Hubrecht Institute, Royal Netherlands Academy of Arts and Sciences (KNAW), University Medical Centre Utrecht, Utrecht, The Netherlands.
Oncode Institute, Hubrecht Institute, Utrecht, The Netherlands.
EMBO Rep. 2021 Dec 6;22(12):e52058. doi: 10.15252/embr.202052058. Epub 2021 Oct 25.
Patient-derived human organoids can be used to model a variety of diseases. Recently, we described conditions for long-term expansion of human airway organoids (AOs) directly from healthy individuals and patients. Here, we first optimize differentiation of AOs towards ciliated cells. After differentiation of the AOs towards ciliated cells, these can be studied for weeks. When returned to expansion conditions, the organoids readily resume their growth. We apply this condition to AOs established from nasal inferior turbinate brush samples of patients suffering from primary ciliary dyskinesia (PCD), a pulmonary disease caused by dysfunction of the motile cilia in the airways. Patient-specific differences in ciliary beating are observed and are in agreement with the patients' genetic mutations. More detailed organoid ciliary phenotypes can thus be documented in addition to the standard diagnostic procedure. Additionally, using genetic editing tools, we show that a patient-specific mutation can be repaired. This study demonstrates the utility of organoid technology for investigating hereditary airway diseases such as PCD.
患者来源的人类类器官可用于模拟多种疾病。最近,我们描述了从健康个体和患者中直接长期扩增人类气道类器官(AOs)的条件。在这里,我们首先优化了 AOs 向纤毛细胞的分化。分化为纤毛细胞后,这些细胞可以进行数周的研究。当返回扩增条件时,类器官很容易恢复生长。我们将这种条件应用于从小鼻甲刷样本中建立的患有原发性纤毛运动障碍(PCD)的患者的 AOs,PCD 是一种由气道中的运动纤毛功能障碍引起的肺部疾病。观察到与患者基因突变一致的患者特异性纤毛摆动差异。因此,除了标准诊断程序外,还可以记录更详细的类器官纤毛表型。此外,我们使用基因编辑工具表明,可以修复特定于患者的突变。这项研究证明了类器官技术在研究遗传性气道疾病(如 PCD)方面的实用性。