where K1 Is the formalized coefficient of relative accumulation of the RPP in the selected zone of interest at the first phase of the study, in percents. OH1 Is the radioactivity value measured in the selected zone of interest in pulses. D1 - total activity recorded in the anterior and posterior projections when scanning the area of interest, including the whole human body, which is taken as the administered dose of RPP, in pulses. D1=AP1+AZ1, where AP1 - radioactivity measured at the first phase of the study when scanning the area of interest, including the whole human body, in a front projection, in pulses; AZ1 - radioactivity measured at the first phase of the study when scanning the area of interest, including the whole human body, in the posterior projection, in pulses. Q is patient's body surface area, m2. Q = M0.425⋅D0.725⋅0.007184, where M is patient's body weight, kg; D is the patient's height, cm. Then the RPP accumulation level in the zone of interest is determined in the second phase of the study quantitatively by the formula where KK - formalized coefficient of RPP accumulation in the selected zone of interest at the second phase of the study, in percentage. OIK Is the radioactivity value taking into account radioactive decay of the isotope measured in the selected zone of interest at the second phase of the study. DK - incorporated dose of RPP taking into account radioactive decay of isotope, in pulses, measured during scanning of zone of interest, including whole body, at second phase of investigation. Q is patient's body surface area, m2. where OI2 Is radioactivity value without taking into account radioactive decay of isotope in pulses, measured in selected zone of interest at second phase of investigation. t is time interval between studies, in minutes. T1/2 is isotope half-life, in minutes. where D2 Is an incorporated RPP dose without taking into account radioactive decay of the isotope, measured when scanning the area of interest, which includes the whole human body, in the second phase of the study, in pulses. D2= AP2+ AZ2-AMP, where AP2 - radioactivity measured at the second phase of the study when scanning the area of interest, including the whole human body, in the front projection, in pulses; AZ2 - radioactivity measured at the second phase of the study when scanning the area of interest, including the whole human body, in the posterior projection, in pulses; AMP - radioactivity measured in the second phase of the study in the bladder zone of interest in the anterior projection, in pulses.;EFFECT: method provides higher reliability of results of osteoscintigraphy studies, reliability of results of dynamic observations, simplified implementation, expanded field of use due to the possibility of quantitative evaluation of accumulation of osteotropic RPP in bone tissues in the selected area of interest both in localized and systemic skeletons.;1 cl, 12 dwg, 7 tbl, 2 ex;К1 - K1;ОИ1 - OI11 - D1К - KKК - DK;ОИК - OIK2 - D2"/> METHOD FOR PERFORMING RADIONUCLIDE OSTEOSCINTIGRAPHIC EXAMINATION OF MINERAL METABOLISM IN BONE TISSUE
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METHOD FOR PERFORMING RADIONUCLIDE OSTEOSCINTIGRAPHIC EXAMINATION OF MINERAL METABOLISM IN BONE TISSUE

机译:骨组织中矿物质代谢的放射性核素骨科检查方法

摘要

FIELD: medicine.;SUBSTANCE: invention relates to medicine, specifically to radionuclide radionuclide diagnostics, and can be used for performing radionuclide osteoscintigraphic examination of mineral metabolism in bone tissue. Two-phase radionuclide osteoscintigraphic examination is performed: 5 minutes after the introduction of the radionuclide pharmaceutical preparation (RPP) in the phase of extravasal metabolism - the first phase and 120–180 minutes in the phase of incorporated activity - the second phase. Patient's body is scanned in the anterior and posterior projections at each phase of the examination. On the front projection image obtained at the first phase of the study, a zone of interest is constructed, which includes the entire human body, constructing a rectangular zone embracing the image of the human body. Then it is copied into other images. Constructing selected zone of interest at second phase of investigation: visually by comparing images of selected area of interest on all images detecting image containing zone of interest with most informative distribution of RPP. Zone of interest is confined therein, and the obtained boundaries of the zone of interest are copied into the homonymous image of the first phase of investigation. Level of RPP accumulation in the zone of interest at the first phase of the study is determined quantitatively by formula where K1 Is the formalized coefficient of relative accumulation of the RPP in the selected zone of interest at the first phase of the study, in percents. OH1 Is the radioactivity value measured in the selected zone of interest in pulses. D1 - total activity recorded in the anterior and posterior projections when scanning the area of interest, including the whole human body, which is taken as the administered dose of RPP, in pulses. D1=AP1+AZ1, where AP1 - radioactivity measured at the first phase of the study when scanning the area of interest, including the whole human body, in a front projection, in pulses; AZ1 - radioactivity measured at the first phase of the study when scanning the area of interest, including the whole human body, in the posterior projection, in pulses. Q is patient's body surface area, m2. Q = M0.425⋅D0.725⋅0.007184, where M is patient's body weight, kg; D is the patient's height, cm. Then the RPP accumulation level in the zone of interest is determined in the second phase of the study quantitatively by the formula where KK - formalized coefficient of RPP accumulation in the selected zone of interest at the second phase of the study, in percentage. OIK Is the radioactivity value taking into account radioactive decay of the isotope measured in the selected zone of interest at the second phase of the study. DK - incorporated dose of RPP taking into account radioactive decay of isotope, in pulses, measured during scanning of zone of interest, including whole body, at second phase of investigation. Q is patient's body surface area, m2. where OI2 Is radioactivity value without taking into account radioactive decay of isotope in pulses, measured in selected zone of interest at second phase of investigation. t is time interval between studies, in minutes. T1/2 is isotope half-life, in minutes. where D2 Is an incorporated RPP dose without taking into account radioactive decay of the isotope, measured when scanning the area of interest, which includes the whole human body, in the second phase of the study, in pulses. D2= AP2+ AZ2-AMP, where AP2 - radioactivity measured at the second phase of the study when scanning the area of interest, including the whole human body, in the front projection, in pulses; AZ2 - radioactivity measured at the second phase of the study when scanning the area of interest, including the whole human body, in the posterior projection, in pulses; AMP - radioactivity measured in the second phase of the study in the bladder zone of interest in the anterior projection, in pulses.;EFFECT: method provides higher reliability of results of osteoscintigraphy studies, reliability of results of dynamic observations, simplified implementation, expanded field of use due to the possibility of quantitative evaluation of accumulation of osteotropic RPP in bone tissues in the selected area of interest both in localized and systemic skeletons.;1 cl, 12 dwg, 7 tbl, 2 ex;К1 - K1;ОИ1 - OI11 - D1К - KKК - DK;ОИК - OIK2 - D2
机译:放射性核素放射性核素诊断技术领域本发明涉及医学,尤其涉及放射性核素放射性核素诊断剂,并且可以用于对骨组织中的矿物质代谢进行放射性核素骨闪烁成像检查。进行两阶段放射性核素骨闪烁显像检查:在放射性外药物阶段(第一阶段)引入放射性核素药物制剂(RPP)后5分钟,在合并活动阶段-第二阶段引入120-180分钟。在检查的每个阶段,都要在前后投影中扫描患者的身体。在研究的第一阶段获得的正面投影图像上,构建了一个感兴趣的区域,该区域包括整个人体,并构造了一个包含人体图像的矩形区域。然后将其复制到其他图像中。在研究的第二阶段构建选定的关注区域:通过比较检测包含感兴趣区域的RPP信息分布最多的所有图像上的选定关注区域的图像,在视觉上进行比较。感兴趣区域被限制在其中,并且所获得的感兴趣区域的边界被复制到调查的第一阶段的同名图像中。在研究的第一阶段,感兴趣区域中RPP积累的水平由公式其中K 1 是研究第一阶段中所选感兴趣区域中RPP相对积累的形式化系数,以百分比为单位。 OH 1 是在所选感兴趣区域中以脉冲测量的放射性值。 D 1 -扫描感兴趣的区域(包括整个人体)的前,后投影中记录的总活动量,以脉冲形式作为RPP的给药剂量。 D 1 = A P1 + A Z1 ,其中A P1 -在研究的第一阶段测量的放射性在正投影中以脉冲扫描感兴趣的区域(包括整个人体)时; A Z1 -在研究的第一阶段以脉冲方式扫描后投影中的感兴趣区域(包括整个人体)时测量的放射性。 Q是患者的身体表面积,m 2 。 Q = M 0.425 ⋅D 0.725 ⋅0.007184,其中M为患者体重kg; D是病人的身高,厘米。然后,在研究的第二阶段,通过公式,其中K K -研究第二阶段选定关注区域中RPP积累的形式化系数,以百分比表示。 OI K 是放射性值,其中考虑了在研究的第二阶段在选定目标区域测量的同位素的放射性衰变。 D K -考虑到同位素的放射性衰变的RPP掺入剂量(以脉冲为单位),在研究的第二阶段扫描感兴趣区域(包括全身)时进行了测量。 Q是患者的身体表面积,m 2 其中OI 2 是放射性值,未考虑放射性衰变在研究的第二阶段在选定的目标区域中测量的脉冲同位素分布。 t是研究之间的时间间隔,以分钟为单位。 T 1/2 是同位素的半衰期,以分钟为单位。 其中D 2 是掺入的RPP剂量,未考虑在内在研究的第二阶段,以脉冲扫描感兴趣区域(包括整个人体)时测量的同位素放射性衰变。 D 2 = A P2 + A Z2 -A MP ,其中A P2 -在研究的第二阶段以脉冲形式扫描正投影中的感兴趣区域(包括整个人体)时测量的放射性; A Z2 -在研究的第二阶段以脉冲形式扫描后投影中的感兴趣区域(包括整个人体)时测量的放射性; A MP -在研究的第二阶段中在前投影的目标膀胱区域中以脉冲形式测量的放射性;效果:该方法提供了更高的骨闪烁显像研究结果可靠性,动态观察,简化的实现方式,由于可以定量评估局部和全身骨骼中所选目标区域骨组织中骨质向RPP积累的可能性而扩大了应用领域.1 cl,12 dwg,7 tbl,2 ex;К 1 -K 1 ;ОИ 1 -OI 1 1 < / Sub>-D 1 К-K K К-D K < / Sub>;ОИ K -OI K 2 -D 2

著录项

  • 公开/公告号RU2698295C1

    专利类型

  • 公开/公告日2019-08-23

    原文格式PDF

  • 申请/专利权人 PANKIN VIKTOR VLADIMIROVICH;

    申请/专利号RU20180114599

  • 发明设计人 PANKIN VIKTOR VLADIMIROVICH (RU);

    申请日2018-04-19

  • 分类号A61B6/03;A61K51;A61P43;

  • 国家 RU

  • 入库时间 2022-08-21 11:46:03

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