Chinese Journal of Tissue Engineering Research ›› 2024, Vol. 28 ›› Issue (17): 2708-2715.doi: 10.12307/2024.373
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Fang Yuan1, Kang Zhijie1, Wang Haiyan2, Li Xiaohe2, Zhang Kai3
Received:
2023-04-25
Accepted:
2023-06-02
Online:
2024-06-18
Published:
2023-12-15
Contact:
Wang Haiyan, Master, Professor, Master’s supervisor, Department of Human Anatomy, School of Basic Medicine, Inner Mongolia Medical University, Hohhot 010000, Inner Mongolia Autonomous Region, China
Li Xiaohe, PhD, Professor, Doctoral supervisor, Department of Human Anatomy, School of Basic Medicine, Inner Mongolia Medical University, Hohhot 010000, Inner Mongolia Autonomous Region, China
About author:
Fang Yuan, Master candidate, Attending physician, School of Basic Medical Sciences, Inner Mongolia Medical University, Hohhot 010000, Inner Mongolia Autonomous Region, China
Supported by:
CLC Number:
Fang Yuan, Kang Zhijie, Wang Haiyan, Li Xiaohe, Zhang Kai. Visualization analysis of vascular stimulating scaffolds in bone tissue engineering#br#[J]. Chinese Journal of Tissue Engineering Research, 2024, 28(17): 2708-2715.
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核心作者是指某一学科或专业领域中,发文量多、被引率高和影响力大的杰出作者。通过对核心作者研究方向的分析,可以了解骨组织工程下促血管支架领域的发展脉络。根据核心作者计算公式,对中国知网和Web of Science核心集数据库文献进行计算,中国知网数据计算得N=1.06,取整数为2篇,核心作者共有2位,分别是吴骁伟和王健。Web of Science核心集数据库数据计算得N=2.89,取整数为3篇,核心作者共有249位。 骨组织工程下促血管支架领域发文量排名前10位的核心作者中,发文数量最多的为德国Erlangen-Nuremberg University的Boccaccini Aldo R,共发表15篇文章,其他依次为Arkudas Andreas(11篇)、Zhou XiaoJun(9篇)、Kelly Daniel J(9篇)、Horch Raymuend E(8篇)、Khademhosseini Ali(7篇)、Kneser Ulrich(7篇)、Bertassoni Luiz E(6篇)、Henrich Dirk(6篇)、Kaplan David L(6篇)。累计被引次数最多的为Harvard Medical School的Khademhosseini Ali,累计被引1 335次,其他依次为Kelly Daniel J(575次)、Boccaccini Aldo R(528次)、Kaplan David L(378次)、Horch Raymund E(304次)、Kneser Ulrich(231次)、Arkudas Andreas (201次)、Bertassoni Luiz E(126次)、Zhou XiaoJun(67次)、Henrich Dirk(63次),见表5。"
2.5 文献共被引分析 利用CiteSpace 6.1.R2绘制出Web of Science核心集数据库文献共被引知识图谱,得到节点数为474,连线数为778的文献共被引知识图谱,见图6。统计文献共被引次数最多的10篇文章(均为综述)[12-21],见表7。通过对表中10篇文献的主要内容进行分析,目前骨组织工程促血管支架领域的关注点主要分以下几类:①血管化策略:支架设计、血管生成因子的输送、体外共培养、体内预血管化;②技术方面:3D打印、静电纺丝、血管移植及血管融合;③机制方面:移植物的重建和细胞/组织的替换速度、内皮细胞和成骨细胞之间的关系、骨细胞和内皮细胞之间旁分泌关系及信号分子通路、血管生成和抗血管生成分子;④其他方面:孔隙率、氧梯度、血液灌注、营养供应及生物降解性。因中国知网数据库无法导出参考文献信息,因此文章未对中国知网数据库文献进行共被引分析。"
将Web of Science核心集数据库文献数据导入CiteSpace 6.1.R2,参数设置同上,得到节点数为277,连线数为1 995的关键词图谱,见图8。其中关键词“mesenchymal stem cell”出现频率最高,为251次,中心性为0.04。其他依次为“scaffold”(207次)、“vascularization”(202次)、“angiogenesis”(198次)、“vitro”(167次)、“tissue engineering”(147次)、“differentiation”(146次)、“bone regeneration”(145次)、“regeneration”(125次)、“bone tissue engineering”(119次),见表10。"
对比国内外关键词图谱及关键词频率表,发现国内外研究热点有所不同。中国从2013年开始使用支架及生物材料对骨缺损、骨生成及骨再生方面进行血管化和血管生成的研究;而3D打印在中国首次出现于2017年。国外的研究方向更趋向于细胞层面,以间充质干细胞(mesenchymal stem cell)与不同支架(scaffold)相融合,研究其在体内或体外(vitro)的骨再生(bone regeneration)、细胞分化(differentiation)、血管化(vascularization)或血管生成(angiogenesis)的能力。 2.7.2 关键词聚类 CiteSpace 6.1.R2 的聚类分析功能将具有相似特征的关键词划分至同一组中,可以了解一个学科领域的发展历程、各时期主要研究方向以及最新的研究热点。在中国知网数据库关键词图谱基础上,制作关键词聚类图谱,得到了Q:0.452 1(Q > 0.3表明可视化图谱中聚类结构显著)、S:0.806 6(S > 0.7表明聚类结果令人信服且关联性强)的关键词聚类图谱[32],共得到关键词聚类标签6个,分别为血管生成(0.756)、细胞膜片(0.834)、组织工程骨(0.866)、骨缺损(0.854)、免疫机制(0.893)及成骨生成(0.769),见图9。"
在Web of Science核心集数据库关键词图谱基础上,制作关键词聚类图谱,得到Q:0.587 3(Q > 0.3表明可视化图谱中聚类结构显著),S为0.832 9(S > 0.7表明聚类结果令人信服且关联性强)的图谱,共得到12个聚类标签,分别为“bone tissue engineering”(0.719),“3D printing”(0.579),“tissue engineering”(0.887),“bone regeneration”(0.957),“osteochondral”(0.949),“smart biomaterial”(0.993),“behavior”(0.97),“mesenchymal stem-cell”(0.987),“calcium silicate”(0.983),“amorphous calcium phosphate”(0.988),“bone formation”(0.996),“mesenchymal stern cell”(1),见图10。"
中国知网数据库关键词突现图中共出现10个关键词,其中材料方面主要为水凝胶和生物材料,细胞方面主要为干细胞。Web of Science核心集数据库关键词突现图中显示排名前20的关键词,早期焦点主要集中于“骨髓基质细胞、基因表达、生物相容性、骨形态发生蛋白诱导成骨、外周血、预制、祖细胞、缺氧、人骨髓、血管生长因子”;后期则集中于“透明质酸、复合材料、骨形态发生蛋白2、聚已酸内酯、干细胞、3D打印、间充质干细胞、壳聚糖”。由此可见,初期促血管支架的研究主要利用骨髓基质细胞、祖细胞等种子细胞进行分化诱导,或者在体外预制血管后植入支架当中,对血管生长因子、基因表达和生物相容性进行研究。后期研究的方法除了继续使用干细胞一类的种子细胞进行研究外,加大了对材料方面促血管作用的研究,如透明质酸、聚己酸内酯和壳聚糖等。除此之外,3D打印技术也于2017年开始应用于促血管支架领域,且为当下热点之一。"
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