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单核细胞接种密度对基于自动灌注培养系统中树突状细胞生成的影响。

Effect of Monocyte Seeding Density on Dendritic Cell Generation in an Automated Perfusion-Based Culture System.

作者信息

Kozbial Andrew, Bhandary Lekhana, Murthy Shashi K

机构信息

Northeastern University, Department of Chemical Engineering, Boston, MA 02115.

出版信息

Biochem Eng J. 2019 Oct 15;150. doi: 10.1016/j.bej.2019.107291. Epub 2019 Jul 5.

Abstract

Dendritic cells (DCs) are increasingly important for research and clinical use but obtaining sufficient numbers of dendritic cells is a growing challenge. We systemically investigated the effect of monocyte (MO) seeding density on the generation of monocyte-derived immature DCs (iDCs) in MicroDEN, a perfusion-based culture system, as well as 6-well plates. Cell surface markers and the ability of the iDCs to induce proliferation of allogeneic T cells were examined. The data shows a strong relationship between iDC phenotype, specifically CD80/83/86 expression, and T cell proliferation. MicroDEN generated iDCs proved better than well plate generated iDCs at inducing T cell proliferation within the 200k-600k MO/cm seeding density range studied. We attribute this to perfusion in MicroDEN which supplies fresh differentiation medium continuously to the differentiating MOs while concurrently removing depleted medium and toxic byproducts of cellular respiration. MicroDEN generated fewer iDCs on a normalized basis than the well plates at lower MO seeding densities but generated equivalent numbers of iDCs at 600k MO seeding density. These results demonstrate that MicroDEN is capable of generating greater numbers of iDCs with less manual work than standard well plate culture and the MicroDEN generated iDCs have greater ability to induce T cell proliferation.

摘要

树突状细胞(DCs)在研究和临床应用中越来越重要,但获得足够数量的树突状细胞是一个日益严峻的挑战。我们系统地研究了单核细胞(MO)接种密度对在基于灌注的培养系统MicroDEN以及6孔板中生成单核细胞衍生的未成熟树突状细胞(iDCs)的影响。检测了细胞表面标志物以及iDCs诱导同种异体T细胞增殖的能力。数据显示iDC表型,特别是CD80/83/86表达与T细胞增殖之间存在密切关系。在所研究的200k - 600k MO/cm接种密度范围内,MicroDEN生成的iDCs在诱导T细胞增殖方面比孔板生成的iDCs更好。我们将此归因于MicroDEN中的灌注,它在向分化的MOs持续供应新鲜分化培养基的同时,还能去除耗尽的培养基和细胞呼吸产生的有毒副产物。在较低的MO接种密度下,按标准化计算,MicroDEN生成的iDCs比孔板少,但在600k MO接种密度下生成的iDCs数量相当。这些结果表明,与标准孔板培养相比,MicroDEN能够以更少的人工操作生成更多数量的iDCs,并且MicroDEN生成的iDCs具有更强的诱导T细胞增殖的能力。

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