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使用脑部低温治疗模拟颅内减压的丙泊酚麻醉。

Simulation of propofol anaesthesia for intracranial decompression using brain hypothermia treatment.

作者信息

Gaohua Lu, Kimura Hidenori

机构信息

Bio-Mimetic Control Research Center, The Institute of Physical and Chemical Research (RIKEN) Nagoya, 463-0003, Japan.

出版信息

Theor Biol Med Model. 2007 Nov 29;4:46. doi: 10.1186/1742-4682-4-46.

Abstract

BACKGROUND

Although propofol is commonly used for general anaesthesia of normothermic patients in clinical practice, little information is available in the literature regarding the use of propofol anaesthesia for intracranial decompression using brain hypothermia treatment. A novel propofol anaesthesia scheme is proposed that should promote such clinical application and improve understanding of the principles of using propofol anaesthesia for hypothermic intracranial decompression.

METHODS

Theoretical analysis was carried out using a previously-developed integrative model of the thermoregulatory, hemodynamic and pharmacokinetic subsystems. Propofol kinetics is described using a framework similar to that of this model and combined with the thermoregulation subsystem through the pharmacodynamic relationship between the blood propofol concentration and the thermoregulatory threshold. A propofol anaesthesia scheme for hypothermic intracranial decompression was simulated using the integrative model.

RESULTS

Compared to the empirical anaesthesia scheme, the proposed anaesthesia scheme can reduce the required propofol dosage by more than 18%.

CONCLUSION

The integrative model of the thermoregulatory, hemodynamic and pharmacokinetic subsystems is effective in analyzing the use of propofol anaesthesia for hypothermic intracranial decompression. This propofol infusion scheme appears to be more appropriate for clinical application than the empirical one.

摘要

背景

尽管在临床实践中丙泊酚常用于体温正常患者的全身麻醉,但关于丙泊酚麻醉用于脑低温治疗颅内减压的文献资料很少。本文提出了一种新的丙泊酚麻醉方案,该方案应能促进此类临床应用,并增进对丙泊酚麻醉用于低温颅内减压原则的理解。

方法

使用先前开发的体温调节、血流动力学和药代动力学子系统的综合模型进行理论分析。丙泊酚动力学采用与该模型类似的框架进行描述,并通过血液丙泊酚浓度与体温调节阈值之间的药效学关系与体温调节子系统相结合。使用综合模型模拟了低温颅内减压的丙泊酚麻醉方案。

结果

与经验性麻醉方案相比,所提出 的麻醉方案可使所需丙泊酚剂量减少超过18%。

结论

体温调节、血流动力学和药代动力学子系统的综合模型在分析丙泊酚麻醉用于低温颅内减压方面是有效的。这种丙泊酚输注方案似乎比经验性方案更适合临床应用。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/d237/2217543/b08890565bfc/1742-4682-4-46-1.jpg

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