一种新型直接穿刺插管血泵支持系统:心脏骤停治疗方法的体内实验证明。

Yasuyuki Shiraishi, Francis Chikweto, Hanako Suzuki, Toshihiko Kijima, Aoi Fukaya, Hideyuki Horie, Kazushi Ishiyama, Tomoyuki Yambe
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引用次数: 0

摘要

院外心脏骤停率随着超高龄社会年龄比例的变化而增加。我们开发了一种新的经皮插管式机械循环系统,使用小型离心血泵作为心脏骤停的替代治疗方法。我们提出了一种经皮机械循环支持装置,能够快速安装和快速启动循环支持,用于心脏骤停后的恢复,采用Seldinger技术直接穿刺左心室。该导管由三部分组成:a)双层圆柱形血泵外壳,b)主要安装在导管内部的离心血泵叶轮,c)带磁力联轴器的可插入执行器。导管流入的特殊之处在于它是调节心室穿刺过程中回流的防回流装置。在这项研究中,我们进行了一项体内实验,将直接插管离心血泵安装在由心室颤动引起的心脏骤停后的山羊身上,作为概念验证。初步结果表明,机械循环支持装置从插管开始安装1分钟左右即可在短时间内启动,在1.6 L/min、13000 rpm的插管泵辅助流量下,对心脏骤停后的恢复有效。因此,这种新方法可能有助于快速启动机械循环支持。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Novel Direct Puncture Cannulation Blood Pump Support System: in Vivo Experimental Proof of Concept for a Therapeutic Approach with Cardiac Arrest.

The rate of out-of-hospital cardiac arrest is increasing according to the changes in the proportion of ages in super-aged society. We developed a novel transcutaneous cannulation-type mechanical circulatory system for an alternative therapeutic approach to cardiac arrest using a small centrifugal blood pump. We proposed a transcutaneous mechanical circulatory support capable of rapid installation and quick start of circulatory support for recovery after cardiac arrest by left ventricular direct puncture using the Seldinger technique. The cannula consisted of three components as follows: a) a double-layered cylindrical blood pump housing, b) a centrifugal blood pump impeller primarily installed inside of the cannula, and c) an insertable actuator with magnet coupling. The special feature of the cannula inflow was a backflow resistive unit for adjusting backflow in the process of ventricular puncture. In this study, we performed an in vivo experiment to install the direct cannulation centrifugal blood pump on a goat after cardiac arrest induced by ventricular fibrillation as a proof of concept. As a primary result, the mechanical circulatory support could start in a short period by around one minute installation from the start of cannulation, which could be effective for the recovery after cardiac arrest under the assisted flow of 1.6 L/min at 13,000 rpm of the cannulation pump. Consequently, the novel approach may be useful for the prompt start of mechanical circulatory support.

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