The Tabulae Paralytica: Multimodal single-cell and spatial atlases of spinal cord injury

M. Skinnider, M. Gautier, Alan Yue Yang Teo, C. Kathe, T. Hutson, Achilleas Laskaratos, Alexandra de Coucy, Nicola Regazzi, V. Aureli, N. James, Bernard L. Schneider, M. Sofroniew, Q. Barraud, J. Bloch, Mark A. Anderson, J. Squair, G. Courtine
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Abstract

Here, we introduce the Tabulae Paralytica—a compilation of four atlases of spinal cord injury (SCI) comprising a single-nucleus transcriptome atlas of half a million cells; a multiome atlas pairing transcriptomic and epigenomic measurements within the same nuclei; and two spatial transcriptomic atlases of the injured spinal cord spanning four spatial and temporal dimensions. We integrated these atlases into a common framework to dissect the molecular logic that governs the responses to injury within the spinal cord. The Tabulae Paralytica exposed new biological principles that dictate the consequences of SCI, including conserved and divergent neuronal responses to injury; the priming of specific neuronal subpopulations to become circuit-reorganizing neurons after injury; an inherent trade-off between neuronal stress responses and the activation of circuit reorganization programs; the necessity of reestablishing a tripartite neuroprotective barrier between immune-privileged and extra-neural environments after SCI; and a catastrophic failure to form this barrier in old mice. We leveraged the Tabulae Paralytica to develop a rejuvenative gene therapy that reestablished this tripartite barrier, and restored the natural recovery of walking after paralysis in old mice. The Tabulae Paralytica provides an unprecedented window into the pathobiology of SCI, while establishing a framework for integrating multimodal, genome-scale measurements in four dimensions to study biology and medicine.
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麻痹斑:脊髓损伤的多模态单细胞和空间图谱
在这里,我们介绍了麻痹表-一个由四个脊髓损伤(SCI)图谱组成的汇编,包括50万个细胞的单核转录组图谱;多组图谱配对转录组和表观基因组测量在同一细胞核;损伤脊髓的两个空间转录组图谱跨越四个空间和时间维度。我们将这些图谱整合到一个共同的框架中,以剖析控制脊髓损伤反应的分子逻辑。麻痹斑揭示了新的生物学原理,这些原理决定了脊髓损伤的后果,包括对损伤的保守和发散的神经元反应;损伤后特定神经元亚群成为电路重组神经元的启动;神经元应激反应和电路重组程序激活之间的内在权衡;脊髓损伤后在免疫特权和神经外环境之间重建三重神经保护屏障的必要性;在年老的老鼠身上形成这种屏障是灾难性的失败。我们利用麻痹斑开发了一种恢复活力的基因疗法,重新建立了这个三方屏障,并恢复了老年小鼠瘫痪后的自然恢复。麻痹斑为脊髓损伤的病理生物学提供了一个前所未有的窗口,同时建立了一个框架,可以在四个维度上整合多模式、基因组尺度的测量来研究生物学和医学。
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