综述解读 情报发生 2026-10-31 · 发布于 2026-11-01

成骨微环境工程综述:拓扑结构与电学信号协同促进骨再生

来源:J Nanobiotechnology · PMID 42958509 · DOI 10.1186/s12951-026-04852-x · 来源:IMA 知识库《文献层·文献监控卡片》2026-10-31 期 · 全文级(file_id dmlmcfQeUyzO,实际下载核验) · 全文已获取并通过归属校验

时间标签:数据日期 2026-10-31 · 生成时间 2026-11-01 05:30(Asia/Shanghai)| 检索窗口 PubMed edat 2026/10/28–2026/10/31 | 情报发生日期 2026-10-31

研究问题

Consequently, addressing bone defects has become a significant and pressing challenge in clinical practice.;Specifically, autologous bone grafting remains the “gold standard” for bone defects but is limited by donor‑site morbidity and finite harvest volume [].;However, these two research areas have largely been treated independently.

方法

The inclusion criteria comprised: (1) peer-reviewed original research papers; (2) studies investigating biomaterials for bone defect repair; and (3) research involving relevant in vitro or in vivo biological evaluations.;The exclusion criteria comprised: (1) conference abstracts, book chapters, unpublished papers or preprints; (2) studies focusing on non-biomedical engineering materials or purely theoretical/computational models without biological validation; and (3) articles with insufficient methodological clarity or lacking appropriate control groups.;The underlying mechanism was explored via high-throughput sequencing biotechnology.

核心结论

Consequently, addressing bone defects has become a significant and pressing challenge in clinical practice.;Anchored by the cell niche, the coordinated interplay of multiple cellular microenvironments collectively regulates the biological behaviours and fate decisions underlying bone defect repair [, ].;Previous reviews have extensively discussed either surface topography or electrical stimulation as individual strategies for enhancing bone regeneration. ‖ 结论:These emerging strategies highlight the critical role of interfacial phenomena in orchestrating complex cellular behaviours during bone regeneration.

局限

To overcome the limitations of current treatment strategies, a diverse array of bone repair materials has been developed to meet pressing clinical needs.;These preliminary findings underscore topography-driven mechanotransduction as a pivotal factor in bone-regenerative biomaterial design [].

对本项目的价值

★☆☆☆☆ 衰弱/肌少症是少有的已有监管认可终点的老年综合征,是临床转化的最短路径。

全文来源

PMC JATS 全文(正文 93,275 字符,已过标题/DOI 逐字归属校验)

原文题录

  • 英文标题:Advances in osteogenic niche engineering: integrating topography and electrical cues for bone repair and regeneration.
  • 期刊与标识:J Nanobiotechnology · PMID 42958509 · DOI 10.1186/s12951-026-04852-x

C 级证据分级:C 级(预印本 / 观点评论,非原始研究)

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