Optical coherence tomography for in vivo longitudinal monitoring of artificial dermal scaffold

脚手架 光学相干层析成像 生物医学工程 体内 材料科学 组织工程 海绵 再生(生物学) 医学 放射科 生物 植物 细胞生物学 生物技术
作者
Ziye Chen,Qian Cheng,Lingyun Wang,Yunfeng Mo,Ke Li,Jianhua Mo
出处
期刊:Lasers in Surgery and Medicine [Wiley]
卷期号:55 (3): 316-326 被引量:1
标识
DOI:10.1002/lsm.23645
摘要

Abstract Objectives Artificial dermal scaffold (ADS) has undergone rapid development and been increasingly used for treating skin wound in clinics due to its good biocompatibility, controllable degradation, and low risk of disease infection. To obtain good treatment efficacy, ADS needs to be monitored longitudinally during the treatment process. For example, scaffold‐tissue fit, cell in‐growth, vascular regeneration, and scaffold degradation are the key properties to be inspected. However, to date, there are no effective, real‐time, and noninvasive techniques to meet the requirement of the scaffold monitoring above. Materials and Methods In this study, we propose to use optical coherence tomography (OCT) to monitor ADS in vivo through three‐dimensional imaging. A swept source OCT system with a handheld probe was developed for in vivo skin imaging. Moreover, a cell in‐growth, vascular regeneration, and scaffold degradation rate (IRDR) was defined with the volume reduction rate of the scaffold's collagen sponge layer. To measure the IRDR, a semiautomatic image segmentation algorithm was designed based on U‐Net to segment the collagen sponge layer of the scaffold from OCT images. Results The results show that the scaffold‐tissue fit can be clearly visualized under OCT imaging. The IRDR can be computed based on the volume of the segmented collagen sponge layer. It is observed that the IRDR appeared to a linear function of the time and in addition, the IRDR varied among different skin parts. Conclusion Overall, it can be concluded that OCT has a good potential to monitor ADS in vivo. This can help guide the clinicians to control the treatment with ADS to improve the therapy.
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