Leptin receptor signaling mediates the distinct tendon–bone interface reconstruction in rotator cuff tears and osteoporosis-comorbid rotator cuff tears

Background The intact tendon-bone interface (TBI) consists of four histological layers--tendon, fibrocartilage, calcified fibrocartilage, and bone--that gradually merge into each other, making complete structural restoration after injury challenging. Osteoporosis poses a significant risk for rotator...

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Published inStem cell research & therapy Vol. 16; no. 1; pp. 1 - 14
Main Authors Zhu, Dongxu, Zhu, Xinrui, Zhang, Yingze, Huang, Xiaohong
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LanguageEnglish
Published London BioMed Central Ltd 22.08.2025
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Abstract Background The intact tendon-bone interface (TBI) consists of four histological layers--tendon, fibrocartilage, calcified fibrocartilage, and bone--that gradually merge into each other, making complete structural restoration after injury challenging. Osteoporosis poses a significant risk for rotator cuff tears (RCTs) and re-tears after arthroscopic rotator cuff repair (ARCR). Activating Leptin receptor (Lepr) mediated Stat3 signaling transduction facilitates the transcription of Runx2 and Sox9, respectively, and promotes osteogenesis and chondrogenesis. Materials and methods Sixty-five female Sprague Dawley rats were used. Animal models--ovariectomy (OVX) and rotator cuff tear and repair (RC)--were employed to simulate typical tendon-bone healing and TBI reconstruction under deficient bone-forming capability. And, grip strength, transcriptome, ELISA, histochemistry, and qPCR were performed to reveal the distinct functional recovery between RC and OVX + RC rats, as well as pathophysiologic exhibition in the TBI at 2-week and 8-week. Results RC rats exhibited better functional recovery during the proliferative phase of TBI reconstruction, i.e., 2-week, compared to OVX + RC rats, while both RC and OVX + RC rats showed a lower grip strength in the upper limbs during the remodeling phase, i.e., 8-week. In RCTs, where adipogenesis was suppressed in RCT healing, the osteoblast-derived Leptin (Lep) and Angiopoietin like 4 (Angptl4), the Lepr ligands, facilitate osteogenesis and chondrogenesis, resulting in an obvious mineralized band in the reconstructed TBI and a transit cartilage band during the proliferative phase in RC rats. In osteoporosis-comorbid RCTs, where osteogenesis was suppressed while adipogenesis was activated, the adipocyte-derived Lep and Angptl4, particularly Angptl4, facilitated Stat3 phosphorylation and nucleus transfer, Sox9 transcription, and chondrogenesis, which was observed in OVX + RC rats and led to excessive cartilage regeneration. Conclusions This study demonstrated the role of Lep and Angptl4 in TBI reconstruction, via activating Lepr-mediated Stat3-Sox9 and Stat3-Runx2 signaling pathways, differentially regulating osteogenesis and chondrogenesis, and leading to the distinct clinical outcomes post-ARCR in RCTs and osteoporosis-comorbid RCTs. This study provides fundamental support for increasing Angptl4 in situ for chronogenesis in RCTs and lowering Angptl4 to Lep ratio for osteogenesis in RCTs with osteoporosis comorbidity. Keywords: Rotator cuff tears, Osteoporosis, Tendon-bone interface, Leptin receptor, Leptin, Angiopoietin like 4
AbstractList The intact tendon-bone interface (TBI) consists of four histological layers--tendon, fibrocartilage, calcified fibrocartilage, and bone--that gradually merge into each other, making complete structural restoration after injury challenging. Osteoporosis poses a significant risk for rotator cuff tears (RCTs) and re-tears after arthroscopic rotator cuff repair (ARCR). Activating Leptin receptor (Lepr) mediated Stat3 signaling transduction facilitates the transcription of Runx2 and Sox9, respectively, and promotes osteogenesis and chondrogenesis. Sixty-five female Sprague Dawley rats were used. Animal models--ovariectomy (OVX) and rotator cuff tear and repair (RC)--were employed to simulate typical tendon-bone healing and TBI reconstruction under deficient bone-forming capability. And, grip strength, transcriptome, ELISA, histochemistry, and qPCR were performed to reveal the distinct functional recovery between RC and OVX + RC rats, as well as pathophysiologic exhibition in the TBI at 2-week and 8-week. RC rats exhibited better functional recovery during the proliferative phase of TBI reconstruction, i.e., 2-week, compared to OVX + RC rats, while both RC and OVX + RC rats showed a lower grip strength in the upper limbs during the remodeling phase, i.e., 8-week. In RCTs, where adipogenesis was suppressed in RCT healing, the osteoblast-derived Leptin (Lep) and Angiopoietin like 4 (Angptl4), the Lepr ligands, facilitate osteogenesis and chondrogenesis, resulting in an obvious mineralized band in the reconstructed TBI and a transit cartilage band during the proliferative phase in RC rats. In osteoporosis-comorbid RCTs, where osteogenesis was suppressed while adipogenesis was activated, the adipocyte-derived Lep and Angptl4, particularly Angptl4, facilitated Stat3 phosphorylation and nucleus transfer, Sox9 transcription, and chondrogenesis, which was observed in OVX + RC rats and led to excessive cartilage regeneration. This study demonstrated the role of Lep and Angptl4 in TBI reconstruction, via activating Lepr-mediated Stat3-Sox9 and Stat3-Runx2 signaling pathways, differentially regulating osteogenesis and chondrogenesis, and leading to the distinct clinical outcomes post-ARCR in RCTs and osteoporosis-comorbid RCTs. This study provides fundamental support for increasing Angptl4 in situ for chronogenesis in RCTs and lowering Angptl4 to Lep ratio for osteogenesis in RCTs with osteoporosis comorbidity.
Background The intact tendon-bone interface (TBI) consists of four histological layers--tendon, fibrocartilage, calcified fibrocartilage, and bone--that gradually merge into each other, making complete structural restoration after injury challenging. Osteoporosis poses a significant risk for rotator cuff tears (RCTs) and re-tears after arthroscopic rotator cuff repair (ARCR). Activating Leptin receptor (Lepr) mediated Stat3 signaling transduction facilitates the transcription of Runx2 and Sox9, respectively, and promotes osteogenesis and chondrogenesis. Materials and methods Sixty-five female Sprague Dawley rats were used. Animal models--ovariectomy (OVX) and rotator cuff tear and repair (RC)--were employed to simulate typical tendon-bone healing and TBI reconstruction under deficient bone-forming capability. And, grip strength, transcriptome, ELISA, histochemistry, and qPCR were performed to reveal the distinct functional recovery between RC and OVX + RC rats, as well as pathophysiologic exhibition in the TBI at 2-week and 8-week. Results RC rats exhibited better functional recovery during the proliferative phase of TBI reconstruction, i.e., 2-week, compared to OVX + RC rats, while both RC and OVX + RC rats showed a lower grip strength in the upper limbs during the remodeling phase, i.e., 8-week. In RCTs, where adipogenesis was suppressed in RCT healing, the osteoblast-derived Leptin (Lep) and Angiopoietin like 4 (Angptl4), the Lepr ligands, facilitate osteogenesis and chondrogenesis, resulting in an obvious mineralized band in the reconstructed TBI and a transit cartilage band during the proliferative phase in RC rats. In osteoporosis-comorbid RCTs, where osteogenesis was suppressed while adipogenesis was activated, the adipocyte-derived Lep and Angptl4, particularly Angptl4, facilitated Stat3 phosphorylation and nucleus transfer, Sox9 transcription, and chondrogenesis, which was observed in OVX + RC rats and led to excessive cartilage regeneration. Conclusions This study demonstrated the role of Lep and Angptl4 in TBI reconstruction, via activating Lepr-mediated Stat3-Sox9 and Stat3-Runx2 signaling pathways, differentially regulating osteogenesis and chondrogenesis, and leading to the distinct clinical outcomes post-ARCR in RCTs and osteoporosis-comorbid RCTs. This study provides fundamental support for increasing Angptl4 in situ for chronogenesis in RCTs and lowering Angptl4 to Lep ratio for osteogenesis in RCTs with osteoporosis comorbidity. Keywords: Rotator cuff tears, Osteoporosis, Tendon-bone interface, Leptin receptor, Leptin, Angiopoietin like 4
Abstract Background The intact tendon–bone interface (TBI) consists of four histological layers—tendon, fibrocartilage, calcified fibrocartilage, and bone—that gradually merge into each other, making complete structural restoration after injury challenging. Osteoporosis poses a significant risk for rotator cuff tears (RCTs) and re-tears after arthroscopic rotator cuff repair (ARCR). Activating Leptin receptor (Lepr) mediated Stat3 signaling transduction facilitates the transcription of Runx2 and Sox9, respectively, and promotes osteogenesis and chondrogenesis. Materials and methods Sixty-five female Sprague Dawley rats were used. Animal models—ovariectomy (OVX) and rotator cuff tear and repair (RC)—were employed to simulate typical tendon–bone healing and TBI reconstruction under deficient bone-forming capability. And, grip strength, transcriptome, ELISA, histochemistry, and qPCR were performed to reveal the distinct functional recovery between RC and OVX + RC rats, as well as pathophysiologic exhibition in the TBI at 2-week and 8-week. Results RC rats exhibited better functional recovery during the proliferative phase of TBI reconstruction, i.e., 2-week, compared to OVX + RC rats, while both RC and OVX + RC rats showed a lower grip strength in the upper limbs during the remodeling phase, i.e., 8-week. In RCTs, where adipogenesis was suppressed in RCT healing, the osteoblast-derived Leptin (Lep) and Angiopoietin like 4 (Angptl4), the Lepr ligands, facilitate osteogenesis and chondrogenesis, resulting in an obvious mineralized band in the reconstructed TBI and a transit cartilage band during the proliferative phase in RC rats. In osteoporosis-comorbid RCTs, where osteogenesis was suppressed while adipogenesis was activated, the adipocyte-derived Lep and Angptl4, particularly Angptl4, facilitated Stat3 phosphorylation and nucleus transfer, Sox9 transcription, and chondrogenesis, which was observed in OVX + RC rats and led to excessive cartilage regeneration. Conclusions This study demonstrated the role of Lep and Angptl4 in TBI reconstruction, via activating Lepr-mediated Stat3–Sox9 and Stat3–Runx2 signaling pathways, differentially regulating osteogenesis and chondrogenesis, and leading to the distinct clinical outcomes post-ARCR in RCTs and osteoporosis-comorbid RCTs. This study provides fundamental support for increasing Angptl4 in situ for chronogenesis in RCTs and lowering Angptl4 to Lep ratio for osteogenesis in RCTs with osteoporosis comorbidity.
ArticleNumber 449
Audience Academic
Author Zhu, Xinrui
Zhu, Dongxu
Zhang, Yingze
Huang, Xiaohong
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– ident: 4586_CR20
  doi: 10.1096/fj.202100691R
– ident: 4586_CR43
  doi: 10.1096/fj.10.162230
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Snippet Background The intact tendon-bone interface (TBI) consists of four histological layers--tendon, fibrocartilage, calcified fibrocartilage, and bone--that...
The intact tendon-bone interface (TBI) consists of four histological layers--tendon, fibrocartilage, calcified fibrocartilage, and bone--that gradually merge...
Abstract Background The intact tendon–bone interface (TBI) consists of four histological layers—tendon, fibrocartilage, calcified fibrocartilage, and bone—that...
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SubjectTerms Analysis
Angiopoietin like 4
Cellular signal transduction
Comorbidity
Ethylenediaminetetraacetic acid
Leptin
Leptin receptor
Orthopedic surgery
Osteoporosis
Rotator cuff tears
Tendon–bone interface
Title Leptin receptor signaling mediates the distinct tendon–bone interface reconstruction in rotator cuff tears and osteoporosis-comorbid rotator cuff tears
URI https://pubmed.ncbi.nlm.nih.gov/PMC12374385
https://doaj.org/article/6338427e08024070a403be15f9dd6d90
Volume 16
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