<p>CD29/CD44/CD105-modified immunomagnetic liposomes (CD29/CD44/CD105-IMLs) were developed to isolate bone marrow mesenchymal stem cells (BMSCs) with distinct phenotypes. A key BMSC phenotype capable of alleviating chronic cyclosporine-induced nephropathy was identified through in vivo experiments in mice, demonstrating its potential as an effective adjunctive therapy for mitigating renal fibrosis-induced injury. Four weeks post-transplantation, mice receiving CD29<sup>+</sup>, CD44<sup>+</sup>, and CD105<sup>+</sup> BMSC groups exhibited improved overall health compared to the control group. Western blot analysis of autophagy-related proteins LC3-II and P62 revealed significantly lower expression levels in the CD44<sup>+</sup> BMSC group compared to the CD29<sup>+</sup> and CD105<sup>+</sup> BMSC groups. In vivo imaging further demonstrated enhanced chemotactic ability of CD44<sup>+</sup> BMSCs in mice with chronic cyclosporine-induced nephropathy at various time points. These findings suggest that transplantation of CD29<sup>+</sup>/CD44<sup>+</sup>/CD105<sup>+</sup> BMSCs can delay the progression of renal fibrosis in mice with cyclosporine-induced chronic kidney disease. Notably, CD44<sup>+</sup> BMSCs exhibited superior efficacy in alleviating renal fibrosis compared to CD29<sup>+</sup> and CD105<sup>+</sup> BMSC groups.</p>

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Nano-magnetic sorted CD29 +/CD44 +/CD105 + Bone MSCs alleviate cyclosporine nephrotoxicity and renal fibrosis

  • Pingbao Zhang,
  • Cuidi Xu,
  • Xinhao Niu,
  • Yongshen Luo,
  • Jingjing Guo,
  • Xiaoqing Xu,
  • Hao Zen,
  • Lifei Liang,
  • Xiaotian Yan,
  • Jiahen Wu,
  • Ruiming Rong

摘要

CD29/CD44/CD105-modified immunomagnetic liposomes (CD29/CD44/CD105-IMLs) were developed to isolate bone marrow mesenchymal stem cells (BMSCs) with distinct phenotypes. A key BMSC phenotype capable of alleviating chronic cyclosporine-induced nephropathy was identified through in vivo experiments in mice, demonstrating its potential as an effective adjunctive therapy for mitigating renal fibrosis-induced injury. Four weeks post-transplantation, mice receiving CD29+, CD44+, and CD105+ BMSC groups exhibited improved overall health compared to the control group. Western blot analysis of autophagy-related proteins LC3-II and P62 revealed significantly lower expression levels in the CD44+ BMSC group compared to the CD29+ and CD105+ BMSC groups. In vivo imaging further demonstrated enhanced chemotactic ability of CD44+ BMSCs in mice with chronic cyclosporine-induced nephropathy at various time points. These findings suggest that transplantation of CD29+/CD44+/CD105+ BMSCs can delay the progression of renal fibrosis in mice with cyclosporine-induced chronic kidney disease. Notably, CD44+ BMSCs exhibited superior efficacy in alleviating renal fibrosis compared to CD29+ and CD105+ BMSC groups.