| Peer-Reviewed

The Effect of BP Measurement Velocity on Noninvasive BP Measurement Value Was Studied by Establishing the Blood Pressure Measurement Running Model

Received: 11 April 2019    Accepted:     Published: 15 June 2019
Views:       Downloads:
Abstract

Objective Through the establishment of blood pressure measurement running model, the relationship between the blood pressure measurement velocity and the noninvasive blood pressure measurement value was calculated, then the accuracy of noninvasive blood pressure measurement was evaluated. Methods First, the basis of establishing the blood pressure measurement running model: the origin and nature of the blood pressure auscultation sound (BPAS) which was also confirmed as the main component of Korotkoff-sound was determined by the resonance theory of blood pressure measurement and its confirming experiments from the perspective of evidence-based medicine. The BPAS was a vibration sound which coming from the vibration of closing mitral valve and being homologous with the first heart sound and also possessing resonant nature. It was located between the first heart sound and the second heart sound on the synchronization graph of artery and heart, this meant that the Korotkoff-sound was a sound of systolic period in cardiac cycle; Second, establishing the blood pressure measurement running model: the cardiac cycle was divided into 6 equal parts in which 3 ones were in systolic period and another 3 ones were in diastolic period, then 6 pressure measurement lines were imagined and the speed that the gas flow out of the cuff was in control from 1-10mmHg/per beating and the systolic pressure measurement value was calculated using mathematical methods, the principle of value reading was to use round figure; In final, setting up the ideal tested individuals: imagining the individual's systolic pressure of each beating was always 130mmHg, the heart rate was 60/min. Results When the blood pressure measurement velocity was 1mmHg/per beating, two numbers of 130 and 129mmHg were calculated; when the velocity was 2 to 3mmHg/per beating, three numbers of 130,129 and 128mmHg were calculated; when the velocity was 4 to 5mmHg/per beating, five numbers from 130 to 126mmHg were calculated; when the velocity was 10mmHg/per beating, nine numbers from 130 to 122mmHg were calculated; Conclusion The faster the blood pressure measurement velocity was, the wider the range of blood pressure measurement value was, and then the greater the measurement error was. The blood pressure measurement velocity can greatly affect the systolic blood pressure measurement value ,and this is also an important factor of fluctuation in blood pressure.

Published in Science Discovery (Volume 7, Issue 3)
DOI 10.11648/j.sd.20190703.16
Page(s) 165-171
Creative Commons

This is an Open Access article, distributed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution and reproduction in any medium or format, provided the original work is properly cited.

Copyright

Copyright © The Author(s), 2024. Published by Science Publishing Group

Keywords

Blood Pressure Measurement Velocity, Blood Pressure Measurement Value, Blood Pressure Measurement Running Model, Blood Pressure Auscultation Sound, Resonance Theory, Phonoarteriogram, Phonocardiogram

References
[1] 张旭芳,焦守凤,韩艳.影响血压测量值误差原因分析.中国误诊学杂志,2011,11(16):3902-3903.
[2] 董静,任丽洁,崔福江.血压测量结果误差原因分析.卫生职业教育,2015,33(13):102-103.
[3] 王海燕,柴萍.120例患者应用三种血压计的测量结果及分析.临床研究,2015,23(12):79-80.
[4] 王滨涛,王柏岩.血压听诊音性质的理论探讨[J].中国卫生产业,2015,12(23):9-12.
[5] 王滨涛,王柏岩.血压测量共振理论的实验验证(一):动脉脉音图特点及波形命名.中华高血压杂志2017,25(1):69-74.
[6] 王滨涛,王柏岩.血压测量共振理论的实验验证(二):动脉脉音和血压听诊音的起源.中华高血压杂志2017,25(2):157-162.
[7] 王滨涛,王柏岩.血压测量共振理论的实验验证(三):血压听诊音的性质.中华高血压杂志2017,25(3):258-263.
[8] 刘大为.临床血流动力学[M].北京:人民卫生出版社,2013: 19.
[9] Zanchetti, Alberto;Mancia,Giuseppe. The centenary of blood pressure measurement: a tribute to Scipione Riva-Rocci. Journal of Hypertension. 1996,14(1):1-12.
[10] 来芬华,金琦.40例休克患者应用有创血压与无创血压监测的比较.护理与康复,2008,7(4):288-289.
[11] 蔡丽萍,王警卫,陈晓茜等。无创和有创血压监测在手术中的应用.武警医学院学报,2008,17(5):443-444.
[12] 陈业群,潘红星。高校学生无创与有创血压的对比.汕头大学医学院学报,2012,25(2):101-107.
[13] 邹春莉,何义平,于瑞英等。高血压危象病人无创血压与有创血压测量差别的对比研究.实用护理杂志,2003,19(7):1-2.
[14] 刘丽萍,陈建昌,徐卫亭。有创性血压和无创性血压的对比分析.中国误诊学杂志,2007,7(24):5738-5739.
[15] 司徒敏雄,马敬香,余家康。危重症婴幼儿有创血压与无创血压监测临床价值对比分析.中国实用儿科杂志,2004,19(7):438.
[16] 陈洪夏,高传玉。心脏介入治疗时有创血压与无创血压监测对比分析.中国误诊学杂志,2006,6(6):1093-1094.
[17] 潘英梅。有创动脉血压监测在ICU危重病人中的护理.中外医疗,2014,11:176-177.
[18] 方建中,柳国胜,吴立文等.有创及无创血压监测在新生儿重症监护的应用对比研究.中国新生儿科杂志,2013,28(4)252-255.
[19] 宋林萍,张星火,顾秀丽等.97例休克患者有创血压与无创血压监测的相关性研究.中华护理杂志,2000,35(5):302-303.
[20] 宋稳丹.有创血压与无创血压在心脏手术后血压监测方面的对比分析.吉林医学,2011,32(27):5665.
[21] 曹权,张萍,宋燕波等.有创与无创血压监测分析.临床麻醉学杂志,2005,21(8):571-572.
[22] 刘春莲.心脏术后早期有创血压与无创血压监测的对比分析.医学信息2010,5(11):3131-3132.
[23] 姚维红.有创血压和无创血压测量值的比较.现代中西医结合杂志,2007,16(31):4643.
[24] 任春霞,姜小鹰.心内直视术后有创血压与无创血压监测的对照研究.护理研究,2006,20(8):2009-2010.
[25] 张国强,倪锦,王怀贞等.婴幼儿无创和有创动脉血压对比研究.国际医药卫生导报,2006,12(12):26-27.
[26] 林小红.休克早期患者有创和无创血压监测的比较.护士进修杂志,2008,23(3):265-266.
[27] 李宙,王首红,郭伟新.老年重症患者无创与有创血压测量的比较.中国老年学杂志,2009,29:1738-1739.
[28] 陈玉兰,谢碧,郭晓川.危重患者有创血压与无创血压监测的比较.内蒙古中医药,2013,22:137.
[29] 胡星兰,卜晓星,袁春凤.成人有创血压及无创血压测量值的比较.实用临床医学,2006,7(8):149-151.
[30] 谢谦.60例心脏外科术后有创血压与无创血压监测的对比分析.中国医药指南,2013,11(34):174-175. 13
[31] 邹春莉,何义平,李飞娥等.高血压病人无创血压值与有创血压值的对比研究.护理学杂志,2003,18(4):248-250.
[32] 魏化冰,刘培娟,黄影华.人工机械瓣置换术后有创血压与无创血压监测的对照研究.中国实用护理杂志,2009,25(4):22-23. x
[33] 张金凤.90例心脏外科术后有创血压与无创血压监测结果的对比.医学信息,2014,27(10):323.
[34] 张鑫,皮红英.有创血压监测与无创血压监测相关性分析.中华现代护理杂志,2013,19(11):1275-1277.
[35] 王晓玲.重症心脏病人术后有创血压与无创血压监测的对比性探讨.安徽医学,2004,25(4):339-340.
[36] 詹鑫.体外循环术后有创血压与无创血压的比较.中国现代药物应用,2010,4(20):175-176.
[37] 陈媚,高叶青.休克患者有创血压与无创血压产生差异的原因分析.医学理论与实践,2008,21(12):1407-1408.
[38] 石绍南,李向阳,王美艳.患儿有创血压与无创血压的相关性研究.中国医药指南,2004,2(12):961-962.
[39] 向峦.冠状动脉旁路移植术后患者有创血压与无创血压的对比研究.河北医药,2011,33(10):1483-1484.
[40] 丁振江,单伟超,张英等.不同臂围有创血压与无创血压测量结果的对比分析.承德医学院学报,2013,30(5):389-391.
[41] 李潇丹,曲彦.上肢有创血压与无创血压的差异分析.中国医药科学,2012,2(23):18-20.
[42] 朱健, 蔡慧芬.有创及无创血压监测在休克患者中的应用对比.现代中西医结合杂志,2007,16(4):492.
[43] 田宝石,郭旋,陈丽哲等。昏迷患者监测有创血压与无创血压的临床意义.临床误诊误治,2008,21(11):31-32
[44] 王凤.麻醉后监测治疗室有创血压与无创血压相关性的研究.中国护理管理,2014,14增刊:18-19
[45] 俞晓薇,丁振江,赵洁等.老年人主动脉有创血压测量与肱动脉无创血压测量对比 研究.河北医药,2011,33(8):1161-1162.
Cite This Article
  • APA Style

    Du Xuelian, Wang Bingtao, Wang Baiyan. (2019). The Effect of BP Measurement Velocity on Noninvasive BP Measurement Value Was Studied by Establishing the Blood Pressure Measurement Running Model. Science Discovery, 7(3), 165-171. https://doi.org/10.11648/j.sd.20190703.16

    Copy | Download

    ACS Style

    Du Xuelian; Wang Bingtao; Wang Baiyan. The Effect of BP Measurement Velocity on Noninvasive BP Measurement Value Was Studied by Establishing the Blood Pressure Measurement Running Model. Sci. Discov. 2019, 7(3), 165-171. doi: 10.11648/j.sd.20190703.16

    Copy | Download

    AMA Style

    Du Xuelian, Wang Bingtao, Wang Baiyan. The Effect of BP Measurement Velocity on Noninvasive BP Measurement Value Was Studied by Establishing the Blood Pressure Measurement Running Model. Sci Discov. 2019;7(3):165-171. doi: 10.11648/j.sd.20190703.16

    Copy | Download

  • @article{10.11648/j.sd.20190703.16,
      author = {Du Xuelian and Wang Bingtao and Wang Baiyan},
      title = {The Effect of BP Measurement Velocity on Noninvasive BP Measurement Value Was Studied by Establishing the Blood Pressure Measurement Running Model},
      journal = {Science Discovery},
      volume = {7},
      number = {3},
      pages = {165-171},
      doi = {10.11648/j.sd.20190703.16},
      url = {https://doi.org/10.11648/j.sd.20190703.16},
      eprint = {https://article.sciencepublishinggroup.com/pdf/10.11648.j.sd.20190703.16},
      abstract = {Objective Through the establishment of blood pressure measurement running model, the relationship between the blood pressure measurement velocity and the noninvasive blood pressure measurement value was calculated, then the accuracy of noninvasive blood pressure measurement was evaluated. Methods First, the basis of establishing the blood pressure measurement running model: the origin and nature of the blood pressure auscultation sound (BPAS) which was also confirmed as the main component of Korotkoff-sound was determined by the resonance theory of blood pressure measurement and its confirming experiments from the perspective of evidence-based medicine. The BPAS was a vibration sound which coming from the vibration of closing mitral valve and being homologous with the first heart sound and also possessing resonant nature. It was located between the first heart sound and the second heart sound on the synchronization graph of artery and heart, this meant that the Korotkoff-sound was a sound of systolic period in cardiac cycle; Second, establishing the blood pressure measurement running model: the cardiac cycle was divided into 6 equal parts in which 3 ones were in systolic period and another 3 ones were in diastolic period, then 6 pressure measurement lines were imagined and the speed that the gas flow out of the cuff was in control from 1-10mmHg/per beating and the systolic pressure measurement value was calculated using mathematical methods, the principle of value reading was to use round figure; In final, setting up the ideal tested individuals: imagining the individual's systolic pressure of each beating was always 130mmHg, the heart rate was 60/min. Results When the blood pressure measurement velocity was 1mmHg/per beating, two numbers of 130 and 129mmHg were calculated; when the velocity was 2 to 3mmHg/per beating, three numbers of 130,129 and 128mmHg were calculated; when the velocity was 4 to 5mmHg/per beating, five numbers from 130 to 126mmHg were calculated; when the velocity was 10mmHg/per beating, nine numbers from 130 to 122mmHg were calculated; Conclusion The faster the blood pressure measurement velocity was, the wider the range of blood pressure measurement value was, and then the greater the measurement error was. The blood pressure measurement velocity can greatly affect the systolic blood pressure measurement value ,and this is also an important factor of fluctuation in blood pressure.},
     year = {2019}
    }
    

    Copy | Download

  • TY  - JOUR
    T1  - The Effect of BP Measurement Velocity on Noninvasive BP Measurement Value Was Studied by Establishing the Blood Pressure Measurement Running Model
    AU  - Du Xuelian
    AU  - Wang Bingtao
    AU  - Wang Baiyan
    Y1  - 2019/06/15
    PY  - 2019
    N1  - https://doi.org/10.11648/j.sd.20190703.16
    DO  - 10.11648/j.sd.20190703.16
    T2  - Science Discovery
    JF  - Science Discovery
    JO  - Science Discovery
    SP  - 165
    EP  - 171
    PB  - Science Publishing Group
    SN  - 2331-0650
    UR  - https://doi.org/10.11648/j.sd.20190703.16
    AB  - Objective Through the establishment of blood pressure measurement running model, the relationship between the blood pressure measurement velocity and the noninvasive blood pressure measurement value was calculated, then the accuracy of noninvasive blood pressure measurement was evaluated. Methods First, the basis of establishing the blood pressure measurement running model: the origin and nature of the blood pressure auscultation sound (BPAS) which was also confirmed as the main component of Korotkoff-sound was determined by the resonance theory of blood pressure measurement and its confirming experiments from the perspective of evidence-based medicine. The BPAS was a vibration sound which coming from the vibration of closing mitral valve and being homologous with the first heart sound and also possessing resonant nature. It was located between the first heart sound and the second heart sound on the synchronization graph of artery and heart, this meant that the Korotkoff-sound was a sound of systolic period in cardiac cycle; Second, establishing the blood pressure measurement running model: the cardiac cycle was divided into 6 equal parts in which 3 ones were in systolic period and another 3 ones were in diastolic period, then 6 pressure measurement lines were imagined and the speed that the gas flow out of the cuff was in control from 1-10mmHg/per beating and the systolic pressure measurement value was calculated using mathematical methods, the principle of value reading was to use round figure; In final, setting up the ideal tested individuals: imagining the individual's systolic pressure of each beating was always 130mmHg, the heart rate was 60/min. Results When the blood pressure measurement velocity was 1mmHg/per beating, two numbers of 130 and 129mmHg were calculated; when the velocity was 2 to 3mmHg/per beating, three numbers of 130,129 and 128mmHg were calculated; when the velocity was 4 to 5mmHg/per beating, five numbers from 130 to 126mmHg were calculated; when the velocity was 10mmHg/per beating, nine numbers from 130 to 122mmHg were calculated; Conclusion The faster the blood pressure measurement velocity was, the wider the range of blood pressure measurement value was, and then the greater the measurement error was. The blood pressure measurement velocity can greatly affect the systolic blood pressure measurement value ,and this is also an important factor of fluctuation in blood pressure.
    VL  - 7
    IS  - 3
    ER  - 

    Copy | Download

Author Information
  • Beijing Electric Power Hospital, Beijing, China

  • Beijing Electric Power Hospital, Beijing, China

  • Beijing Electric Power Hospital, Beijing, China

  • Sections