胶质增生
脊髓
生物
伤口愈合
神经科学
细胞生物学
血管生成
脊髓损伤
细胞
电池类型
医学
再生(生物学)
免疫学
癌症研究
遗传学
作者
Lindsay M. Milich,James S. Choi,Christine B. Ryan,Stephanie L. Yahn,Pantelis Tsoulfas,Jae K. Lee
出处
期刊:
[Cold Spring Harbor Laboratory]
日期:2020-05-14
被引量:9
标识
DOI:10.1101/2020.05.13.094854
摘要
Abstract The wound healing process that occurs after spinal cord injury is critical for maintaining tissue homeostasis and limiting tissue damage, but eventually results in a scar-like environment that is not conducive to regeneration and repair. A better understanding of this dichotomy is critical to developing effective therapeutics that target the appropriate pathobiology, but a major challenge has been the large cellular heterogeneity that results in immensely complex cellular interactions. In this study, we used single cell RNA sequencing to assess virtually all cell types that comprise the mouse spinal cord injury site. In addition to discovering novel subpopulations, we used expression values of receptor-ligand pairs to identify signaling pathways that potentially drive specific cellular interactions during angiogenesis, gliosis, and fibrosis. Our dataset is a valuable resource that provides novel mechanistic insight into the pathobiology of not only spinal cord injury, but also other traumatic disorders of the CNS.
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