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Two high-yield complementary methods to sort cell populations by their 2D or 3D migration speed
Molecular Biology of the Cell ( IF 3.1 ) Pub Date : 2020-10-21 , DOI: 10.1091/mbc.e20-07-0466
Aditya Arora 1 , Jorge Luis Galeano Niño 2 , Myint Zu Myaing 1 , Shumei Chia 3 , Bakya Arasi 1 , Andrea Ravasio 1, 4 , Ruby Yun-Ju Huang 5 , Ramanuj Dasgupta 3 , Maté Biro 3 , Virgile Viasnoff 1, 4
Affiliation  

The potential to migrate is one of the most fundamental functions for various epithelial, mesenchymal and immune cells. Image analysis of motile cell populations, both primary and cultured, typically reveals an intercellular variability in migration speeds. However, cell migration chromatography, the sorting of large populations of cells based on their migratory characteristics, cannot be easily performed. The lack of such methods has hindered our understanding of the direct correlation between the capacity to migrate and other cellular properties. Here, we report two novel, easily implementable and readily scalable methods to sort millions of live migratory cancer and immune cells based on their spontaneous migration in 2D and 3D microenvironments respectively. Correlative downstream transcriptomic, molecular and functional tests reveal marked differences between the fast and slow subpopulations in patient-derived cancer cells. We further employ our method to reveal that sorting the most migratory cytotoxic T lymphocytes yields a pool of cells with enhanced cytotoxicity against cancer cells. This phenotypic assay opens new avenues for the precise characterization of the mechanisms underlying hitherto unexplained heterogeneities in migratory phenotypes within a cell population, and for the targeted enrichment of the most potent migratory leukocytes in immunotherapies.

Movie S1: Video animation depicting the strategy and process for 2D motility-based sorting of cells using the layered PDMS micro-well device.Download Original Video (3.0 MB)https://ascb-prod-streaming.literatumonline.com/journals/content/mboc/0/mboc.ahead-of-print/mbc.e20-07-0466/20201012/media/mc-e20-07-0466-s02.,1920,1200,960,900,768,652,642,.mp4.m3u8?b92b4ad1b4f274c70877518b17abb28b8c6166875a97f369b6d543b680497f5bca01d1632f390ebb6e08bd2a2725a70a05738b03ddc7251bffb1206bcd384e738aacf0abe9b4502e102dfa92763a3cb1ed22a8389d98c62598a78efb50c5f148f6e0fdb80deb8208cfa71a0a9c6e5b1979756c3d9017df3bda3c185b35b22674087a94cb0751171ba528585e25c6a99a1c831d8eaf05bae28a5029de19f74ede736c8ce4d06d0d049f724f45c6283a29d2da933fe48a2eMovie S2: Live cell imaging of migration of the more migratory cytotoxic T lymphocytes obtained after sorting in collagen gels. The cells were tracked for 75 minutes and imaged every 30 seconds, the video is a maximum intensity projection, with a frame rate of 9 fps.Download Original Video (5.9 MB)https://ascb-prod-streaming.literatumonline.com/journals/content/mboc/0/mboc.ahead-of-print/mbc.e20-07-0466/20201012/media/mc-e20-07-0466-s03.,1200,960,900,768,652,642,.mp4.m3u8?b92b4ad1b4f274c7087751841cabb28b19a3e23570e4794628d00a388fabd4f47061f4b4b81c11dac4c336cd5be6a2a6a495e5def8479aeedf32e6f4ec8f325c8354b92f9a15e63bba6a844857b79a5291fc772d6ba92a8f10a539f2c2dcfffb0865f325d35752301d46c92030699602a4e69022566cd92a4faa179ad30a6a1a45625d7d46ed94ce5ee51c743630da2b92b83c4bd1879d2dd5e428d2d5f4ef3f29c51327c021a788de86213426086d747becMovie S3: Live cell imaging of migration of the less migratory cytotoxic T lymphocytes obtained after sorting in collagen gels. The cells were tracked for 75 minutes and imaged every 30 seconds, the video is a maximum intensity projection, with a frame rate of 9 fps.Download Original Video (5.4 MB)https://ascb-prod-streaming.literatumonline.com/journals/content/mboc/0/mboc.ahead-of-print/mbc.e20-07-0466/20201012/media/mc-e20-07-0466-s04.,1200,960,900,768,652,642,.mp4.m3u8?b92b4ad1b4f274c7087751841cabb28b19a3e23570e4794628d00a388fabd4f47061f4b4b81c11dac4c336cd5be6a2a6a495e5def8479aeedf32e6f4ec8f325c8354b92f9a15e63bba6a844857b79a5291fc772d6ba92a8f10a539f2c2dcfffb0865f325d35752301d46c92030699602a4e69022566cd92a48aa179ad30a6a1a8d2c54b715881709cf3b0827d16c2ed49c5665444386bda1ea14357b251506b29926fd938f0c8e650e0f45e6b6579ab8a981


中文翻译:


两种高产互补方法,可根据 2D 或 3D 迁移速度对细胞群进行分类



迁移潜力是各种上皮细胞、间充质细胞和免疫细胞最基本的功能之一。原代和培养的运动细胞群的图像分析通常揭示迁移速度的细胞间变异。然而,细胞迁移色谱法(根据细胞迁移特征对大量细胞进行分类)并不容易进行。缺乏此类方法阻碍了我们对迁移能力与其他细胞特性之间直接相关性的理解。在这里,我们报告了两种新颖、易于实施和易于扩展的方法,分别根据数百万活迁移性癌症和免疫细胞在 2D 和 3D 微环境中的自发迁移进行分类。相关的下游转录组、分子和功能测试揭示了患者来源的癌细胞中快亚群和慢亚群之间的显着差异。我们进一步利用我们的方法揭示了分选最具迁移性的细胞毒性 T 淋巴细胞会产生一组对癌细胞具有增强细胞毒性的细胞。这种表型测定为精确表征细胞群内迁移表型中迄今为止无法解释的异质性的机制以及免疫疗法中最有效的迁移白细胞的靶向富集开辟了新途径。


电影 S1:视频动画描述了使用分层 PDMS 微孔装置进行基于 2D 运动性的细胞分选的策略和过程。下载原始视频 (3.0 MB)电影 S2:获得的更具迁移性的细胞毒性 T 淋巴细胞的迁移活细胞成像胶原蛋白凝胶分选后。细胞被跟踪 75 分钟,每 30 秒成像一次,视频为最大强度投影,帧率为 9 fps。下载原始视频 (5.9 MB)电影 S3:迁移性较小的细胞毒性 T 的活细胞成像在胶原凝胶中分选后获得的淋巴细胞。细胞被跟踪 75 分钟,每 30 秒成像一次,视频是最大强度投影,帧速率为 9 fps。下载原始视频 (5.4 MB)https://ascb-prod-streaming.literatumonline.com/journals/content/mboc/0/mboc.ahead-of-print/mbc.e20-07-0466/20201012/media/mc-e20-07-0466-s04.,1200,960,900,768,652,642,.mp4.m3u8?b92b4ad1b4f274c7087751841cabb28b19a3e23570e4794628d00a388fabd4f47061f4b4b81c11dac4c336cd5be6a2a6a495e5def8479aeedf32e6f4ec8f325c8354b92f9a15e63bba6a844857b79a5291fc772d6ba92a8f10a539f2c2dcfffb0865f325d35752301d46c92030699602a4e69022566cd92a48aa179ad30a6a1a8d2c54b715881709cf3b0827d16c2ed49c5665444386bda1ea14357b251506b29926fd938f0c8e650e0f45e6b6579ab8a981
更新日期:2020-10-27
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