使用微流控系统的镁基合金生物降解性与血小板粘附评估
使用微流控系统评估镁基合金在模拟生理环境下的生物降解性和血小板粘附行为的数据集。

基本信息
资源简介
使用微流控系统的镁基合金生物降解性与血小板粘附评估
【一句话概览】
本数据集是 figshare 公开的结构化表格数据集,收录 5 个文件、合计 8.75 MB,主题涵盖 microfluidic system Magnesium、ZWEK-L、ZWEK-C、platelets adhesion assessment、Mg-based alloys,可用于统计建模、特征工程与队列分析,CC BY 4.0 许可开放获取。
【数据集背景】
本数据集源站标题为《Biodegradability and platelets adhesion assessment of magnesium-based alloys using a microfluidic system》。配套论文《Biodegradability and platelets adhesion assessment of magnesium-based alloys using a microfluidic system》发表于 PLOS ONE(2017),DOI:10.1371/journal.pone.0182914。源站首次发布:2017-08-10。
【数据内容】
源站原始描述:Magnesium (Mg)-based stents are extensively explored to alleviate atherosclerosis due to their biodegradability and relative hemocompatibility. To ensure the quality, safety and cost-efficacy of bioresorbable scaffolds and full utilization of the material tunability afforded by alloying, it is critical to access degradability and thrombosis potential of Mg-based alloys using improved in vitro models that mimic as closely as possible the in vivo microenvironment. In this study, we investigated bi…
【数据结构与技术规格】
文件数 5 个,合计 8.75 MB。S1 Fig.tif:image/tiff,532.43 KB。S2 Fig.tif:image/tiff,1.05 MB。S3 Fig.tif:image/tiff,4.43 MB。数据集 DOI:10.1371/journal.pone.0182914。
【主题与分类】
源站学科分类:Space Science、Medicine、Biotechnology、Environmental Sciences not elsewhere classified、Chemical Sciences not elsewhere classified、Ecology。主题标签:microfluidic system Magnesium、ZWEK-L、ZWEK-C、platelets adhesion assessment、Mg-based alloys、corrosion rate、platelets adhesion rate、platelet adhesion rate、shear stress、AZ。
【适用方向】
结构化表格数据可直接用于统计建模、特征工程与队列分析。
【获取与许可】
源站页面:https://plos.figshare.com/articles/dataset/Biodegradability_and_platelets_adhesion_assessment_of_magnesium-based_alloys_using_a_microfluidic_system/5300599
使用许可:CC BY 4.0(https://creativecommons.org/licenses/by/4.0/)。
规范引用:Liu, Lumei; Koo, Youngmi; Collins, Boyce; Xu, Zhigang; Sankar, Jagannathan; Yun, Yeoheung (2017). Biodegradability and platelets adhesion assessment of magnesium-based alloys using a microfluidic system. PLOS ONE. Dataset
【使用注意】
· 源站最后修改于 2023-06-02,引用时请注意版本时效。
下载信息
注册下载
需要注册 Kaggle 账号并登录后下载,适合需要跟踪下载记录和使用 API 的用户。
暂未开放公开下载
无需注册即可直接获取公开样本或文档,适合快速预览和评估数据集质量。
免登录有偿下载
公开数据集受托下载与技术交付服务。
提供高速下载与技术交付服务(收技术服务费,非数据销售)
暂未开放当前数据集主要来源为 Kaggle 公开托管,完整影像包建议通过原始链接或 Kaggle API 获取。
使用方式
数据集获取(Figshare)
- 源站标题:Biodegradability and platelets adhesion assessment of magnesium-based alloys using a microfluidic system
- DOI:10.1371/journal.pone.0182914
- 发布日期:2017-08-10
- 文件数:5 个
- 文件总体积:8.75 MB
- 源站页面:https://plos.figshare.com/articles/dataset/Biodegradability_and_platelets_adhesion_assessment_of_magnesium-based_alloys_using_a_microfluidic_system/5300599
命令行下载
curl -L -o "S1 Fig.tif" "https://ndownloader.figshare.com/files/9086671"
curl -L -o "S2 Fig.tif" "https://ndownloader.figshare.com/files/9086686"
curl -L -o "S3 Fig.tif" "https://ndownloader.figshare.com/files/9086722"
curl -L -o "S4 Fig.tif" "https://ndownloader.figshare.com/files/9086737"
curl -L -o "S5 Fig.tif" "https://ndownloader.figshare.com/files/9086758"
文件清单
S1 Fig.tif(532.43 KB)S2 Fig.tif(1.05 MB)S3 Fig.tif(4.43 MB)S4 Fig.tif(2.48 MB)S5 Fig.tif(246.77 KB)
文件总体积 8.75 MB(源站 API 实测)。
数据说明
Magnesium (Mg)-based stents are extensively explored to alleviate atherosclerosis due to their biodegradability and relative hemocompatibility. To ensure the quality, safety and cost-efficacy of bioresorbable scaffolds and full utilization of the material tunability afforded by alloying, it is critical to access degradability and thrombosis potential of Mg-based alloys using improved in vitro models that mimic as closely as possible the in vivo microenvironment. In this study, we investigated biodegradation and initial thrombogenic behavior of Mg-based alloys at the interface between Mg alloys’ surface and simulated physiological environment using a microfluidic system. The degradation properties of Mg-based alloys WE43, AZ31, ZWEK-L, and ZWEK-C were evaluated in complete culture medium and their thrombosis potentials in platelet rich plasma, respectively. The results show that 1) physiological shear stress increased the corrosion rate and decreased platelets adhesion rate as compared to static immersion; 2) secondary phases and impurities in material composition induced galvanic corrosion, resulting in higher corrosion resistance and platelet adhesion rate; 3) Mg-based alloys with higher corrosion rate showed higher platelets adhesion rate. We conclude that a microfluidic-based in vitro system allows evaluation of biodegradation behaviors and platelets responses of Mg-based alloys under specific shear stress, and degradability is related to platelets adhesion.
许可
CC BY 4.0
引用
学术使用请引用 DOI 10.1371/journal.pone.0182914(source: https://plos.figshare.com/articles/dataset/Biodegradability_and_platelets_adhesion_assessment_of_magnesium-based_alloys_using_a_microfluidic_system/5300599)。
数据缺失?
依托陕西、四川两大基地,我们与超过十家三甲医院建立直接合作关系,覆盖合规授权、采集治理、专业标注、数据交付的全流程,为AI医疗团队提供即拿即用的高质量临床数据。
⚡️ 需要数据支持或标注服务?立即联系我们获取专业方案。




