Radhika Menon, Linda Petrucci, Benjamin Lohrer, Jingzhong Zhang, Markus Schulze, Christian Schichor, Beate Winner, Jürgen Winkler, Markus J Riemenschneider, Ralf Kühn, Sven Falk, Marisa Karow
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引用次数: 0
Abstract
Studying human somatic cell-to-neuron conversion using primary brain-derived cells as starting cell source is hampered by limitations and variations in human biopsy material. Thus, delineating the molecular variables that allow changing the identity of somatic cells, permit adoption of neuronal phenotypes, and foster maturation of induced neurons (iNs) is challenging. Based on our previous results that pericytes derived from the adult human cerebral cortex can be directly converted into iNs (Karow et al., 2018; Karow et al., 2012), we here introduce human induced pluripotent stem cell (hiPSC)-derived pericytes (hiPSC-pericytes) as a versatile and more uniform tool to study the pericyte-to-neuron conversion process. This strategy enables us to derive scalable cell numbers and allows for engineering of the starting cell population such as introducing reporter tools before differentiation into hiPSC-pericytes and subsequent iN conversion. Harvesting the potential of this approach, we established hiPSC-derived human-human neuronal cocultures that not only allow for independent manipulation of each coculture partner but also resulted in morphologically more mature iNs. In summary, we exploit hiPSC-based methods to facilitate the analysis of human somatic cell-to-neuron conversion.
使用原代脑源细胞作为起始细胞源研究人类体细胞到神经元的转化受到人类活检材料的局限性和变异性的阻碍。因此,描述允许改变体细胞身份、允许采用神经元表型和促进诱导神经元(iNs)成熟的分子变量是具有挑战性的。基于我们之前的研究结果,即来源于成人大脑皮层的周细胞可以直接转化为iNs(Karow等人,2018;Karow et al.,2012),我们在这里介绍了人类诱导多能干细胞(hiPSC)来源的周细胞(hiPSC-周细胞),作为一种多功能、更统一的工具来研究周细胞到神经元的转化过程。这种策略使我们能够获得可扩展的细胞数量,并允许对起始细胞群体进行工程设计,例如在分化为hiPSC周细胞和随后的iN转化之前引入报告工具。利用这种方法的潜力,我们建立了hiPSC衍生的人-人神经元共培养物,不仅可以独立操纵每个共培养伙伴,还可以产生形态上更成熟的iNs。总之,我们利用基于hiPSC的方法来促进对人类体细胞到神经元转化的分析。
期刊介绍:
Cellular Reprogramming is the premier journal dedicated to providing new insights on the etiology, development, and potential treatment of various diseases through reprogramming cellular mechanisms. The Journal delivers information on cutting-edge techniques and the latest high-quality research and discoveries that are transforming biomedical research.
Cellular Reprogramming coverage includes:
Somatic cell nuclear transfer and reprogramming in early embryos
Embryonic stem cells
Nuclear transfer stem cells (stem cells derived from nuclear transfer embryos)
Generation of induced pluripotent stem (iPS) cells and/or potential for cell-based therapies
Epigenetics
Adult stem cells and pluripotency.