外加电场极化内皮萌芽的启动和生长

IF 3.1 3区 生物学 Q2 BIOTECHNOLOGY & APPLIED MICROBIOLOGY
Anyesha Sarkar, Shanta M. Messerli, Md Moin Uddin Talukder, M. Messerli
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引用次数: 0

摘要

治疗性电场(EF)被应用于表皮,以加速慢性表皮伤口的愈合并促进皮肤移植。虽然研究强调了解电场在极化表皮细胞迁移中的作用,但还没有报告描述电场对底层血管极化的影响。我们探讨了 EFs 对内皮芽(功能性血管的前体)生长的影响。我们发现,受伤表皮附近同等强度的直流环流可极化内皮萌芽的启动、生长和转向阳极。虽然直流电极化了萌芽,但并没有改变初级萌芽或分支形成的频率。单向电脉冲也会根据其时间平均 EF 幅值极化萌芽。萌芽极化与电驱动水流(电渗)的方向相反,与压力驱动水流诱导的萌芽极化方向一致。这些结果支持 EF 在软组织愈合和组织工程中控制新生血管方向的作用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Applied Electric Fields Polarize Initiation and Growth of Endothelial Sprouts
Therapeutic electric fields (EFs) are applied to the epidermis to accelerate the healing of chronic epidermal wounds and promote skin transplantation. While research has emphasized understanding the role of EFs in polarizing the migration of superficial epidermal cells, there are no reports describing the effect of EFs on polarization of the underlying vasculature. We explored the effects of EFs on the growth of endothelial sprouts, precursors to functional blood vessels. We discovered that DC EFs of the same magnitude near wounded epidermis polarize initiation, growth, and turning of endothelial sprouts toward the anode. While EFs polarize sprouts, they do not change the frequency of primary sprout or branch formation. Unidirectional electrical pulses also polarize sprouts based on their time-averaged EF magnitude. Sprout polarization occurs antiparallel to the direction of electrically driven water flow (electro-osmosis) and is consistent with the direction of sprout polarization induced by pressure-driven flow. These results support the role of EFs in controlling the direction of neovascularization during the healing of soft tissues and tissue engineering.
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来源期刊
CiteScore
7.50
自引率
3.00%
发文量
97
审稿时长
4-8 weeks
期刊介绍: Journal of Tissue Engineering and Regenerative Medicine publishes rapidly and rigorously peer-reviewed research papers, reviews, clinical case reports, perspectives, and short communications on topics relevant to the development of therapeutic approaches which combine stem or progenitor cells, biomaterials and scaffolds, growth factors and other bioactive agents, and their respective constructs. All papers should deal with research that has a direct or potential impact on the development of novel clinical approaches for the regeneration or repair of tissues and organs. The journal is multidisciplinary, covering the combination of the principles of life sciences and engineering in efforts to advance medicine and clinical strategies. The journal focuses on the use of cells, materials, and biochemical/mechanical factors in the development of biological functional substitutes that restore, maintain, or improve tissue or organ function. The journal publishes research on any tissue or organ and covers all key aspects of the field, including the development of new biomaterials and processing of scaffolds; the use of different types of cells (mainly stem and progenitor cells) and their culture in specific bioreactors; studies in relevant animal models; and clinical trials in human patients performed under strict regulatory and ethical frameworks. Manuscripts describing the use of advanced methods for the characterization of engineered tissues are also of special interest to the journal readership.
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