会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 11. 发明授权
    • Ultrasound applicator for heating an ultrasound absorbent medium
    • 用于加热超声波吸收介质的超声波施加器
    • US06379320B1
    • 2002-04-30
    • US09424878
    • 2000-03-02
    • Cyril LafonJean-Yves ChapelonDominique CathignolFrederic Prat
    • Cyril LafonJean-Yves ChapelonDominique CathignolFrederic Prat
    • A61H100
    • A61B8/546A61N7/02A61N2007/025
    • An ultrasound applicator for heating, via an internal path, an ultrasound absorbent medium, includes an application head having a longitudinal axis and including at least one ultrasonic transducer having a planar emission face and an opposite face, a leakproof membrane which overlays and is spaced from the emission face, and which is transparent to ultrasound, and means for preventing propagation of ultrasound from the opposite face; means for remotely connecting the transducer to an electricity generator; and means for providing ultrasound coupling with the membrane. The planar emission face emits ultrasound waves through the membrane and in a direction that is substantially perpendicular to the emission face, such that the waves emitted are substantially planar and do not diverge in the vicinity of the transducer and the application head.
    • 用于经由内部路径加热超声波吸收介质的超声波施加器包括具有纵向轴线并包括至少一个具有平面发射面和相对面的超声换能器的施加头,覆盖并与之隔开的防漏膜 发射面,并且其对于超声波是透明的,以及用于防止超声从相对面传播的装置; 用于将传感器远程连接到发电机的装置; 以及用于提供与膜的超声耦合的装置。 平面发射面通过膜发射超声波并且在基本上垂直于发射面的方向上发射超声波,使得所发射的波基本上是平面的,并且不会在换能器和应用头附近发散。
    • 12. 发明授权
    • Therapy and imaging probe and therapeutic treatment apparatus utilizing
it
    • 治疗和成像探针和治疗仪器利用它
    • US5720287A
    • 1998-02-24
    • US659581
    • 1996-06-06
    • Jean-Yves ChapelonEmmanuel BlancFrancois Lacoste
    • Jean-Yves ChapelonEmmanuel BlancFrancois Lacoste
    • A61B1/00A61B8/12A61B17/00A61B18/00A61N7/02G10K11/35
    • A61B8/4461A61B18/00A61B8/12A61B8/4209A61B8/445A61N7/022G10K11/35G10K11/355A61B2017/00106
    • The therapy and imaging probe of the invention comprises a probe body (20') of an elongate shape defining a general axis (X--X), one imaging transducer (40') for transmitting imaging waves, and one therapy transducer (30') for transmitting therapy waves. The imaging transducer is mounted on first support means providing translational movement of the imaging transducer within the probe, parallel to the general axis (X--X) of the probe, between a withdrawn position and an extended position. The therapy transducer is mounted on second support means providing rotation of the therapy transducer within the probe, about an axis of rotation (X1--X1) parallel to the general axis (X--X) of the probe but offset with respect to the imaging transducer, to allow rotation of the therapy transducer between a withdrawn position and a treatment position. In the withdrawn or non-active position of the therapy transducer, the imaging transducer may be brought by translational movement to its extended position to occupy the place occupied by the therapy transducer in its treatment position. Thus, the imaging transducer may form an image of a region for treatment by the therapy transducer. In the treatment position of the therapy transducer, the imaging transducer is at its withdrawn position. The therapy transducer, during the transmission of therapy waves, directly transmits the therapy waves in a direction substantially identical to the direction in which the imaging transducer transmits the imaging waves when imaging waves are being transmitted.
    • 本发明的治疗和成像探针包括限定总轴线(XX)的细长形状的探针体(20'),用于传输成像波的一个成像传感器(40')和用于传输成像波的一个治疗传感器(30') 治疗波。 成像传感器安装在第一支撑装置上,其提供平行于探针的总轴(X-X)的探针内的成像传感器在撤回位置和延伸位置之间的平移运动。 所述治疗传感器安装在第二支撑装置上,所述第二支撑装置提供所述探针内的所述治疗换能器的旋转,所述第二支撑装置绕所述探针的平行于所述探针的所述总轴线(XX)的旋转轴线(X1-X1)相对于所述成像换能器偏移, 允许治疗换能器在撤回位置和治疗位置之间旋转。 在治疗换能器的撤回或非活动位置,成像换能器可以通过平移运动而被带到其延伸位置,以占据治疗换能器处于其治疗位置所占据的位置。 因此,成像换能器可以形成用于由治疗换能器进行治疗的区域的图像。 在治疗传感器的治疗位置,成像换能器处于其撤回位置。 治疗传感器在治疗波的传送期间,在成像波被传送时,以与成像传感器发射成像波的方向基本相同的方向直接传递治疗波。
    • 13. 发明授权
    • Doppler pseudorandom noise velocimeters
    • 多普勒伪随机噪声速度计
    • US4320765A
    • 1982-03-23
    • US112528
    • 1980-01-16
    • Dominique CathignolClaude FourcadeJean-Yves Chapelon
    • Dominique CathignolClaude FourcadeJean-Yves Chapelon
    • A61B8/06G01F1/66G01P5/24G01S15/34G01S15/58A61B10/00
    • G01P5/244A61B8/06G01F1/663G01S15/34G01S15/586
    • This invention is directed to improved pseudorandom noise velocimeters and methods therefor, using the Doppler effect, to enable the external measurement of the speed of a moving target within a fixed conveying medium. In accordance with a preferred embodiment of the present invention a continuous pseudorandom ultrasonic noise signal formed by a repetitive code C having n different elementary segments S is radiated. Correlation between a received echo and the delayed radiated signal is accomplished by proceeding successively for each elementary segment, using a different measuring band, for a period corresponding to the period of each segment. The correlation values thus obtained are then stored and thereafter a Doppler low frequency curve is reconstituted by regrouping the correlation values corresponding to the different elementary segments of the repetitive code.
    • 本发明涉及使用多普勒效应的改进的伪随机噪声速度计及其方法,以便能够外部测量固定传送介质内的移动目标的速度。 根据本发明的优选实施例,辐射由具有n个不同基本段S的重复码C形成的连续伪随机超声波噪声信号。 接收到的回波和延迟的辐射信号之间的相关性是通过使用不同的测量带在每个段的周期相应的时段内针对每个基本段连续进行的。 然后存储如此获得的相关值,然后通过重新分组对应于重复码的不同基本段的相关值来重构多普勒低频曲线。
    • 18. 发明申请
    • Method for Performing Elastography
    • 执行弹性成像的方法
    • US20080097202A1
    • 2008-04-24
    • US11571650
    • 2005-07-05
    • Jean-Yves ChapelonRemi Souchon
    • Jean-Yves ChapelonRemi Souchon
    • A61B8/00
    • A61B8/0833A61B8/485G01S7/52042G01S15/8959G01S15/8977
    • A method for performing elastography is provided, comprising the following steps. First, emitting a first coded signal towards tissue and recording an echoed signal in response. Next, applying a strain on the tissue, such as a compression or an expansion. Then, emitting a second coded signal towards the tissue under strain, said second signal being a compressed (or stretched) version of the first emitted signal in the time domain, and recording an echoed signal in response. Then processing the second echoed signal by stretching (or compressing) it in the time domain by a factor matched to the compression (or stretching) factor that was applied to the second emitted signal. Finally, cross-correlating the first echoed signal and the processed second echoed signal to provide an elastographic image of said tissue. The method of the invention uses different emitted signals before and during strain applied to the tissue. The image quality in elastography can therefore be considerably improved.
    • 提供了一种用于进行弹性成像的方法,包括以下步骤。 首先,向组织发射第一编码信号并且响应于记录回波信号。 接下来,在组织上施加应变,例如压缩或膨胀。 然后,在应变下向组织发射第二编码信号,所述第二信号是在时域中的第一发射信号的压缩(或拉伸)版本,并响应于记录回波信号。 然后通过在时域中拉伸(或压缩)与施加到第二发射信号的压缩(或拉伸)因子相匹配的因子来处理第二回波信号。 最后,将第一回波信号和经处理的第二回波信号互相关,以提供所述组织的弹性图像。 本发明的方法在应用于组织的应变之前和期间使用不同的发射信号。 因此,弹性成像的图像质量可以大大提高。