Exosomes derived from mmu_circ_0000250-modified adipose-derived mesenchymal stem cells promote wound healing in diabetic mice by inducing miR-128-3p/SIRT1-mediated autophagy. 2020

Rongfeng Shi, and Yinpeng Jin, and Weiwei Hu, and Weishuai Lian, and Chuanwu Cao, and Shilong Han, and Suming Zhao, and Hongxin Yuan, and Xiaohu Yang, and Jiahai Shi, and Hui Zhao
Department of Interventional Radiology, Affiliated Hospital of Nantong University, Nantong, People's Republic of China.

More and more evidence advises that circular RNAs (circRNAs) function critically in regulating different disease microenvironments. Our previous study found that autotransplantation of adipose-derived mesenchymal stem cells (ADSCs) promotes diabetes wound healing. Exosomes derived in ADSCs play an important regulatory role. This study aimed to characterize if mmu_circ_0000250 played a role in ADSC-exosome-mediated full-thickness skin wound repair in diabetic rats. Endothelial progenitor cells (EPCs) were selected to study the therapeutic mechanism of exosomes in high-glucose (HG)-induced cell damage and dysfunction. Analysis and luciferase reporter assay were utilized to explore the interaction among mmu_circ_0000250, miRNA (miR)-128-3p, and sirtuin (SIRT)1. The diabetic rats were used to confirm the therapeutic effect of mmu_circ_0000250 against exosome-mediated wound healing. Exosomes containing a high concentration of mmu_circ_0000250 had a greater therapeutic effect on restoration of the function of EPCs by promotion autophagy activation under HG conditions. Expression of mmu_circ_0000250 promoted SIRT1 expression by miR-128-3p adsorption, which was confirmed via luciferase reporter assay and bioinformatics analysis. In vivo, exosomes containing a high concentration of mmu_circ_0000250 had a more therapeutic effect on wound healing when compared with wild-type exosomes from ADSCs. Immunohistochemistry and immunofluorescence detection showed that mmu_circ_0000250 increased angiopoiesis with exosome treatment in wound skin and suppressed apoptosis by autophagy activation. In conclusion, we verified that mmu_circ_0000250 enhanced the therapeutic effect of ADSC-exosomes to promote wound healing in diabetes by absorption of miR-128-3p and upregulation of SIRT1. Therefore, these findings advocate targeting the mmu_circ_0000250/miR-128-3p/SIRT1 axis as a candidate therapeutic option for diabetic ulcers.

UI MeSH Term Description Entries
D003921 Diabetes Mellitus, Experimental Diabetes mellitus induced experimentally by administration of various diabetogenic agents or by PANCREATECTOMY. Alloxan Diabetes,Streptozocin Diabetes,Streptozotocin Diabetes,Experimental Diabetes Mellitus,Diabete, Streptozocin,Diabetes, Alloxan,Diabetes, Streptozocin,Diabetes, Streptozotocin,Streptozocin Diabete
D004195 Disease Models, Animal Naturally-occurring or experimentally-induced animal diseases with pathological processes analogous to human diseases. Animal Disease Model,Animal Disease Models,Disease Model, Animal
D006801 Humans Members of the species Homo sapiens. Homo sapiens,Man (Taxonomy),Human,Man, Modern,Modern Man
D000079962 RNA, Circular RNA molecules in which the 3' and 5' ends are covalently joined to form a closed continuous loop. They are resistant to digestion by EXORIBONUCLEASES. Circular Intronic RNA,Circular RNA,Circular RNAs,Closed Circular RNA,ciRNA,circRNA,circRNAs,Circular RNA, Closed,Intronic RNA, Circular,RNA, Circular Intronic,RNA, Closed Circular,RNAs, Circular
D000818 Animals Unicellular or multicellular, heterotrophic organisms, that have sensation and the power of voluntary movement. Under the older five kingdom paradigm, Animalia was one of the kingdoms. Under the modern three domain model, Animalia represents one of the many groups in the domain EUKARYOTA. Animal,Metazoa,Animalia
D001343 Autophagy The segregation and degradation of various cytoplasmic constituents via engulfment by MULTIVESICULAR BODIES; VACUOLES; or AUTOPHAGOSOMES and their digestion by LYSOSOMES. It plays an important role in BIOLOGICAL METAMORPHOSIS and in the removal of bone by OSTEOCLASTS. Defective autophagy is associated with various diseases, including NEURODEGENERATIVE DISEASES and cancer. Autophagocytosis,ER-Phagy,Lipophagy,Nucleophagy,Reticulophagy,Ribophagy,Autophagy, Cellular,Cellular Autophagy,ER Phagy
D014456 Ulcer A lesion on the surface of the skin or a mucous surface, produced by the sloughing of inflammatory necrotic tissue. Ulcers
D014945 Wound Healing Restoration of integrity to traumatized tissue. Healing, Wound,Healings, Wound,Wound Healings
D016688 Mice, Inbred NOD A strain of non-obese diabetic mice developed in Japan that has been widely studied as a model for T-cell-dependent autoimmune insulin-dependent diabetes mellitus in which insulitis is a major histopathologic feature, and in which genetic susceptibility is strongly MHC-linked. Non-Obese Diabetic Mice,Mice, NOD,Mouse, Inbred NOD,Mouse, NOD,Non-Obese Diabetic Mouse,Nonobese Diabetic Mice,Nonobese Diabetic Mouse,Diabetic Mice, Non-Obese,Diabetic Mice, Nonobese,Diabetic Mouse, Non-Obese,Diabetic Mouse, Nonobese,Inbred NOD Mice,Inbred NOD Mouse,Mice, Non-Obese Diabetic,Mice, Nonobese Diabetic,Mouse, Non-Obese Diabetic,Mouse, Nonobese Diabetic,NOD Mice,NOD Mice, Inbred,NOD Mouse,NOD Mouse, Inbred,Non Obese Diabetic Mice,Non Obese Diabetic Mouse
D045164 Mesenchymal Stem Cell Transplantation Transfer of MESENCHYMAL STEM CELLS between individuals within the same species (TRANSPLANTATION, HOMOLOGOUS) or transfer within the same individual (TRANSPLANTATION, AUTOLOGOUS). Stem Cell Transplantation, Mesenchymal,Transplantation, Mesenchymal Stem Cell

Related Publications

Rongfeng Shi, and Yinpeng Jin, and Weiwei Hu, and Weishuai Lian, and Chuanwu Cao, and Shilong Han, and Suming Zhao, and Hongxin Yuan, and Xiaohu Yang, and Jiahai Shi, and Hui Zhao
January 2024, Burns & trauma,
Rongfeng Shi, and Yinpeng Jin, and Weiwei Hu, and Weishuai Lian, and Chuanwu Cao, and Shilong Han, and Suming Zhao, and Hongxin Yuan, and Xiaohu Yang, and Jiahai Shi, and Hui Zhao
December 2023, Acta histochemica,
Rongfeng Shi, and Yinpeng Jin, and Weiwei Hu, and Weishuai Lian, and Chuanwu Cao, and Shilong Han, and Suming Zhao, and Hongxin Yuan, and Xiaohu Yang, and Jiahai Shi, and Hui Zhao
August 2022, Cells,
Rongfeng Shi, and Yinpeng Jin, and Weiwei Hu, and Weishuai Lian, and Chuanwu Cao, and Shilong Han, and Suming Zhao, and Hongxin Yuan, and Xiaohu Yang, and Jiahai Shi, and Hui Zhao
May 2023, Plastic and reconstructive surgery,
Rongfeng Shi, and Yinpeng Jin, and Weiwei Hu, and Weishuai Lian, and Chuanwu Cao, and Shilong Han, and Suming Zhao, and Hongxin Yuan, and Xiaohu Yang, and Jiahai Shi, and Hui Zhao
June 2024, Cellular signalling,
Rongfeng Shi, and Yinpeng Jin, and Weiwei Hu, and Weishuai Lian, and Chuanwu Cao, and Shilong Han, and Suming Zhao, and Hongxin Yuan, and Xiaohu Yang, and Jiahai Shi, and Hui Zhao
April 2024, Current stem cell research & therapy,
Rongfeng Shi, and Yinpeng Jin, and Weiwei Hu, and Weishuai Lian, and Chuanwu Cao, and Shilong Han, and Suming Zhao, and Hongxin Yuan, and Xiaohu Yang, and Jiahai Shi, and Hui Zhao
May 2023, World journal of stem cells,
Rongfeng Shi, and Yinpeng Jin, and Weiwei Hu, and Weishuai Lian, and Chuanwu Cao, and Shilong Han, and Suming Zhao, and Hongxin Yuan, and Xiaohu Yang, and Jiahai Shi, and Hui Zhao
March 2021, Molecular therapy. Nucleic acids,
Rongfeng Shi, and Yinpeng Jin, and Weiwei Hu, and Weishuai Lian, and Chuanwu Cao, and Shilong Han, and Suming Zhao, and Hongxin Yuan, and Xiaohu Yang, and Jiahai Shi, and Hui Zhao
December 2023, Tissue & cell,
Rongfeng Shi, and Yinpeng Jin, and Weiwei Hu, and Weishuai Lian, and Chuanwu Cao, and Shilong Han, and Suming Zhao, and Hongxin Yuan, and Xiaohu Yang, and Jiahai Shi, and Hui Zhao
May 2022, Zhonghua shao shang yu chuang mian xiu fu za zhi,
Copied contents to your clipboard!