Vaghela Ravikumar, Arkudas Andreas, Horch Raymund E, Hessenauer Maximilian
Department of Plastic and Hand Surgery, University Hospital of Erlangen, Friedrich-Alexander University Erlangen-Nürnberg (FAU), Erlangen, Germany.
Front Bioeng Biotechnol. 2021 Feb 17;9:627462. doi: 10.3389/fbioe.2021.627462. eCollection 2021.
Intravital microscopy (IVM) study approach offers several advantages over , , and 3D models. IVM provides real-time imaging of cellular events, which provides us a comprehensive picture of dynamic processes. Rapid improvement in microscopy techniques has permitted deep tissue imaging at a higher resolution. Advances in fluorescence tagging methods enable tracking of specific cell types. Moreover, IVM can serve as an important tool to study different stages of tissue regeneration processes. Furthermore, the compatibility of different tissue engineered constructs can be analyzed. IVM is also a promising approach to investigate host reactions on implanted biomaterials. IVM can provide instant feedback for improvising tissue engineering strategies. In this review, we aim to provide an overview of the requirements and applications of different IVM approaches. First, we will discuss the history of IVM development, and then we will provide an overview of available optical modalities including the pros and cons. Later, we will summarize different fluorescence labeling methods. In the final section, we will discuss well-established chronic and acute IVM models for different organs.
活体显微镜检查(IVM)研究方法相对于、和3D模型具有若干优势。IVM可对细胞事件进行实时成像,使我们能够全面了解动态过程。显微镜技术的快速发展使得以更高分辨率对深部组织进行成像成为可能。荧光标记方法的进步能够追踪特定细胞类型。此外,IVM可作为研究组织再生过程不同阶段的重要工具。此外,还可分析不同组织工程构建体的兼容性。IVM也是研究宿主对植入生物材料反应的一种有前景的方法。IVM可为改进组织工程策略提供即时反馈。在本综述中,我们旨在概述不同IVM方法的要求和应用。首先,我们将讨论IVM的发展历程,然后概述可用的光学模式,包括其优缺点。随后,我们将总结不同的荧光标记方法。在最后一部分,我们将讨论针对不同器官的成熟慢性和急性IVM模型。