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人工房水腔和 3D 打印虹膜:一种新的用于教学 Descemet 膜内皮角膜移植术的湿实验室模型。

Artificial chamber and 3D printed iris: a new wet lab model for teaching Descemet's membrane endothelial keratoplasty.

机构信息

Cornea, External Disorders and Refractive Surgery Department, Fondation Ophtalmologique A. de Rothschild, Paris, France.

Hospital Bichat Claude Bernard, Paris, France.

出版信息

Acta Ophthalmol. 2019 Mar;97(2):e179-e183. doi: 10.1111/aos.13852. Epub 2018 Sep 26.

DOI:10.1111/aos.13852
PMID:30259685
Abstract

PURPOSE

To describe a new wet lab model of Descemet membrane endothelial keratoplasty (DMEK) using human corneas mounted on an artificial anterior chamber with an artificial iris and to compare the performance time and scores between beginners and experienced anterior segment surgeons.

METHODS

Corneas were mounted on an artificial chamber. To simulate an anterior chamber and to avoid loosing the graft into the tubing, a 3D printed iris was added. Each DMEK procedure required only one cornea for graft preparation, insertion, orientation, unfolding and centration. Ten human research corneas were used for training purposes. Intraoperative OCT was only used to validate the different steps of the procedure. Operators were divided into two groups, two beginners and three experienced DMEK surgeons.

RESULTS

All DMEK procedures were successfully performed. Descemet's tears were frequent but harvesting was successful in all procedures. All combinations of graft unfolding techniques were possible. Experienced surgeons performed statistically better then beginners with faster harvesting (12.8 versus 28.2 min; p = 0.02) and insertion (13.5 versus 20.8 min; p = 0.05) times and better performance score (94 versus 52; p = 0.03).

CONCLUSION

This DMEK wet lab model offers a close to reality, feasible, resource-sparing and valid teaching technique that permits to perform all DMEK surgical steps. It also offers the possibility of varying the surgical difficulty by changing the anterior chamber depth.

摘要

目的

描述一种新的 Descemet 膜内皮角膜移植术(DMEK)湿实验室模型,使用安装在具有人工虹膜的人工前房上的人眼角膜,并比较初学者和有经验的眼前节外科医生之间的操作时间和评分。

方法

将角膜安装在人工室上。为了模拟前房并避免移植物掉入管道,添加了 3D 打印虹膜。每个 DMEK 手术仅需要一个角膜用于移植物准备、插入、定向、展开和定位。使用了十个人类研究角膜进行培训目的。术中 OCT 仅用于验证该程序的不同步骤。操作人员分为两组,两名初学者和三名有经验的 DMEK 外科医生。

结果

所有 DMEK 手术均成功完成。尽管经常发生 Descemet 撕裂,但所有手术均成功进行了采集。所有展开技术组合都是可能的。有经验的外科医生在采集(12.8 分钟比 28.2 分钟;p=0.02)和插入(13.5 分钟比 20.8 分钟;p=0.05)时间以及更好的表现评分(94 分比 52 分;p=0.03)方面表现明显优于初学者。

结论

这种 DMEK 湿实验室模型提供了一种接近现实、可行、资源节约且有效的教学技术,可执行所有 DMEK 手术步骤。它还通过改变前房深度提供了改变手术难度的可能性。

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