Gene expression profile of multipotent mesenchymal stromal cells: Identification of pathways common to TGFbeta3/BMP2-induced chondrogenesis.

Dominique Mrugala, Nadège Dossat, Jochen Ringe, Bruno Delorme, Amandine Coffy, Claire Bony, Pierre Charbord, Thomas Häupl, Jean-Pierre Daures, Danièle Noël, Christian Jorgensen
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引用次数: 52

Abstract

Multipotent mesenchymal stromal cells (MSC) display a high potential for the development of novel treatment strategies for cartilage repair. However, the pathways involved in their differentiation to functional non hypertrophic chondrocytes remain largely unknown, despite the work on embryologic development and the identification of key growth factors including TGFbeta, Hh, Wnt and FGF. In this study, we asked if we could identify specific biological networks common to the growth factors used (TGFbeta3 or BMP-2). To address this question, we used DNA microarrays and performed large-scale expression profiling of MSC at different time points during their chondrogenic differentiation. By comparing these data with those obtained during the differentiation of MSC into osteoblasts and adipocytes, we identified 318 genes specific for chondrogenesis and developed a new algorithm to classify the genes according to their kinetic profile. We distributed the selected genes in five classes according to their kinetic of expression. We could reconstruct three phases characterized by functional pathways. The first phase corresponds to cell attachment and apoptosis induction; the second phase is characterized by a proliferation/differentiation step, and the third phase is characterized by a differentiation/hypertrophy pathway. Indeed, these data propose new pathways to understand the complexity of MSC differentiation to chondrocytes.

多能间充质间质细胞的基因表达谱:TGFbeta3/ bmp2诱导软骨形成的共同途径的鉴定。
多能间充质间质细胞(MSC)在软骨修复新治疗策略的发展方面显示出很高的潜力。然而,尽管在胚胎学发育和关键生长因子(包括tgf - β、Hh、Wnt和FGF)的鉴定方面进行了工作,但它们分化为功能性非肥厚软骨细胞的途径在很大程度上仍然未知。在这项研究中,我们询问是否可以确定所使用的生长因子(TGFbeta3或BMP-2)共同的特定生物网络。为了解决这个问题,我们使用了DNA微阵列,并在MSC软骨分化的不同时间点进行了大规模的表达谱分析。通过将这些数据与MSC向成骨细胞和脂肪细胞分化过程中获得的数据进行比较,我们确定了318个软骨形成特异性基因,并根据它们的动力学特征开发了一种新的算法来对这些基因进行分类。我们根据基因的表达动力学将所选基因分为5类。我们可以重建以功能通路为特征的三个阶段。第一阶段是细胞附着和诱导凋亡;第二阶段的特征是增殖/分化步骤,第三阶段的特征是分化/肥大途径。事实上,这些数据为理解MSC向软骨细胞分化的复杂性提供了新的途径。
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