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不同轴向伸长率下兔股动、静脉的顺应性变化
http://www.100md.com 《医用生物力学》 2000年第3期
     作者:侯黎升 黄耀添 颉强 杨柳 赵黎

    单位:侯黎升(海军总医院骨科 100000);黄耀添 颉强 杨柳 赵黎(第四军医大学西京医院全军骨科研究所 710032)

    关键词:动脉;轴向伸长率;顺应性

    医用生物力学000303摘 要:不同轴向伸长率下兔股动、静脉的顺应性变化 THE COMPLIANCE CHANGE OF FEMORAL ARTERIES AND VEINS IN RABBIT WITH DIFFERENT AXIS STRETCH RATIO

    Huang Yao-tian

    (Institute of orthopaedic Xi-Jing Hospital, Fourth Military Medical University, PLA. Xi’an, 710032 P.R. China)
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    Hou Li-Sheng

    (Department of orthopaedic Navy General Hospital, PLA. Beijing P.R. China)

    Ji Qiang

    (Institute of orthopaedic Xi-Jing Hospital, Fourth Military Medical University, PLA. Xi’an, 710032 P.R. China)

    Abstract:Purpose: To investigate the compliance change of femoral arteries and veins in rabbit with different axis stretch ratio to evaluate the particular reference to the option of vascular repair. Methods: A mechanical analysis including stress-strain experiment and axis stretch ratio measurement was undertaken to evaluate the compliance change of femoral arteries and veins in rabbit with different axis stretch ratio. Results: The compliance is related to the pressure and the axis stretch ratio. In the artery pressure, the section area decreased 40% with axis stretch ratio of 1.9 than axis stretch ratio of 1.58 of femoral artery in rabbit, the same as that of vein. Conclusion: When the pressure was 1.19g on anastomoses, the compliance of femoral arteries was equal to that of veins in arterial pressure. And the inner diameter of femoral arteries decreased with the axis stretch ratio increasing. It suggested to repair the injuried vessel according to the biomechanical effect.
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    Keywords:Artery, Compliance, Axis Stretch Ratio

    基金项目:本课题为国家自然科学基金(19502009)资助

    参考文献:

    [1]McGeachie JK, Meagher S, Prendergast FJ. Vein to artery grafts: The longterm development of neo-intimal hyperplasia and its relationship to vasa vasorum and sympathetic innervation. Aust N ZJ Surg. 1989; 59: 59~65.

    [2]Chervu A, Moore WS. An overview of intimal hyperplasia. Surg Gynecol Obstet. 1990; 171: 433~477.
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    [3]Tuhler RE, Zhang L, Siebert JW, et al. Simutaneousl comparison of pre and post-microanastomotic hemodynamic profiles using a tandem Doppler probe. Microsugery. 1991; 12(1): 35~42.

    [4]Van Meek AL, Link WJ, Bennett JE, et al. Ultrasound evaluation of microanastomosis. Arch Surg, 1975; 110(8): 945.

    [5]Shen Q, Zong W, Jiang D, et al. A capacitive isometric tensile test device for soft tissue. Chinese J Biomech Instru. 1994; 18(6): 329~332.
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    [6]Crawzhaw HM, Quist WC, Serrallach E, et al. Flow disturbance at the distal end-to-side anastomosis.Arch Surg. 1980; 115: 1280~1284.

    [7]Bassiouny HS, White S, Glagov S, et al. Anastomotic intimal hyperplasia: mechanical injury or flow induced. J Vasc Surg. 1992; 15: 708~717.

    [8]侯黎升,黄耀添,招明高。兔股动脉裂隙宽度与实际缺损长度的关系。第四军医大学学报,1998: 19(4): 443~445。, 百拇医药