粒细胞集落刺激因子在外周血祖细胞和干细胞的动员和移植中的作用。

Cytokines and molecular therapy Pub Date : 1995-12-01
R Haas, S Murea
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引用次数: 0

摘要

本文就粒细胞集落刺激因子(G-CSF)在外周血祖细胞和干细胞的动员和移植中的作用作一综述。重组基因技术已经允许生产高度纯化的用于人类治疗的材料。祖细胞可以通过半固体和液体培养试验或表达CD34的细胞的直接免疫荧光分析来评估。这种抗原存在于谱系决定的造血祖细胞以及具有广泛自我更新能力的更原始的干细胞上。在稳态造血或细胞毒性化疗后给予G-CSF可导致外周血中造血祖细胞的增加。化疗后循环CD34+细胞水平高于稳定状态下给G-CSF。另一方面,与单独G-CSF治疗相比,化疗后收集的CD34+细胞含有更原始的祖细胞(CD34+/HLA-DR-或CD34+/CD38-)的比例更小。与动员方式无关,先前的细胞毒性化疗和放疗的量会对造血祖细胞的产量产生不利影响。虽然G-CSF持续皮下给药5 - 16微克/公斤体重是首选,但额外的剂量发现研究可能有助于优化当前的剂量计划。粘附分子如l -选择素,VLA(非常晚期抗原)-4和LFA(白细胞功能抗原)-1可能在动员中发挥作用,因为这些抗原在骨髓CD34+细胞上以不同密度表达,与在g - csf支持的细胞毒性化疗后收集的血源性CD34+细胞相比。与移植相关的是,在化疗后g - csf增强的恢复过程中,与动员治疗开始当天或之前获得的骨髓样本中的CD34+细胞相比,外周血中表达Thy-1的CD34+细胞的比例更高。CD34+/Thy-1+细胞的早期性质非常可能,因为这种表型已在人类胎儿肝脏和骨髓干细胞以及脐带血细胞中发现。因此,在高剂量治疗(包括清髓方案)后,g - csf动员的血液干细胞提供快速和持续的植入。目前正在研究CD34+细胞的阳性选择以及使用不同细胞因子的体外扩增,以清除和改善移植后的短期恢复。未来的发展包括使用血液来源的造血干细胞进行体细胞基因治疗。生长因子的可用性是发展这些细胞治疗新途径的重要先决条件。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The role of granulocyte colony-stimulating factor in mobilization and transplantation of peripheral blood progenitor and stem cells .

The article provides a review of the role of granulocyte colony-stimulating factor (G-CSF) for mobilization and transplantation of peripheral blood progenitor and stem cells. Recombinant gene technology has permitted the production of highly purified material for therapeutic use in humans. Progenitor cells can be assessed using semisolid and liquid culture assays or direct immunofluorescence analysis of cells expressing CD34. This antigen is found on lineage-determined hematopoietic progenitor cells as well as on more primitive stem cells with extensive self-renewal capacity. Administration of G-CSF during steady-state hematopoiesis or following cytotoxic chemotherapy leads to an increase of hematopoietic progenitor cells in the peripheral blood. The level of circulating CD34+ cells post-chemotherapy is greater compared with G-CSF administration during steady state. On the other hand, CD34+ cells harvested post-chemotherapy contain a smaller proportion of more primitive progenitor cells (CD34+/HLA-DR- or CD34+/CD38-) compared with G-CSF treatment alone. Independent of the mobilization modality, the amount of previous cytotoxic chemo- and radiotherapy adversely affects the yield of hematopoietic progenitor cells. While continuous subcutaneous administration of G-CSF between 5 and 16 micrograms/kg bodyweight is preferred, additional dose-finding studies may be helpful to optimize current dose schedules. Adhesion molecules like L-selectin, VLA (very late antigen)-4 and LFA (leukocyte function antigen)-1 are likely to play a role in mobilization, since these antigens are expressed on CD34+ cells from bone marrow in different densities compared with blood-derived CD34+ cells collected following G-CSF-supported cytotoxic chemotherapy. It is also relevant for transplantation that during G-CSF-enhanced recovery post-chemotherapy, peripheral blood is enriched with a greater proportion of CD34+ cells expressing Thy-1 in comparison with CD34+ cells from bone marrow samples obtained on the same day or before the mobilization therapy was started. The early nature of the CD34+/Thy-1+ cells is very likely since this phenotype has been found on stem cells from human fetal liver and bone marrow and on cord blood cells. As a result, G-CSF-mobilized blood stem cells provide rapid and sustained engraftment following high-dose therapy, including myeloablative regimens. Positive selection of CD34+ cells as well as ex vivo expansion using different cytokines are currently being investigated for purging and improvement of short-term recovery post-transplantation. Future developments include the use of blood-derived hematopoietic stem cells for somatic gene therapy. The availability of growth factors has been an important prerequisite for the development of these new avenues for cell therapy.

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