再生(生物学)
传出细胞增多
组织工程
组织修复
生物医学工程
材料科学
化学
医学
细胞生物学
生物
生物化学
巨噬细胞
体外
作者
Yueqi Zhang,Rong Nie,Zi-Yuan Feng,Ming‐Hui Fan,Zhixue Shen,Xiuzhen Zhang,Qingyi Zhang,Chen‐Yu Zou,Jiye Zhang,Kai Huang,Li-Ping Mou,Huiqi Xie
标识
DOI:10.1016/j.bioactmat.2025.05.026
摘要
This comprehensive review elucidates the critical role of efferocytosis in tissue repair and regeneration processes, while systematically exploring innovative approaches through which tissue engineering strategies can modulate efferocytosis to optimize these biological processes. The manuscript is structured to first establish a fundamental understanding of efferocytosis, encompassing its core concepts, molecular mechanisms, and physiological functions within tissue repair. Subsequently, it provides an in-depth analysis of the regulatory role of efferocytosis in inflammatory response modulation during tissue repair cascades. The review culminates in a detailed investigation of cutting-edge tissue engineering applications specifically designed to manipulate efferocytosis pathways. Substantial evidence from recent studies has unequivocally demonstrated that efferocytosis serves as a crucial biological process in maintaining tissue homeostasis and orchestrating injury repair mechanisms. In this context, tissue engineering has emerged as a transformative approach, offering precise control over efferocytosis enhancement, inflammation resolution, and tissue regeneration processes. Through sophisticated integration of bioactive factor regulation, advanced scaffolding materials, and targeted cellular interactions, tissue engineering platforms have established novel therapeutic paradigms, providing unprecedented insights and innovative strategies for the treatment of diverse pathological conditions. • First synthesis integrates efferocytosis with bioengineering to bridge literature gap. • Efferocytosis is a key tissue homeostasis and inflammation regulator, emerging as a clinical translation target. • Exploring strategies of biological factors, materials, and cell interactions to regulate efferocytosis for tissue repair.
科研通智能强力驱动
Strongly Powered by AbleSci AI