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天然葡萄糖调节系统的基本要素,如果能够被认识到,可能有助于改善重症监护病房环境中葡萄糖控制器的功能。

Essential elements of the native glucoregulatory system, which, if appreciated, may help improve the function of glucose controllers in the intensive care unit setting.

作者信息

DeJournett Leon

机构信息

Neurocath, Asheville, North Carolina, USA.

出版信息

J Diabetes Sci Technol. 2010 Jan 1;4(1):190-8. doi: 10.1177/193229681000400124.

Abstract

In 2001, Van den Berghe and colleagues were able to show that tight glucose control decreases morbidity and mortality rates in the intensive care unit (ICU) setting. Several large, prospective, randomized controlled trials have failed to confirm these results. All of these studies attempted tight glucose control using expert-designed algorithms to adjust the rate of intravenous insulin. Unfortunately, these studies each had high rates of hypoglycemia, a high percentage of glucose values outside of the target range, and increased glucose variability. These three measurements have been shown to increase mortality rates in ICU patients. In order to achieve a high rate of success with regards to tight glucose control, a closed-loop system will need to be created. The two main elements of such a system are a continuous glucose sensor and a recursive glucose control algorithm. This review highlights the important elements of the native glucoregulatory system, which, if utilized, may help create a successful glucose control algorithm for a closed-loop system.

摘要

2001年,范登伯格及其同事能够证明,在重症监护病房(ICU)环境中严格控制血糖可降低发病率和死亡率。多项大型前瞻性随机对照试验未能证实这些结果。所有这些研究都试图通过专家设计的算法来严格控制血糖,以调整静脉胰岛素的输注速率。不幸的是,这些研究均有低血糖发生率高、血糖值超出目标范围的比例高以及血糖变异性增加的问题。这三项指标已被证明会增加ICU患者的死亡率。为了在严格控制血糖方面取得高成功率,需要创建一个闭环系统。这样一个系统的两个主要要素是连续血糖传感器和递归血糖控制算法。本综述强调了天然葡萄糖调节系统的重要要素,如果加以利用,可能有助于为闭环系统创建成功的血糖控制算法。

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