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    • 3. 发明申请
    • ULTRASOUND PROBE, METHOD AND DEVICE FOR ACQUIRING A BLOOD FLOW SIGNAL OF AN ARTERY AND SYSTEM FOR MEASURING SYSTOLIC BLOOD PRESSURE
    • 用于获取动脉血流信号的超声波探头,方法和装置以及用于测量同步血压的系统
    • WO2013014647A1
    • 2013-01-31
    • PCT/IB2012/053852
    • 2012-07-27
    • KONINKLIJKE PHILIPS ELECTRONICS N.V.ZHONG, JianyiANAND, AjayPETRUZZELLO, JohnCHEN, YinanLU, Weijia
    • ZHONG, JianyiANAND, AjayPETRUZZELLO, JohnCHEN, YinanLU, Weijia
    • A61B8/04A61B8/06
    • A61B8/04A61B5/489A61B8/06A61B8/4236A61B8/4477A61B8/4483A61B8/488A61B8/5223
    • This invention provides an ultrasound probe, a device and method for acquiring a blood flow signal of an artery and a system for measuring systolic blood pressure. The ultrasound probe comprises a plurality of ultrasound transducers, wherein each of the plurality of ultrasound transducers is configured to obtain an echo signal by transmitting an ultrasonic wave, receiving an ultrasonic wave and transforming the received ultrasonic wave into the echo signal. The device for acquiring a blood flow signal of an artery comprises the ultrasound probe, wherein the ultrasound probe is intended to be attached to the exterior of the body. The device further comprises: a first deriving unit configured to derive, from each obtained echo signal, at least one Doppler signal, the at least one Doppler signal being associated with the ultrasound transducer obtaining the echo signal and being indicative of information about Doppler shift of the echo signal; a selecting unit configured to select a Doppler signal from the derived Doppler signals according to a predefined condition, the selected Doppler signal being indicative of the at least one characteristic of the blood flow in the artery of the body. In this way, the need for accurate localization of the artery by means of manual adjustment is eliminated on the proviso that the ultrasound probe is attached in such a way that the artery lies within the footprint of the ultrasound probe.
    • 本发明提供了一种用于获取动脉的血流信号的超声波探头,装置和方法以及用于测量收缩血压的系统。 所述超声波探头包括多个超声换能器,其中,所述多个超声波换能器中的每一个被配置为通过发送超声波,接收超声波并将所接收的超声波变换为回波信号来获得回波信号。 用于获取动脉的血流信号的装置包括超声波探头,其中超声波探头旨在附接到身体的外部。 所述设备还包括:第一导出单元,被配置为从每个获得的回波信号中导出至少一个多普勒信号,所述至少一个多普勒信号与超声换能器相关联,获得回波信号并且指示有关多普勒频移的信息 回波信号; 选择单元,被配置为根据预定义的条件从所述导出的多普勒信号中选择多普勒信号,所选择的多普勒信号指示所述身体的动脉中的血流的至少一个特征。 以这种方式,消除了通过手动调节对动脉进行精确定位的需要,条件是超声波探头以使得动脉位于超声探头的占地面积内的方式附接。
    • 9. 发明申请
    • DETERMINATION OF OPTICAL ABSORPTION COEFFICIENTS
    • 光学吸收系数的测定
    • WO2008038182A2
    • 2008-04-03
    • PCT/IB2007053763
    • 2007-09-18
    • KONINKL PHILIPS ELECTRONICS NVSAVERY DAVIDJANKOVIC LADISLAVANAND AJAY
    • SAVERY DAVIDJANKOVIC LADISLAVANAND AJAY
    • G01N29/24A61B5/00G01N21/17G01N21/47
    • G01N29/2418A61B5/0059A61B5/0095A61B8/08G01N21/1702G01N21/4795G01N2021/1706G01N2291/02466G01N2291/02475
    • The invention relates to an examination apparatus and a method for the determination of optical coefficients, particularly of the optical absorption coefficient (µa) in an object (1) like the body of a patient. The apparatus comprises an ultrasonic scanner (20) for recording first and second pulse echoes before and after the object (1) has been illuminated with a heating light beam (11) from a (e.g. laser) light source (10). An evaluation unit (30) determines a map of temperature increase (?T(r)) caused by the heating light beam (11) inside the object (1) based on apparent displacements showing up between the second and first pulse echoes. Furthermore, the evaluation of locally adjacent temperature increases inside the object (1) allows to determine a map of the effective scattering coefficient (µeff(r)), from which the distribution of light intensity (I(r)) inside the object (1) can be calculated. Finally, the desired optical absorption coefficient (µa) at a measuring location (r) can be determined from the light intensity and the temperature increase at this location.
    • 本发明涉及一种用于确定像患者身体的物体(1)中的光学系数,特别是光学吸收系数(μa)的检查装置和方法。 该装置包括用于在来自(例如激光)光源(10)的加热光束(11)照射物体(1)之前和之后记录第一和第二脉冲回波的超声波扫描器(20)。 评估单元(30)基于在第二和第一脉冲回波之间显示的表观位移来确定由对象(1)内部的加热光束(11)引起的温度升高(ΔT(r))的映射。 此外,物体(1)内的局部相邻温度升高的评估允许确定物体(1)内的光强度(I(r))的分布的有效散射系数(μeff(r))的映射 )可以计算。 最后,测量位置(r)所需的光学吸收系数(μa)可以从光强度和该位置的温度升高来确定。
    • 10. 发明申请
    • REAL-TIME MONITORING AND CONTROL OF HIFU THERAPY IN MULTIPLE DIMENSIONS
    • HIFU治疗多维度实时监测与控制
    • WO2011161559A1
    • 2011-12-29
    • PCT/IB2011/051855
    • 2011-04-27
    • KONINKLIJKE PHILIPS ELECTRONICS N.V.ANAND, AjayPETRUZZELLO, JohnZHOU, ShiweiSETHURAMAN, Shriram
    • ANAND, AjayPETRUZZELLO, JohnZHOU, ShiweiSETHURAMAN, Shriram
    • A61N7/02A61B8/00
    • A61N7/00A61B8/4488A61B8/485A61B2090/378A61N7/02A61N2007/0052A61N2007/0082A61N2007/0095
    • Energy is transferred (336) to cause a mechanical property of biological tissue to change, as in ablation. An effect of the transferring is examined in more than one spatial dimension to, for example, make an ablation halting decision for a treatment region, i.e., line (312)or layer (314), or for a location (316) within the region. Halting decisions can be based on lesion-central and/or lesion-peripheral longitudinal displacement of treated tissue evaluated in real time against a characteristic curve. Steering in the azimuthal and/or elevation direction is afforded by, for example, linear, or 2D, multi-channel ultrasound arrays for therapy and imaging. Protocols includable are region-wide scanning (SI 010) and location-by-location completion for both (HIFU) therapy and tracking (acoustic-radiation-forced-based) displacement of treated tissue. Fine, location- to-location monitoring can be used for relatively inhomogeneous tissue; whereas, quicker, sparser and more generalized monitoring (1 100, 1200) can be employed for relatively homogeneous tissue.
    • 转移能量(336)以使生物组织的机械性能发生变化,如消融。 在多于一个空间维度中检查转移的效果,以便例如对处理区域(即,线路(312)或层(314))或区域(316)进行消融停止决定 。 暂停决定可以基于对特征曲线实时评估的处理组织的病变中心和/或病变周边纵向位移。 方位角和/或仰角方向的转向由例如用于治疗和成像的线性或2D多通道超声阵列提供。 可包括的协议是针对处理组织的(HIFU)治疗和跟踪(基于声辐射的强制)位移的区域扫描(SI 010)和位置逐个完成。 精细的位置到位置监测可用于相对不均匀的组织; 而对于相对均匀的组织,可以采用更快,更稀疏和更广泛的监测(1100,1200)。