Emerging microfluidics for the modeling and treatment of arthritis

Q1 Medicine Engineered regeneration Pub Date : 2024-03-07 DOI:10.1016/j.engreg.2024.02.002
Nengjie Yang , Chi Sun , Chen Dong , Yuting Huang , Yujuan Zhu , Zhifeng Gu
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Abstract

Microfluidic is a technology that allows the precise control of fluid in a micro-channel. With its advantages of high throughput and low cost, microfluidic technology has achieved good performance in various fields in recent years. Arthritis is a general term for a variety of joint diseases, which can be clinically manifested as joint pain and swelling, seriously affecting people's physical and mental health. At present, the causes of arthritis disease are still unknown, and existing disease models and treatment methods are still limited, so more treatments need to be developed. Microfluidic organ chip is a cutting-edge technology to build a bionic human organ model, which can reflect the structure and function characteristics of human organs by simulating the physiological environment of tissues and cells in vitro. This paper reviews the application of microfluidic technology in the modeling and treatment of arthritis, hoping to open up a new vision for the study of arthritis.

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用于关节炎建模和治疗的新兴微流控技术
微流体技术是一种可以精确控制微通道中流体的技术。近年来,微流控技术以其高通量、低成本等优势,在各个领域取得了良好的应用效果。关节炎是多种关节疾病的总称,临床表现为关节疼痛、肿胀,严重影响人们的身心健康。目前,关节炎的发病原因尚不明确,现有的疾病模型和治疗方法也还很有限,因此需要开发更多的治疗方法。微流控器官芯片是构建仿生人体器官模型的前沿技术,通过模拟体外组织和细胞的生理环境,反映人体器官的结构和功能特征。本文综述了微流控技术在关节炎建模和治疗中的应用,希望能为关节炎的研究开拓新的视野。
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来源期刊
Engineered regeneration
Engineered regeneration Biomaterials, Medicine and Dentistry (General), Biotechnology, Biomedical Engineering
CiteScore
22.90
自引率
0.00%
发文量
0
审稿时长
33 days
期刊最新文献
Asymmetric porous composite hydrogel patch for microenvironment-adapted repair of contaminated abdominal wall defects Novel injectable composite incorporating denosumab promotes bone regeneration via bone homeostasis regulation Bone improvement in osteoporotic rabbits using CoCrMo implants Polyphenol-based photothermal nanoparticles with sprayable capability for self-regulation of microenvironment to accelerate diabetic wound healing Corrigendum to “The Artificial Disc Nucleus and Other Strategies for Replacement of the Nucleus Pulposus: Past, Present and Future Designs for an Emerging Surgical Solution” [Engineered Regeneration 5(2024), 269-281]
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