Biomimetic-smart materials for osteochondral regeneration and repair

Qi-Peng Jia, Qunfeng Li, Hamza Boucetta, Z. Xu, Lingxiao Zhang
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Abstract

Osteochondral injuries represent prevalent clinical conditions with profound implications for functional impairment and diminished quality of life. Despite the considerable potential of tissue engineering in osteochondral repair, substantial strides in clinical implementation remain elusive. Biomimetic materials, designed to emulate natural cartilage, offer a stabilized structure and microenvironment capable of accommodating the diverse properties inherent in different cartilage regions. Smart materials, endowed with the ability to deliver drugs, metal ions, and growth factors contingent on the disease progression, exert precise control over the microenvironment and cellular epigenetic behaviors. This review scrutinizes the nuanced characteristics of cartilage in both physiological and pathological states. Subsequently, a succinct overview of recent applications of biomaterials with bionic and smart attributes in osteochondral regeneration and repair is provided. Finally, we propose our perspectives on the application of biomimetic-smart materials in osteochondral regeneration and repair, emphasizing their potential clinical translation.
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用于骨软骨再生和修复的仿生智能材料
骨软骨损伤是一种常见的临床病症,对功能障碍和生活质量的降低有着深远的影响。尽管组织工程在骨软骨修复方面具有相当大的潜力,但在临床应用方面仍未取得实质性进展。仿生材料旨在模拟天然软骨,提供稳定的结构和微环境,能够适应不同软骨区域固有的各种特性。智能材料具有根据疾病进展情况递送药物、金属离子和生长因子的能力,可对微环境和细胞表观遗传行为进行精确控制。这篇综述仔细研究了软骨在生理和病理状态下的细微特征。随后,简要概述了具有仿生和智能特性的生物材料在骨软骨再生和修复中的最新应用。最后,我们就仿生智能材料在骨软骨再生和修复中的应用提出了自己的观点,并强调了其潜在的临床应用前景。
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