Insulin-like growth factor binding protein (IGFBP6) is a cross-species tendon marker.

IF 3.2 3区 医学 Q3 CELL & TISSUE ENGINEERING European cells & materials Pub Date : 2019-09-24 DOI:10.22203/eCM.v038a10
A. Turlo, A. J. Mueller-Breckenridge, D. Zamboulis, S. Tew, E. Canty-Laird, P. Clegg
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引用次数: 6

Abstract

The main challenge in tendon injury management is suboptimal tissue healing that fails to re-establish original tendon function. Tissue bioengineering is a promising approach for tendon therapy, with potential to improve its functional outcomes. However, evaluation criteria for tissue-engineered tendon are unclear due to the lack of specific markers of differentiated tendon. The study aim was to identify a panel of genes that characterised tendons in comparison to cartilage or muscles and validate those genes, both in human and key species used as models for tendon diseases. Gene expression profiling of rat tendon and cartilage in whole-tissue samples and primary tenocytes and chondrocytes was undertaken using two independent microarray platforms. Genes that demonstrated high expression correlation across two assays were validated by qRT-PCR in rat tendon relative to cartilage and muscle. Five genes demonstrating the highest tendon-related expression in the validation experiment (ASPN, ECM1, IGFBP6, TNMD, THBS4) were further evaluated by qRT-PCR in ovine, equine and human tissue. The group of tendon markers, identified by unbiased transcriptomic analysis of rat musculoskeletal tissues, demonstrated species-dependent profiles of expression. Insulin-like growth factor binding protein 6 (IGFBP6) was identified as the only universal tendon marker. Further investigation in equine tendon showed that IGFBP6 expression was not affected by ageing or tendon function but decreased in anatomical regions subjected to elevated compressive force. IGFBP6 is a robust cross-species marker of tendon phenotype and may find application in evaluation of tendon physiology and guided differentiation of permissive cells towards functional tenocytes.
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胰岛素样生长因子结合蛋白(IGFBP6)是一种跨物种肌腱标记物。
肌腱损伤管理的主要挑战是未能重建原始肌腱功能的次优组织愈合。组织生物工程是肌腱治疗的一种很有前途的方法,有可能改善其功能结果。然而,由于缺乏分化肌腱的特异性标志物,组织工程肌腱的评估标准尚不明确。这项研究的目的是确定一组与软骨或肌肉相比具有肌腱特征的基因,并在用作肌腱疾病模型的人类和关键物种中验证这些基因。使用两个独立的微阵列平台对大鼠肌腱和软骨在全组织样本以及原代肌腱细胞和软骨细胞中的基因表达进行分析。通过qRT-PCR在大鼠肌腱相对于软骨和肌肉中验证了在两种测定中表现出高表达相关性的基因。通过qRT-PCR在绵羊、马和人类组织中进一步评估了在验证实验中表现出最高肌腱相关表达的五个基因(ASPN、ECM1、IGFBP6、TNMD、THBS4)。通过对大鼠肌肉骨骼组织的无偏转录组学分析鉴定的肌腱标志物组显示了物种依赖性的表达谱。胰岛素样生长因子结合蛋白6(IGFBP6)被鉴定为唯一的通用肌腱标记物。对马肌腱的进一步研究表明,IGFBP6的表达不受衰老或肌腱功能的影响,但在承受更高压缩力的解剖区域降低。IGFBP6是肌腱表型的一种强大的跨物种标记物,可用于评估肌腱生理学和引导允许细胞向功能性肌腱细胞分化。
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来源期刊
European cells & materials
European cells & materials 生物-材料科学:生物材料
CiteScore
6.00
自引率
6.50%
发文量
55
审稿时长
1.5 months
期刊介绍: eCM provides an interdisciplinary forum for publication of preclinical research in the musculoskeletal field (Trauma, Maxillofacial (including dental), Spine and Orthopaedics). The clinical relevance of the work must be briefly mentioned within the abstract, and in more detail in the paper. Poor abstracts which do not concisely cover the paper contents will not be sent for review. Incremental steps in research will not be entertained by eCM journal.Cross-disciplinary papers that go across our scope areas are welcomed.
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