[Installed strategy and clinical observation of self-made extracorporeal membrane oxygenation system in the treatment of critically ill patients].

Q3 Medicine
Yue Chen, Xiaoliang Qian, Lidong Dou, Jianchao Li
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引用次数: 0

Abstract

Objective: To summarize the strategy and method for the treatment of critically ill patients with self-made extracorporeal membrane oxygenation (ECMO) system.

Methods: A observative study was conducted. Fifty-six patients with ECMO assisted support in Fuwai Central China Cardiovascular Disease Hospital from December 2020 to December 2021 were enrolled. According to the clinical situation of the patients and the wishes of the family, conventional ECMO package (conventional group) or self-made ECMO package (self-made group) was chosen. In the conventional group, the disposable ECMO package was used to install the machine, pre charge and exhaust the air. In the self-made group, the disposable consumables commonly used in extracorporeal circulation during cardiac surgery (including centrifugal pump heads, membrane oxygenation, tubes, connectors, etc.) were used to create a self-made ECMO system. Based on the patient's situation, personalized tube model selection and length control were carried out. The preparation time, auxiliary time, auxiliary method, total pre charge volume, free hemoglobin (FHb) levels after 2 hours of ECMO operation and operating costs, as well as changes in hemodynamics, arterial blood gas analysis, and blood indicators within 48 hours after ECMO placement in the two groups were recorded. The occurrence of adverse events related to the ECMO system during ECMO adjuvant therapy in two groups was simultaneously observed.

Results: Fifty-six patients were enrolled finally, with 28 cases in the conventional group and 28 cases in the self-made group, and all successfully completed the operation of ECMO. There was no statistically significant difference in ECMO system preparation time, auxiliary time, auxiliary method, and FHb levels after 2 hours of ECMO operation between the conventional group and the self-made group [preparation time (minutes): 13±4 vs. 15±5, auxiliary time (hours): 287±34 vs. 276±42, veno-arterial ECMO (cases): 22 vs. 24, veno-venous ECMO (cases): 6 vs. 4, FHb after 2 hours of ECMO operation (mg/L): 226±67 vs. 253±78, all P > 0.05]. However, the total pre charge volume and operating costs in the self-made group were significantly lower than those in the conventional group [total pre charge volume (mL): 420±25 vs. 650±10, operating costs (ten thousand yuan): 3.8±0.4 vs. 6.7±0.3, both P < 0.01]. The hemodynamics, arterial blood gas analysis, and blood indicators of patients in the two groups were relatively stable within 48 hours after ECMO operation, and most of the indicators between the two groups showed no statistically significant differences. The hemoglobin (Hb) levels at 12, 24, and 48 hours after the machine transfer in the self-made group were significantly higher than those in the conventional group (g/L: 128.5±23.7 vs. 117.5±24.3 at 12 hours, 121.3±31.3 vs. 109.6±33.2 at 24 hours, 118.5±20.1 vs. 105.2±25.7 at 48 hours, all P < 0.05). Both groups of patients did not experience any adverse event related to the ECMO system, such as membrane pulmonary infiltration, joint detachment, and massive hemolysis, during the ECMO assisted treatment process.

Conclusions: When implementing ECMO for critically ill patients in clinical practice, a self-made ECMO system with disposable consumables commonly used in extracorporeal circulation during cardiac surgery can be used for cardiopulmonary function assistance support, thereby saving patients medical costs and alleviating their dependence on disposable ECMO package in clinical practice.

[自制体外膜氧合系统在危重病人治疗中的安装策略和临床观察]。
摘要总结自制体外膜氧合(ECMO)系统治疗重症患者的策略和方法:方法:进行一项观察性研究。选取 2020 年 12 月至 2021 年 12 月期间在阜外华中心血管病医院接受 ECMO 辅助支持的 56 例患者作为研究对象。根据患者的临床情况和家属意愿,选择常规 ECMO 套餐(常规组)或自制 ECMO 套餐(自制组)。在常规组中,一次性 ECMO 包用于安装机器、预充电和排气。自制组则使用心脏手术体外循环中常用的一次性消耗品(包括离心泵头、膜氧合器、管道、接头等)来自制 ECMO 系统。根据患者的情况,进行了个性化的管道型号选择和长度控制。记录了两组患者的准备时间、辅助时间、辅助方法、预充电总量、ECMO 运行 2 小时后的游离血红蛋白(FHb)水平和运行费用,以及 ECMO 置管后 48 小时内的血流动力学变化、动脉血气分析和血液指标。同时观察两组患者在 ECMO 辅助治疗期间发生的与 ECMO 系统相关的不良事件:结果:最终入选的 56 例患者中,常规组 28 例,自制组 28 例,均顺利完成了 ECMO 操作。常规组和自制组的 ECMO 系统准备时间、辅助时间、辅助方法和 ECMO 操作 2 小时后的 FHb 水平差异无统计学意义[准备时间(分钟):13±4 vs. 15±5:准备时间(分钟):13±4 vs. 15±5,辅助时间(小时):287±34 vs. 276±5287±34 对 276±42,静脉-动脉 ECMO(例):22 vs. 24,静脉-静脉 ECMO(例):6 vs. 4,ECMO 运行 2 小时后 FHb(毫克/升):226±67 vs. 253±78,所有 P > 0.05]。然而,自制组的预充总量和手术费用明显低于常规组[预充总量(mL):420±25 vs. 650±10,手术费用(万元):3.8±0.4 vs. 3.8±0.4(P<0.05)]:3.8±0.4 vs. 6.7±0.3,均 P <0.01]。ECMO 术后 48 小时内,两组患者的血流动力学、动脉血气分析、血液指标相对稳定,两组间大部分指标差异无统计学意义。自制组转机后 12、24、48 小时的血红蛋白(Hb)水平明显高于常规组(g/L:12 小时 128.5±23.7 vs. 117.5±24.3,24 小时 121.3±31.3 vs. 109.6±33.2,48 小时 118.5±20.1 vs. 105.2±25.7,均 P <0.05)。在 ECMO 辅助治疗过程中,两组患者均未发生任何与 ECMO 系统相关的不良事件,如膜肺浸润、关节脱落和大量溶血:结论:在临床实践中为危重病人实施 ECMO 时,可使用自制的 ECMO 系统和心脏手术体外循环中常用的一次性耗材进行心肺功能辅助支持,从而节省患者的医疗费用,并减轻临床实践中对一次性 ECMO 包的依赖。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Zhonghua wei zhong bing ji jiu yi xue
Zhonghua wei zhong bing ji jiu yi xue Medicine-Critical Care and Intensive Care Medicine
CiteScore
1.00
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0.00%
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42
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