatibility, ultrafast gelation, facile injectable operation, and favorable mechanical strength. In view of the synergistic effects of chemical anchor and physical chain entanglement to tightly bind the meniscus, a seamless interface was formed between the surrounding meniscal tissues and hydrogels, enabling the longitudinal tear of the meniscus fused in situ to withstand large tensile force with the adhesive strength of 541.5 ± 31.4 kPa and arthroscopic washout resistance of 29.4 kPa. Superior to existing commercial adhesives, ours allows sutureless application and arthroscopic assistance, without requiring specialized clinical skills. This research is expected to significantly impact our understanding of meniscal healing and ultimately promote a simpler process for achieving functional and structural recovery in torn menisci.

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Publication Details

Journal
MedComm
Published
2024-10-24
DOI
https://doi.org/10.1002/mco2.738
Citations
6
Primary Topic
Knee injuries and reconstruction techniques
Type
article
Field-Weighted Citation Impact
3.44

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article

Robust tetra‐armed poly (ethylene glycol)‐based hydrogel as tissue bioadhesive for the efficient repair of meniscus tears

Yourong Chen, Hufei Wang, Jiying Zhang, Jing Ye et al.
6 citations
MedComm
Knee injuries and reconstruction techniques
3.44
article

Robust tetra‐armed poly (ethylene glycol)‐based hydrogel as tissue bioadhesive for the efficient repair of meniscus tears

Yourong Chen, Hufei Wang, Jiying Zhang, Jing Ye, Ronghui Deng, Bing‐Bing Xu, Jia‐Kuo Yu, Xinjie Wang, Shitang Song
article en
6 citations

Abstract

Repair and preservation of the injured meniscus has become paramount in clinical practice. However, the complexities of various clinic stitching techniques for meniscus repair pose challenges for grassroots doctors. Hence, there is a compelling interest in innovative therapeutic strategies such as bioadhesives. An ideal bioadhesive must cure quickly in aqueous and blood environments, bind strongly, endure arthroscopic washing pressures, and degrade appropriately for tissue regeneration. Here, we present a tetra-poly (ethylene glycol) (PEG)-based hydrogel bioadhesive, boasting high biocompatibility, ultrafast gelation, facile injectable operation, and favorable mechanical strength. In view of the synergistic effects of chemical anchor and physical chain entanglement to tightly bind the meniscus, a seamless interface was formed between the surrounding meniscal tissues and hydrogels, enabling the longitudinal tear of the meniscus fused in situ to withstand large tensile force with the adhesive strength of 541.5 ± 31.4 kPa and arthroscopic washout resistance of 29.4 kPa. Superior to existing commercial adhesives, ours allows sutureless application and arthroscopic assistance, without requiring specialized clinical skills. This research is expected to significantly impact our understanding of meniscal healing and ultimately promote a simpler process for achieving functional and structural recovery in torn menisci.

MedCommVol. 5(11)
Chinese Academy of Sciences (CN), Peking University (CN), Beijing National Laboratory for Molecular Sciences (CN), Ten Chen Hospital (TW), Peking University Third Hospital (CN), Beijing Tsinghua Chang Gung Hospital (CN), Institute of Chemistry (CN), University of Chinese Academy of Sciences (CN), Tsinghua University (CN)
National Natural Science Foundation of China, Youth Innovation Promotion Association of the Chinese Academy of Sciences
Life below water
Openalex Percentile: Top 7%
Knee injuries and reconstruction techniques
3.44
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