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    • 4. 发明申请
    • IMAGING SYSTEM
    • 成像系统
    • US20090009512A1
    • 2009-01-08
    • US11573802
    • 2005-08-26
    • Damien Jean-Jacques DolimierChuan ZhengIvan Salgo
    • Damien Jean-Jacques DolimierChuan ZhengIvan Salgo
    • G06T17/00
    • G06T17/00
    • The present invention relates to an imaging system for displaying a structure of temporally changing configuration. The imaging system comprises a display rendering means which processes the image data representative of the structure, renders a display representative of the structure and a presents a display panel of key data indicia which relates to the key data of the structure. The data indicia is targeted within a two stage process, which first causes the relevant computer generated trace image related to the data indicium to be superposed upon the relevant ultrasound image. The second stage provides the option of selecting the data indicium to further reveal information about the structure. Such an interaction provides all the data related to a key measurement and not just the end result, without cluttering the display images by displaying all the image data simultaneously.
    • 本发明涉及一种用于显示时间上变化的结构的结构的成像系统。 成像系统包括显示渲染装置,其处理表示结构的图像数据,呈现代表结构的显示器,并呈现与结构的关键数据相关的关键数据标记的显示面板。 数据标记是在两级过程中的目标,首先使相关计算机产生的与数据标记相关的跟踪图像叠加在相关的超声图像上。 第二阶段提供选择数据标记以进一步揭示关于结构的信息的选项。 这样的交互提供了与键测量相关的所有数据,而不仅仅是最终结果,而不会通过同时显示所有图像数据来混杂显示图像。
    • 7. 发明申请
    • Ultrasonic cardiac volume quantification
    • 超声心脏体积量化
    • US20070016019A1
    • 2007-01-18
    • US10573068
    • 2004-08-06
    • Ivan Salgo
    • Ivan Salgo
    • A61B8/00
    • A61B8/0883A61B5/1075A61B8/08A61B8/0858A61B8/145A61B8/483G01S7/52074G06T7/62G06T2207/30048
    • Quantified measures of a volumetric object in the body can be made ultrasonically by acquiring concurrent biplane images of two different image planes (210, 214) of the object. Corresponding borders of the volumetric object are traced using automatic border detection. The border tracings are used in their planar spatial relationship to compute a graphical model (220) of the volumetric object. The volume of the graphical model (220) may be computed by the rule of disks, and a graphical or numerical display of the changing volume with time displayed. A user interface comprises both real time biplane images, the real time graphical model (220), and the quantified measures.
    • 通过获取对象的两个不同图像平面(210,214)的并行双平面图像,可以超声波地对身体中的体积物体进行量化的测量。 使用自动边框检测来跟踪体积对象的相应边界。 边界跟踪用于其平面空间关系以计算体积对象的图形模型(220)。 可以通过磁盘的规则来计算图形模型(220)的音量,并且随着时间的推移显示改变音量的图形或数字显示。 用户界面包括实时双平面图像,实时图形模型(220)和量化测量。
    • 10. 发明授权
    • Imaging ultrasound transducer temperature control system and method using feedback
    • 成像超声换能器温度控制系统及方法采用反馈
    • US06905466B2
    • 2005-06-14
    • US10645299
    • 2003-08-21
    • Ivan SalgoMichael PeszynskiDavid Miller
    • Ivan SalgoMichael PeszynskiDavid Miller
    • G01N29/24A61B8/00
    • A61B8/00A61B8/481A61B8/546
    • A system and method for controlling the heat of an ultrasonic transducer is disclosed. In the presently preferred embodiments, the system and method controls the temperature of the transducer by changing operating system parameters based on feedback from temperature sensing elements placed in the transducer. The chosen mutable system parameters may be preset by the construction of the ultrasonic system, under the control of the ultrasonic system user, or a combination of the two. In several exemplary embodiments, the one or more mutable system parameters are altered by an amount proportionate to the difference between the current temperature and a preferred operating temperature. In another exemplary embodiment, the system switches to a lower power imaging mode when the temperature feedback indicates a threshold temperature has been reached.
    • 公开了一种用于控制超声换能器的热量的系统和方法。 在当前优选的实施例中,系统和方法通过基于放置在换能器中的温度感测元件的反馈改变操作系统参数来控制换能器的温度。 所选择的可变系统参数可以通过在超声波系统用户的控制下的超声波系统的构造或两者的组合来预设。 在几个示例性实施例中,一个或多个可变系统参数被改变与当前温度和优选操作温度之间的差成比例的量。 在另一示例性实施例中,当温度反馈指示已达到阈值温度时,系统切换到较低功率成像模式。