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Comparative study on effects of burn-blast combined injury and burn-firearm combined injury complicated with seawater immersion on vascular endothelial cells 被引量:4

Comparative study on effects of burn-blast combined injury and burn-firearm combined injury complicated with seawater immersion on vascular endothelial cells
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摘要 Objective: To comparatively study the effects and mechanisms of burn-blast combined injury and burn-firearm combined injury complicated with seawater immersion on vascular endothelial cells. Methods: A total of 40 healthy adult hybrid dogs of both sexes, weighing 12-15 kg, were used in this study. Randomly-selected 20 dogs were established as models of burn-blast combined injury (the burn-blast injury group) and the other 20 dogs as models of burn-firearm combined injury (the burn-firearm injury group). Then the wounds of all the dogs were immediately immersed in seawater for 4 hours, and then they were taken out from the seawater. Blood samples were withdrawn from the central vein of the dogs before injury, and at 4, 7, 10, 20, and 28 hours after injury to measure the circulating endothelial cells and the von Willebrand factor. Results: Circulating endothelial cells increased significantly at 4 hours after injury in all the dogs. But they reached peak at 7 hours after injury in the burn-blast injury group and at 28 hours after injury in the burn-firearm injury group. The changes of circulating endothelial cells in the burn-blast injury group were significantly different from those in the burn-firearm injury group at 4, 7, 20, and 28 hours after injury (P<(0.01)). The von Willebrand factor reached peak at 4 hours after injury in the burn-blast injury group and at 28 hours in the burn-firearm injury group. The changes of von Willebrand factor in the burn-blast injury group were significantly different from those in the burn-firearm injury group at 4, 20, and 28 hours after injury (P<(0.01)). Conclusions: In burn-blast injury combined with seawater immersion, the vascular endothelial cells changed most significantly at 4 hours or 7 hours after injury, while burn-firearm injury combined with seawater immersion have the same at 20 hours or 28 hours after injury. Objective: To comparatively study the effects and mechanisms of burn-blast combined injury and burn-firearm combined injury complicated with seawater immersion on vascular endothelial cells. Methods: A total of 40 healthy adult hybrid dogs of both sexes, weighing 12-15 kg, were used in this study. Randomly-selected 20 dogs were established as models of burn-blast combined injury (the burn-blast injury group) and the other 20 dogs as models of burn-firearm combined injury (the burn-firearm injury group). Then the wounds of all the dogs were immediately immersed in seawater for 4 hours, and then they were taken out from the seawater. Blood samples were withdrawn from the central vein of the dogs before injury, and at 4, 7, 10, 20, and 28 hours after injury to measure the circulating endothelial cells and the von Willebrand factor. Results: Circulating endothelial cells increased significantly at 4 hours after injury in all the dogs. But they reached peak at 7 hours after injury in the burn-blast injury group and at 28 hours after injury in the burn-firearm injury group. The changes of circulating endothelial cells in the burn-blast injury group were significantly different from those in the burn-firearm injury group at 4, 7, 20, and 28 hours after injury (P<(0.01)). The von Willebrand factor reached peak at 4 hours after injury in the burn-blast injury group and at 28 hours in the burn-firearm injury group. The changes of von Willebrand factor in the burn-blast injury group were significantly different from those in the burn-firearm injury group at 4, 20, and 28 hours after injury (P<(0.01)). Conclusions: In burn-blast injury combined with seawater immersion, the vascular endothelial cells changed most significantly at 4 hours or 7 hours after injury, while burn-firearm injury combined with seawater immersion have the same at 20 hours or 28 hours after injury.
出处 《Chinese Journal of Traumatology》 CAS 2005年第3期147-150,共4页 中华创伤杂志(英文版)
基金 Thisprojectwassupportedby"theArmyInstructiveItem (No.01L011)".
关键词 烧伤 创伤 枪伤 海水沉浸 血管细胞 联合损伤 Endothelial cells Burns Blast injuries Firearms Seawater Dogs
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  • 1Liu HQ,Huang LN.The change of blood coagulation function in dogs after blast injury[].Journal of Clinical Anesthesia.1990
  • 2Takahashi H,Ito S,Hanano M,et al.Circulating thrombomodulin as a novel endothelial cell marker: comparison of its behavior with von Willebrand factor and tissue-type plasminogen activator[].American Journal of Hematology.1992
  • 3Samaden A,Piovella F,Almasio P,et al.Isolation and growth of human endothelial cells from peripheral blood by PVPsilica density gradients[].Bollettino Societa Italiana di Biologia Sperimentale.1985
  • 4Doronin IUG,Grigor ev VV.Light optical and electron microscopic changes in striated muscle tissue under the effects of sea water and thymogen in experimental animal[].Biulleten Eksperimental noi Biologii Imeditsiny.1992
  • 5Wang ZG.An overview of recent developments in the management and research of trauma[].Annals Academy of Medicine Singapore.1997
  • 6Lai X,Liu Y,Wang J,et al.Injury to vascular endothelial cells and the change of plasma endothelin level in dogs with gunshot wounds[].The Journal of Trauma.1996
  • 7Lai XN,Huang H,Wu GP,et al.Surgical criteria for devitalized tissue after firearm injury with seawater immersion[].Chin J Nautical Med.2000
  • 8Takahashi H,Harker LA.Measurement of human endothelial cells in whole blood[].Thrombosis Research.1983
  • 9Brown RF,Cooper GJ,Maynard RL.The ultrastructure of rat lung following primary blast injury[].International Journal of Experimental Pathology.1993

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