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非洲爪蟾变态过程中作为成年红细胞表面标志物的主要组织相容性复合体I类抗原

MHC class I antigens as surface markers of adult erythrocytes during the metamorphosis of Xenopus.

作者信息

Flajnik M F, Du Pasquier L

机构信息

Basel Institute for Immunology, Switzerland.

出版信息

Dev Biol. 1988 Jul;128(1):198-206. doi: 10.1016/0012-1606(88)90282-5.

DOI:10.1016/0012-1606(88)90282-5
PMID:3384174
Abstract

An alloantiserum produced against Xenopus MHC class I antigens has been used to distinguish different erythrocyte populations at metamorphosis. By analysis using a fluorescence-activated cell sorter (FACS) analyzer, tadpole (stage 55) and adult erythrocytes have distinct volume differences and tadpole cells have no MHC antigens on the cell surface. Both tadpole and adult erythrocytes express a "mature erythrocyte" antigen marker, recognized by its monoclonal antibody (F1F6). During metamorphosis, immature erythrocytes, at various stages of differentiation, which express adult levels of cell-surface MHC antigens by 12 days after tail resorption, are found in the bloodstream. These immature cells are biosynthetically active, produce adult hemoglobin, and mature by 60 days after the completion of metamorphosis. Percoll gradient-density fractionation has shown that all of the cells in the new erythrocyte series express adult levels of MHC antigens but there is only a gradual increase in the amount of "mature erythrocyte" antigen. Tadpole erythrocytes, which are biosynthetically active during larval stages, produce small amounts of surface MHC antigens before the metamorphic climax and then become metabolically inactive. They are completely cleared from the circulation by 60 days after metamorphosis. Erythrocytes from tadpoles arrested in their development for long periods of time express intermediate levels of MHC antigens, suggesting a "leaky" expression of these molecules in the tadpole cells. The most abundant erythrocyte cell-surface proteins from tadpoles and adults, as judged by two-dimensional gel electrophoresis, are very different.

摘要

一种针对非洲爪蟾主要组织相容性复合体(MHC)I类抗原产生的同种抗血清已被用于区分变态期不同的红细胞群体。通过使用荧光激活细胞分选仪(FACS)分析仪进行分析,蝌蚪(55期)和成体红细胞在体积上有明显差异,蝌蚪细胞表面没有MHC抗原。蝌蚪和成体红细胞都表达一种“成熟红细胞”抗原标志物,可被其单克隆抗体(F1F6)识别。在变态过程中,在尾吸收后12天,分化处于不同阶段、表达成年水平细胞表面MHC抗原的未成熟红细胞出现在血液中。这些未成熟细胞具有生物合成活性,产生成年血红蛋白,并在变态完成后60天成熟。Percoll梯度密度分级分离表明,新红细胞系列中的所有细胞都表达成年水平的MHC抗原,但“成熟红细胞”抗原的量只是逐渐增加。在幼体阶段具有生物合成活性的蝌蚪红细胞,在变态高潮前产生少量表面MHC抗原,然后代谢失活。它们在变态后60天从循环中完全清除。长时间发育停滞的蝌蚪的红细胞表达中等水平的MHC抗原,表明这些分子在蝌蚪细胞中存在“渗漏”表达。通过二维凝胶电泳判断,蝌蚪和成体中最丰富的红细胞细胞表面蛋白非常不同。

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