PneumaCult™ Apical-Out气道类器官培养基

无血清、无牛垂体提取物（BPE）的培养基，适用于人原代支气管上皮细胞或人气道上皮细胞分化为成熟的顶端朝外型气道类器官。

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产品号 #（选择产品）

产品号 #100-0620_C

无血清、无牛垂体提取物（BPE）的培养基，适用于人原代支气管上皮细胞或人气道上皮细胞分化为成熟的顶端朝外型气道类器官。

产品优势

便捷的体外系统，可轻松接触气道上皮的顶端面
无需Matrigel®轻松下游处理
可在不同供体样本中生成高度一致的类器官结构
适用于高通量药物筛选等应用

产品组分包括

PneumaCult™Apical-Out气道类器官培养基，产品号#100-0620：

PneumaCult™Apical-Out气道类器官基础培养基，450 mL；
PneumaCult™Apical-Out气道类器官添加物 10X，50 mL；
PneumaCult™Apical-Out 气道类器官添加物1000X，500µL。

立即询价

总览

在15天内，从人支气管上皮细胞（HBECs）或人气道上皮细胞（HAECs）生成顶端朝外型气道类器官，该过程采用简便且可扩增的无Matrigel®的培养方案。这些类器官能够提供气道上皮的顶端面，并可用于在体外3D模型系统中进行传染病建模或高通量药物筛选。

使用PneumaCult™顶端朝外型气道类器官培养基，您可以在AggreWell™400 24孔板（产品号 #34415）中培养纤毛细胞的极化气道类器官，且无需使用细胞培养小室。为确保实验的可重复性，本培养基不含血清或牛垂体提取物（BPE）。

为获得更好的实验结果，建议分化前先使用PneumaCult™-NGEx 培养基（产品号 #100-1505）扩增您的HAECs。

更多关于肺类器官的信息，请访问我们的学习中心。

实验数据

Figure 1. Generation of Apical-Out Airway Organoids Using the PneumaCult™ Apical-Out Airway Organoid Medium

(A) Workflow showing the generation of apical-out airway organoids. (B) Prior to generating apical-out airway organoids, human airway epithelial cells (HAECs) are expanded using PneumaCult™-Ex Plus medium in a two-dimensional expansion phase. (C)The HAECs are then plated into an AggreWell™400 24-well plate and allowed to aggregate for 1 - 6 days using PneumaCult™ Apical-Out Airway Organoid medium. (D) Following aggregation, the cells are dislodged from the microwells and the aggregate suspension is transferred to a 24-well flat-bottom plate and differentiated for 9 - 14 days using PneumaCult™ Apical-Out Airway Organoid medium to generate apical-out airway organoids. (E) The resulting organoids are composed of a cell-dense core containing basal cells and an epithelium that presents ciliated cells on the outer surface, indicating their successful apical-out polarity. Shown are representative brightfield images at different stages of the workflow.

Figure 2. PneumaCult™ Apical-Out Airway Organoid Medium Supports Efficient Generation of Organoids

Apical-out airway organoids were generated by seeding 100 2D-expanded cells derived from 3 donors from passages 3 to 8. (A) Number of generated organoids per well of a 24-well plate at day 15. Data points represent measurements taken from independent wells of a 24-well plate. (B) The efficiency of two different approaches (ECM-free PneumaCult™ Apical-Out Airway Organoid medium workflow or polarity inversion following ECM removal) is expressed as the percentage of apical-out airway organoids at the end of culture relative to the total number of organoids used to seed the cultures.

Figure 3. PneumaCult™ Apical-Out Airway Organoid Medium Supports Standardized Generation of Organoids

Absence of extracellular matrix, and aggregation using AggreWell™400 24-well plate, allows for homogeneity of the culture and the standardized generation of apical-out airway organoids that are highly similar in shape and size. For each donor at passage 3, 750 organoids were counted from 3 separate wells to generate a (A) histogram depicting the frequency of diameters in apical-out airway organoids. Organoid diameter is consistent between all donors, supporting the homogeneity of the culture. To quantify the number of cells that the organoids were composed of, passage 3 organoids were fixed, stained with DAPI, and imaged to visualize the number of nuclei and determine the (B) number of cells comprising each organoid. On average, organoids were composed of 62 cells with a 95% confidence interval of 6.77, demonstrating homogeneity at the cellular level. (C) Ciliated cell percentage of apical out organoids at day 15, (D) and the percentage of motile organoids that display beating cilia. Almost all organoids displayed functional beating cilia that allowed them to move in suspension after multiple passages, further demonstrating the homogeneity of the culture.

Figure 4. Apical-Out Airway Organoid Production Can Be Scaled-Up

Human airway epithelial cells (HAECs) were seeded at the same density in both the 6-well and 24-well AggreWell™ 400 plates with PneumaCult™ Apical-Out Airway Organoid medium. Data points represent individual wells analyzed on day 15 of passage number 5 for each. (A) The number of organoids obtained per well in an AggreWell™400 6-well plate was, on average, three times higher than in the 24-well plate format. (B) These organoids demonstrated similar differentiation potential and proportion of ciliated cells when compared to the 24-well format. (C) These organoids also displayed a high degree of size homogeneity between the two AggreWell™400 formats tested. This suggests that production can be scaled up without compromising the quality and functionality of the airway organoids.

Figure 5. Gene Expression Analysis of Organoids Cultured in PneumaCult™ Apical-Out Airway Organoid Medium Shows Presence of Various Airway Cell Types

Heatmap showing fold changes in the RNA levels of common differentiation markers in apical-out airway organoids cultured in PneumaCult™ Apical-Out Airway Organoid Medium across 2 different passages, in three donors. Results were normalized against HBECs cultured in PneumaCult™-Ex Plus Medium and analyzed at passage three (n = 3). Ciliated cell markers, FOXJ1 and TUBB4B are upregulated in terminally differentiated apical-out airway organoids compared to ALI cultures. Additionally, the presence of ACE2 and TMPRSS2 markers suggests that organoids cultured in PneumaCult™ Apical-Out Airway Organoid Medium are a suitable in vitro tool to model respiratory infection by viruses such as SARS-CoV-2.

Figure 6. Terminally Differentiated Organoids Exhibit Mature Polarized Airway Epithelium

(A) Day 15 apical-out airway organoids cultured in PneumaCult™ Apical-Out Airway Organoid Medium contain ciliated cells, as confirmed by the presence of acetylated tubulin (AC. TUB; green) on the outward-facing apical cell surface, while keratin 5 (KRT5; red)-expressing basal cells were present alongside ciliated cells. (B) Cell-cell tight junction protein ZO-1 (red) can be readily visualized on the apical side of the organoid. These results indicate efficient generation of organoids across multiple passages with successful apical-out orientation. (C) Presence of ciliated cell marker acetylated tubulin (AC.TUB; yellow) and SARS-CoV-2 key entry marker ACE2 (red) is also shown, suggesting their usefulness for modeling respiratory infection from SARS-CoV-2.

Figure 7. Apical-Out Airway Organoids Are Susceptible to Infection with Influenza A, Influenza B, and Rhinovirus A-16

(A) Terminally differentiated apical-out airway organoids were infected with Influenza A (IAV), Influenza B (IBV), and Rhinovirus-A16 (RV-A16). The viral loads in the supernatant were detected by qPCR in samples harvested at 24-hour intervals. Data points represent mean values of all biological replicates (n = 3) and error bars represent the standard deviation. When compared to (B) mock-infected organoids, the infected apical-out airway organoids showed clear signs of cytopathogenic effect (CPE) following infection with (C) RV-A16, (D) IAV, and (E) IBV 48 hours post infection. Differences in the pathogenicity of each virus could be detected; high levels of CPE were observed in apical-out airway organoids infected with IAV or IBV, whereas apical-out airway organoids infected with RV-A16 showed only moderate levels of CPE.

Figure 8. Mature Organoids Were Incubated with Enterovirus-D68 in the Presence or Absence of Itraconazole (ITZ) or Rupintrivir (RUP) to Study Antiviral Effects

To assess whether the PneumaCult™ Apical-Out Airway Organoid system was susceptible to infection to common respiratory viruses, day 15 differentiated organoids were infected with enterovirus-D68 (EV-D68). (A) At 0 hours post infection, the EV-D68 (VP1, green) could be seen binding to the apical surface (ciliated cells; acetylated tubulin; red). (B) After 6 hours, cells containing double-strand RNA (dsRNA; red), an intermediate stage during the viral replication cycle, can be identified. These cells are also positive for viral protein (VP1, green) and (C and D, orange bars) generate high viral RNA titers, (E) while showing evidence of cytopathogenic effect (CPE). (C, teal bars) Treatment with Itraconazole (ITZ) reduced the viral RNA levels by approximately 2 orders of magnitude and (F) slightly ameliorated the CPE levels. (D, teal bars) Treatment with Rupintrivir (RUP) completely inhibited viral replication, (G) resulting in the absence of any CPE. (H) Measuring the Relative Fluorescent Units (RFU) 72 hours post infection indicated changes in the levels of ATP and viability of the organoids, and revealed a sharp decline in viability following infection with EV-D68. A partial rescue was detected in infected apical-out airway organoids treated with ITZ, whereas those treated with RUP were almost completely rescued.

产品说明书及文档

请在《产品说明书》中查找相关支持信息和使用说明，或浏览下方更多实验方案。

应用领域

本产品专为以下研究领域设计，适用于工作流程中的高亮阶段。探索这些工作流程，了解更多我们为各研究领域提供的其他配套产品。

文献 (2)

Innate airway responses shape permissiveness to human respiratory syncytial virus L. L. A. van Dijk et al. Virus Research 2026 Apr

Abstract

The interaction between human respiratory syncytial virus (HRSV) and the innate immune system has been demonstrated both in vitro and in vivo. Disruption of interferon (IFN) signaling pathways increases susceptibility and permissiveness to HRSV infection,whereas pretreatment of cells with IFN confers (partial) resistance. This suggests that HRSV disease severity is likely influenced by a pre-existing antiviral state of the respiratory epithelium,driven by baseline or primed expression of type I and type III IFNs. Here,we investigated whether prior exposure to respiratory bacteria or viruses alters in vitro susceptibility and permissiveness to HRSV infection by shaping an antiviral state using both immortalized cell lines and airway organoid models. In A549 cells,pre-exposure to S. aureus had the most significant impact by reducing HRSV infection and inducing robust interferon responses. However,this effect was not reproduced in airway organoids. Conversely,sequential virus infection experiments in airway organoids revealed that prior infection with human parainfluenza virus type 3 (HPIVâ€‘3) reduced the spread of subsequent HRSV infection. In addition to interferon signaling this proved to be associated with epithelial damage mediated by HPIV-3 infection. Collectively,these findings show that HRSV susceptibility and permissiveness are influenced by the up- or downregulation of specific anti- and pro-viral factors induced by prior bacterial or viral exposure,together with the maintenance or disruption of epithelial integrity. Understanding these interactions could be crucial when identifying specific risk groups for severe HRSV-associated disease and the development of targeted HRSV interventions.

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Generation of apical-out nasal organoids to facilitate human respiratory syncytial virus infection and drug screening. G. Stroulios et al. iScience 2026 Jul

Abstract

The nasal epithelium is the first respiratory epithelium that is exposed to inhaled airborne pathogens. As a result,it is crucial to model host-pathogen interactions occurring in this tissue. To facilitate the efficient modeling of these interactions,we have developed a method to generate de novo apical-out nasal organoids from nasal epithelial cell aggregates. Optimization of this method revealed a stark tissue-specific effect of the culture temperature,as organoids were generated in much higher efficiency at 32.5°C compared to more widely used temperatures of 37°C. These organoids recapitulate the native tissue cellular composition of ciliated,basal,and goblet cells,while maintaining high homogeneity in size. Functionally,the system demonstrates susceptibility to viral infection and provides a robust platform for modeling antiviral drug responses. This standardized approach offers a reproducible system with high potential to be utilized in host-pathogen interaction studies and personalized medicine.

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PneumaCult™ Apical-Out气道类器官培养基

产品号 #100-0620

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产品号 #100-0620_C

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PneumaCult™ Apical-Out气道类器官培养基

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