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    • 1. 发明授权
    • Micromachined ultrasonic spiral arrays for medical diagnostic imaging
    • 用于医疗诊断成像的微加工超声波螺旋阵列
    • US06359367B1
    • 2002-03-19
    • US09455881
    • 1999-12-06
    • Thilaka S. SumanaweeraSevig AyterJohn W. Sliwa, Jr.
    • Thilaka S. SumanaweeraSevig AyterJohn W. Sliwa, Jr.
    • H02N100
    • B06B1/0292
    • Spiral, sparse spiral, substantially spiral or substantially sparse spiral transducer arrays comprising capacitive micromachined ultrasonic transducer elements disposed on a silicon substrate, and ultrasound imaging systems employing same. The transducer elements are respectively coupled to a plurality of amplifiers. Imager electronics are coupled to each of the amplifiers and drives the transducer elements and/or generates an output of the spiral transducer array. The amplifiers may be located in the silicon substrate containing the transducer elements, or on a separate substrate that is interconnected to the substrate containing the transducer elements using bumps, for example. Electrical interconnection to the transducer elements may readily be achieved without interfering with the acoustic output of the transducer elements.
    • 包括设置在硅衬底上的电容微加工超声换能器元件的螺旋,稀疏螺旋,基本螺旋或基本上稀疏的螺旋形换能器阵列,以及采用其的超声成像系统。 换能器元件分别耦合到多个放大器。 成像仪电子器件耦合到每个放大器并驱动换能器元件和/或产生螺旋换能器阵列的输出。 放大器可以位于包含换能器元件的硅衬底中,或者位于使用例如使用凸块互连到包含换能器元件的衬底的单独衬底上。 可以容易地实现与换能器元件的电互连,而不会干扰换能器元件的声输出。
    • 6. 发明授权
    • Ultrasonic system and method for measurement of fluid flow
    • 超声波系统及流体流量测量方法
    • US5967987A
    • 1999-10-19
    • US993948
    • 1997-12-18
    • Thilaka S. SumanaweeraPatrick J. Phillips
    • Thilaka S. SumanaweeraPatrick J. Phillips
    • A61B8/06
    • A61B8/06A61B8/488A61B8/13
    • In an ultrasound system and method, a transducer connects to an estimator for obtaining first and second blood flow parameters associated with first and second scan line directions, respectively, in a first scan plane. One beam substantially covering a cross-sectional area of a tubular structure (uniform insonification) or a plurality of beams may be used. A first area associated with the cross-section of the tubular structure is also estimated from the blood flow parameters. The process is repeated for a plurality of scan planes. A processor determines the cross-sectional area of the tubular structure perpendicular to its axis (a second area), the average velocity of flow parallel to the axis, and the volume flow as a function of the first area and the first and second blood flow parameters of all the scan planes. For real-time volume flow, the orientation of the tubular structure is determined using the second area and the first and second blood flow parameters. As measurements are made, the orientation information is used to derive the real-time volume flow.
    • 在超声系统和方法中,换能器连接到估计器,用于分别在第一扫描平面中获得与第一和第二扫描线方向相关联的第一和第二血流参数。 可以使用基本上覆盖管状结构的横截面(均匀的非均匀化)或多个梁的一个梁。 还根据血流参数估计与管状结构的横截面相关联的第一区域。 对于多个扫描平面重复该过程。 处理器确定垂直于其轴线(第二区域)的管状结构的横截面面积,平行于轴线的平均流速,以及作为第一区域和第一和第二血流量的函数的体积流量 所有扫描平面的参数。 对于实时体积流量,使用第二区域和第一和第二血流参数确定管状结构的取向。 在进行测量时,使用方位信息来导出实时体积流。
    • 7. 发明授权
    • Surface parameter adaptive ultrasound image processing
    • 表面参数自适应超声图像处理
    • US07764818B2
    • 2010-07-27
    • US11157412
    • 2005-06-20
    • Thilaka S. SumanaweeraKutay F. Ustuner
    • Thilaka S. SumanaweeraKutay F. Ustuner
    • G06K9/00
    • G06T15/50G06T15/08G06T15/40
    • The depth buffer of a GPU is used to derive a surface normal or other surface parameter, avoiding or limiting computation of spatial gradients in 3D data sets and extra loading of data into the GPU. The surface parameter is used: to add shading with lighting to volume renderings of ultrasound data in real time, to angle correct velocity estimates, to adapt filtering or to correct for insonifying-angle dependent gain and compression. For border detection and segmentation, intersections with a volume oriented as a function of target structure, such as cylinders oriented relative to a vessel, are used for rendering. The intersections identify data for loading into the frame buffer for rendering.
    • GPU的深度缓冲器用于导出表面法线或其他表面参数,避免或限制3D数据集中的空间梯度的计算以及将数据额外加载到GPU中。 使用表面参数:通过照明将阴影添加到实时超声数据的体积渲染中,对角度正确的速度估计,适应滤波或校正失真角依赖增益和压缩。 对于边界检测和分割,使用与目标结构相关的体积定向的交点,例如相对于血管定向的圆柱体,用于渲染。 交叉点识别用于加载到帧缓冲器中的数据用于呈现。
    • 10. 发明授权
    • Ultrasonic system and method for measurement of fluid flow
    • 超声波系统及流体流量测量方法
    • US06293914B1
    • 2001-09-25
    • US09144587
    • 1998-08-31
    • Thilaka S. SumanaweeraPatrick J. Phillips
    • Thilaka S. SumanaweeraPatrick J. Phillips
    • A61B800
    • A61B8/06A61B8/488G01S15/582G01S15/8979
    • A system and methods for measuring the volume flow of fluid in an enclosed structure with an ultrasound system is provided. Manual designation of flow angles and areas may not be necessary. Velocities along two or more different scan lines in a first scan plane are obtained to determine an angle of flow within the enclosed structure. A Doppler spectrum parameter is measured from a transmission in a second scan plane substantially perpendicular to the first scan plane. Volume flow is calculated from the flow angle and the parameter. The scan planes are associated with rotating a linear array transducer or holding a multi-dimensional transducer in place. A C-scan method with a linear transducer may also be used.
    • 提供了一种用于测量具有超声系统的封闭结构中的流体的体积流量的系统和方法。 可能无需手动指定流量角和区域。 获得沿着第一扫描平面中的两条或更多条不同扫描线的速度,以确定封闭结构内的流动角。 从基本上垂直于第一扫描平面的第二扫描平面中的透射测量多普勒频谱参数。 体积流量根据流角和参数计算。 扫描平面与旋转线性阵列换能器或将多维换能器保持在适当位置相关联。 还可以使用具有线性换能器的C扫描方法。