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Inventions and Innovations in Preclinical Platforms for Cancer Research

机译:癌症研究的临床前平台的发明和创新

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Three-dimensional (3D) cell culture systems can be regarded as suitable platforms to bridge the huge gap between animal studies and two-dimensional (2D) monolayer cell culture to study chronic diseases such as cancer. In particular, the preclinical platforms for multicellular spheroid formation and culture can be regarded as ideal in vitro tumour models. The complex tumour microenvironment such as hypoxic region and necrotic core can be recapitulated in 3D spheroid configuration. Cells aggregated in spheroid structures can better illustrate the performance of anti-cancer drugs as well. Various methods have been proposed so far to create such 3D spheroid aggregations. Both conventional techniques and microfluidic methods can be used for generation of multicellular spheroids. In this review paper, we first discuss various spheroid formation phases. Then, the conventional spheroid formation techniques such as bioreactor flasks, liquid overlay and hanging droplet technique are explained. Next, a particular topic of the hydrogel in spheroid formation and culture is explored. This topic has received less attention in the literature. Hydrogels entail some advantages to the spheroid formation and culture such as size uniformity, the formation of porous spheroids or hetero-spheroids as well as chemosensitivity and invasion assays and protecting from shear stress. Finally, microfluidic methods for spheroid formation and culture are briefly reviewed.
机译:三维(3D)细胞培养系统可以被认为是弥合动物研究与二维(2D)单层细胞培养之间巨大差距以研究诸如癌症等慢性疾病的合适平台。特别地,用于多细胞球体形成和培养的临床前平台可以被认为是理想的体外肿瘤模型。复杂的肿瘤微环境(例如缺氧区域和坏死核心)可以以3D球体构造概括。聚集在球状结构中的细胞也可以更好地说明抗癌药的性能。迄今为止,已经提出了各种方法来创建这样的3D球体聚集。常规技术和微流体方法都可以用于产生多细胞球体。在这篇综述文章中,我们首先讨论了各种球体形成阶段。然后,解释了传统的球体形成技术,例如生物反应器烧瓶,液体覆盖和悬滴技术。接下来,探讨了水凝胶在球体形成和培养中的特定主题。该主题在文献中受到的关注较少。水凝胶为球状体的形成和培养带来了一些优势,例如尺寸均匀性,多孔球状体或异球状体的形成以及化学敏感性和侵袭性分析以及免受剪切应力的影响。最后,简要回顾了球体形成和培养的微流体方法。

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