Piezoelectric Injectable Anti‐Adhesive Hydrogel to Promote Endogenous Healing of Tendon Injuries

Achilles tendon rupture has become a common sports injury nowadays, but tendon repair is still is a challenge in the clinical practice. Tendon adhesion, which results from exogenous healing, is a crucial problem impairing tendon repair. Meanwhile, insufficient endogenous healing from the tendon stem cells, makes tendon repair even more difficult. Here, a piezoelectric injectable anti-adhesive hydrogel (PE-IAH) is reported, which can simutaneously promote endogenous healing while inhibiting exogenous healing in the tendon repair process. The in vivo study reveals that the PE-IAH can form a physical barrier in situ at the tendon injury site, which reduces the inflammatory response and effectively prevents the tendon from adhering to surrounding tissue. Meanwhile, the piezoelectric short fibers incorporated in the hydrogel can evidently promotes the proliferation and differentiation of tendon stem cells due to piezoelectric effect under ultrasound excitation. Altogethter, the PE-IAH successfully accelerates the endogenous healing of tendon in addition to the anti-adhesion purpose, resulting in remarkably elevated tendon functions (Achilles Functional Index: -15.6 of PE-IAH versus -30.6 of injectable anti-adhesive hydrogel (IAH), Day 14). This study provides a new strategy for advanced healing and functional recovery of Achilles tendon, which is promising to become a potential clinical treatment option.

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Publication Details

Journal
Advanced Materials
Published
2025-07-14
DOI
https://doi.org/10.1002/adma.202501306
Citations
8
Primary Topic
Tendon Structure and Treatment
Type
article
Field-Weighted Citation Impact
13.77

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article

Piezoelectric Injectable Anti‐Adhesive Hydrogel to Promote Endogenous Healing of Tendon Injuries

Aihua Liang, Hongqing Feng, Yuan Bai, Xiao Meng et al.
8 citations
Advanced Materials
Tendon Structure and Treatment
13.77
article

Piezoelectric Injectable Anti‐Adhesive Hydrogel to Promote Endogenous Healing of Tendon Injuries

Aihua Liang, Hongqing Feng, Yuan Bai, Xiao Meng, Yujie Xiong, Ruizeng Luo, Cong Li, Jiaxuan Li, Zhou Li, Ziyang Xu, Zhen Luo
article en
8 citations

Abstract

Achilles tendon rupture has become a common sports injury nowadays, but tendon repair is still is a challenge in the clinical practice. Tendon adhesion, which results from exogenous healing, is a crucial problem impairing tendon repair. Meanwhile, insufficient endogenous healing from the tendon stem cells, makes tendon repair even more difficult. Here, a piezoelectric injectable anti-adhesive hydrogel (PE-IAH) is reported, which can simutaneously promote endogenous healing while inhibiting exogenous healing in the tendon repair process. The in vivo study reveals that the PE-IAH can form a physical barrier in situ at the tendon injury site, which reduces the inflammatory response and effectively prevents the tendon from adhering to surrounding tissue. Meanwhile, the piezoelectric short fibers incorporated in the hydrogel can evidently promotes the proliferation and differentiation of tendon stem cells due to piezoelectric effect under ultrasound excitation. Altogethter, the PE-IAH successfully accelerates the endogenous healing of tendon in addition to the anti-adhesion purpose, resulting in remarkably elevated tendon functions (Achilles Functional Index: -15.6 of PE-IAH versus -30.6 of injectable anti-adhesive hydrogel (IAH), Day 14). This study provides a new strategy for advanced healing and functional recovery of Achilles tendon, which is promising to become a potential clinical treatment option.

Advanced MaterialsVol. 37(40)
Tianjin University (CN), Chinese Academy of Sciences (CN), Chinese Academy of Medical Sciences & Peking Union Medical College (CN), Beijing Institute of Nanoenergy and Nanosystems (CN), China Academy of Chinese Medical Sciences (CN), Beijing Tsinghua Chang Gung Hospital (CN), University of Chinese Academy of Sciences (CN), Tsinghua University (CN)
National Natural Science Foundation of China, Natural Science Foundation of Beijing Municipality, National Key Research and Development Program of China
Good health and well-being
Openalex Percentile: Top 1%
Tendon Structure and Treatment
13.77
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