EB病毒衣壳IgG免疫荧光玻片试剂盒

EB病毒衣壳IgG免疫荧光玻片试剂盒

EBV Viral Capsid IgG IFA Kit

广州健仑生物科技有限公司

主要用途：用于检测人血清中的EB病毒衣壳IgG抗体

产品规格：12 孔/张,10 张/盒

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EB病毒衣壳IgG免疫荧光玻片试剂盒

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【公司名称】 广州健仑生物科技有限公司
【】    杨永汉 
【】 
【腾讯 】 2042552662
【公司地址】 广州清华科技园创新基地番禺石楼镇创启路63号二期2幢101-3室
【企业文化】

2014年8月11日Developmental Cell期刊封面显示泌乳鼠类抗原抗体产物免疫荧光染色法E-钙粘蛋白(棕色)和αSMA(红色)。这种产物来自整联蛋白αvβ3表达上皮细胞从怀孕供体小鼠获得。
科学家已经可以诱导干细胞形成视网膜，这为很多眼疾患者带来希望。
在子宫里，一团相同的细胞分化成各种不同的模样，zui终形成高度有序的结构，组装成人体的全副器官。这个过程依照内在的“生物学蓝图”有条不紊地进行，引导组织产生折叠、皱褶，精确形成适当的外形和大小。
科学家很熟悉这个由简单到复杂的进程，他们一直在思索胚胎发育的机制，暗自惊叹它的奥妙，又渴望在实验台上重演早期发育阶段——既为了更好地理解其中的生物学机制，也为了将这些信息应用于修复和替代受损组织。这个时刻或许已到来了。解密发育奥妙的工作zui近取得了不少成就，体外培养的替代器官有望在10年内就进入手术室。
之所以作出如此乐观的预测，是因为我的实验室近来在干细胞研究上取得了一些成果。干细胞会分化成其他类型的细胞。我们发现，即使在体外培养的环境下，干细胞也可以分化形成视网膜——眼睛里的关键结构之一，它把来自外部世界的光信号，转换成电信号和化学信号，继而传递给大脑的其他部位。此外，我和同事还培植出了皮层组织，以及垂体的一部分。由于我们对人体信号传导系统的认识越来越深入，因此在做上述研究时，我们根据自己掌握的知识，对培养皿中的一层相互分离的细胞进行诱导，让它们形成了一种轮廓分明的三维结构。其实，这些细胞收到我们“输入”的化学信号后，自己就会行动起来，开始建造视网膜。这一研究成果让很多人看到了希望：用这种方法制备的视网膜组织有望用于治疗黄斑变性等多种眼疾。

August 11, 2014 Developmental Cell Journal Cover shows lactogenic murine antigen antibody product immunofluorescence staining E-cadherin (brown) and αSMA (red). This product is derived from integrin αvβ3-expressing epithelial cells from pregnant donor mice.
Scientists have been able to induce the formation of retinal stem cells, which brings hope for many patients with eye diseases.
In the womb, a group of the same cells differentiate into different shapes, eventually forming a highly ordered structure, assembled into the human organ. The process is conducted in an orderly manner based on the inherent "biological blueprint," guiding the organization to produce folds, folds, and precise shapes and sizes.
Scientists are familiar with this simple to complex process, they have been pondering the mechanism of embryonic development, secretly marveling its mystery, but also eager to repeat the early stages of development on the experimental stage - both to better understand the biological mechanisms, Also to apply this information to repair and replace damaged tissue. This moment may have come. Recently, a lot of achievements have been made in the work of deciphering the development and the alternative organs cultured in vitro are expected to enter the operating room within 10 years.
The reason for such optimistic predictions is that my lab has made some achievements in stem cell research lay. Stem cells differentiate into other types of cells. We found that stem cells can differentiate to form the retina, even in in vitro culture environments - one of the key structures in the eye that converts light signals from the outside into electrical and chemical signals that are then passed on to the brain's other Site. In addition, my colleagues and I also c*ted cortical tissue, as well as part of the pituitary gland. As our knowledge of the human signaling system becomes more and more in-depth, based on our own knowledge, we conduct a study of the cells in the Petri dish that are separated from each other, giving them a well- The three-dimensional structure. In fact, when these cells receive our "input" chemical signal, they will act and begin to build the retina. The results of this research so that many people see the hope: Retinal tissue prepared by this method is expected to be used to treat macular degeneration and other eye diseases.