Profiling human brain vascular cells using single-cell transcriptomics and organoids

被引:0
作者
Elizabeth E. Crouch
Loukas N. Diafos
Edward J. Valenzuela
Kaylee Wedderburn-Pugh
Janeth Ochoa Birrueta
Jaela Caston
Tara Joseph
Madeline G. Andrews
Aparna Bhaduri
Eric J. Huang
机构
[1] University of California San Francisco,Department of Pediatrics
[2] University of California San Francisco,The Eli and Edythe Broad Center of Regeneration Medicine and Stem Cell Research
[3] University of California San Francisco,Biomedical Science Graduate Program
[4] University of California San Francisco,Medical Scientist Training Program
[5] University of California San Francisco (UCSF),Department of Neurology
[6] Arizona State University,School of Biological and Health Systems Engineering
[7] University of California Los Angeles,Department of Biological Chemistry
[8] University of California San Francisco,Department of Pathology
[9] Pathology Service 113B,undefined
[10] San Francisco Veterans Affairs Healthcare System,undefined
来源
Nature Protocols | 2024年 / 19卷
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摘要
Angiogenesis and neurogenesis are functionally interconnected during brain development. However, the study of the vasculature has trailed other brain cell types because they are delicate and of low abundance. Here we describe a protocol extension to purify prenatal human brain endothelial and mural cells with FACS and utilize them in downstream applications, including transcriptomics, culture and organoid transplantation. This approach is simple, efficient and generates high yields from small amounts of tissue. When the experiment is completed within a 24 h postmortem interval, these healthy cells produce high-quality data in single-cell transcriptomics experiments. These vascular cells can be cultured, passaged and expanded for many in vitro assays, including Matrigel vascular tube formation, microfluidic chambers and metabolic measurements. Under these culture conditions, primary vascular cells maintain expression of cell-type markers for at least 3 weeks. Finally, we describe how to use primary vascular cells for transplantation into cortical organoids, which captures key features of neurovascular interactions in prenatal human brain development. In terms of timing, tissue processing and staining requires ~3 h, followed by an additional 3 h of FACS. The transplant procedure of primary, FACS-purified vascular cells into cortical organoids requires an additional 2 h. The time required for different transcriptomic and epigenomic protocols can vary based on the specific application, and we offer strategies to mitigate batch effects and optimize data quality. In sum, this vasculo-centric approach offers an integrated platform to interrogate neurovascular interactions and human brain vascular development.
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页码:603 / 628
页数:25
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