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    • 2. 发明授权
    • Image reconstruction method and device
    • 图像重建方法及装置
    • US09129187B2
    • 2015-09-08
    • US13811964
    • 2011-07-28
    • Mariko YamamotoShin-ichiro UmemuraTakashi AzumaKunio Hashiba
    • Mariko YamamotoShin-ichiro UmemuraTakashi AzumaKunio Hashiba
    • G06K9/46G01S15/89G06T11/00G01S7/52
    • G06K9/46G01S7/52036G01S15/8913G01S15/8922G01S15/8927G01S15/895G06T11/006
    • An objective is to enable calculation of a distribution of a physical property such as a density inside a measurement object, even when the distribution of the physical property value is non-uniform, within a feasible period of time without causing image deterioration due to phenomena such as refraction and multiple-reflections caused by the non-uniformity. To this end, the physical property value that makes an evaluation quantity be an extremum is outputted, where the evaluation quantity is a liner sum or a product of exponential function of: an equation residual quantity that is a residual being a difference between an operator term and an external force term of an equation of motion; a non-uniformity detection equation residual quantity that is a residual of an equation of detecting the non-uniformity of the physical property value from a matching degree of solutions of the equation of motion under two types of boundary conditions; and a conditional equation residual quantity that is a residual of a constraint condition.
    • 目的是能够在可行的时间段内,即使在物理特性值的分布不均匀的情况下,能够计算物体的物理性质(例如测量对象内的密度)的分布,也不会导致由于现象而导致的图像劣化 作为由不均匀性引起的折射和多重反射。 为此,输出使评价量为极值的物理属性值,其中评价量为线性和或指数函数的乘积:作为残差的方程剩余量是运算符项之间的差 和运动方程的外力项; 根据两种类型的边界条件下的运动方程的匹配度,检测物理特性值的不均匀性的方程的残差的不均匀性检测方程残差量; 以及作为约束条件的残差的条件方程残差量。
    • 3. 发明授权
    • Ultrasonic imaging device
    • 超声波成像装置
    • US08506484B2
    • 2013-08-13
    • US12523088
    • 2008-01-16
    • Mariko YamamotoKunio HashibaTakashi Azuma
    • Mariko YamamotoKunio HashibaTakashi Azuma
    • A61B8/00
    • G10K11/345A61B8/4494G01S7/52084G01S15/8922G01S15/8925G01S15/8927G03B9/08G03B42/06
    • An ultrasonic imaging device which narrows the width of annular areas to be established, without increasing the number of channels. The controller establishes the annular areas 421 to 42p the number of which is larger than the number of signal lines, along line intersections between wave surfaces 51 to 54 of reflective waves and a multi-dimensional surface of the probe 1. The controller selects multiple annular areas (0, 0), (0, 1), and (0, 2) with focal depths differing, for example, by an integral multiple of the ultrasonic wavelength λ, out of the multiple annular areas being established, and connects the multiple transducer elements positioned within the selected multiple annular areas with an identical signal line. Accordingly, the received signals from the selected multiple annular areas arrive at multiple time points shifted by the time corresponding to the wavelength, and the signals do not cancel one another out.
    • 一种超声波成像装置,其可以在不增加通道数量的情况下使要建立的环形区域的宽度变窄。 控制器沿着反射波的波面51至54与探头1的多维表面之间的线交叉处建立其数量大于信号线数量的环形区域421至42p。控制器选择多个环形 所建立的多个环形区域中的焦点深度例如与超声波长λ的整数倍不同的区域(0,0),(0,1)和(0,2),并且连接多个 位于所选择的多个环形区域内的换能器元件具有相同的信号线。 因此,来自所选择的多个环形区域的接收信号到达偏移与波长对应的时间的多个时间点,并且信号不相互抵消。
    • 4. 发明申请
    • Ultrasound Imaging Device
    • 超声成像装置
    • US20120197126A1
    • 2012-08-02
    • US13432551
    • 2012-03-28
    • Kunio Hashiba
    • Kunio Hashiba
    • A61B8/14
    • G01S7/52038A61B8/14A61B8/488A61B8/5207A61B8/5246G01S7/5202G01S15/895G01S15/8963G01S15/8979G06T11/005Y10S128/916
    • An ultrasound imaging apparatus includes a transmitter which transmits an ultrasound pulse to a subject, a receiver which receives ultrasound coming from the subject, and a signal processor to process a received signal at the receiver and generate image data. The receiver has a predetermined reception band, and the ultrasound pulse transmitted by the transmitter has one frequency band with a frequency peak. Each of an upper limit frequency and a lower limit frequency of the one frequency band is set to be values which make a low frequency harmonic component and a high frequency harmonic component produced by the ultrasound pulse be within the reception band. The signal processor generates image data by using a nonlinear component of at least one of the low frequency and high frequency harmonic component received by the receiver.
    • 超声波成像装置包括:向对象发送超声脉冲的发送器,接收来自被摄体的超声波的接收器;以及信号处理器,用于处理接收器处的接收信号并生成图像数据。 接收机具有预定的接收频带,由发射机发送的超声波脉冲具有频率峰值的一个频带。 将一个频带的上限频率和下限频率各自设定为使由超声波脉冲产生的低频谐波分量和高频谐波分量在接收频带内的值。 信号处理器通过使用由接收器接收的低频和高频谐波分量中的至少一个的非线性分量来生成图像数据。
    • 5. 发明申请
    • ULTRASONIC IMAGING DEVICE
    • 超声波成像装置
    • US20100049053A1
    • 2010-02-25
    • US12523088
    • 2008-01-16
    • Mariko YamamotoKunio HashibaTakashi Azuma
    • Mariko YamamotoKunio HashibaTakashi Azuma
    • A61B8/00
    • G10K11/345A61B8/4494G01S7/52084G01S15/8922G01S15/8925G01S15/8927G03B9/08G03B42/06
    • The present invention provides an ultrasonic imaging device which narrows the width of annular areas to be established, without increasing the number of channels, thereby enabling enhancement of a focused sound pressure. The controller establishes the annular areas 421 to 42p the number of which is larger than the number of signal lines, along the line intersections between the wave surfaces 51 to 54 of reflective waves and a two-dimensional surface of the probe 1. The controller selects multiple annular areas (0, 0), (0, 1), and (0, 2) with focal depths differing by an integral multiple of the ultrasonic wavelength λ, out of the multiple annular areas being established, and connects the transducer elements positioned within the selected multiple annular areas with an identical signal line. Accordingly, the received signals from the selected multiple annular areas arrive at multiple time points shifted by the time corresponding to the wavelength, and the signals do not cancel one another out. Furthermore, the annular areas the number of which is larger than the number of signal lines can be established, thereby narrowing the width of the annular areas.
    • 本发明提供了一种超声波成像装置,其在不增加通道数量的情况下使要建立的环形区域的宽度变窄,从而能够增强聚焦声压。 控制器沿着反射波的波面51至54与探头1的二维表面之间的线交叉处建立其数量大于信号线数量的环形区域421至42p。控制器选择 建立多个环形区域的多个环形区域(0,0),(0,1)和(0,2),焦点深度与超声波长λ的整数倍不同,并连接定位的换能器元件 在所选择的具有相同信号线的多个环形区域内。 因此,来自所选择的多个环形区域的接收信号到达偏移与波长对应的时间的多个时间点,并且信号不相互抵消。 此外,可以建立其数量大于信号线数量的环形区域,从而使环形区域的宽度变窄。
    • 6. 发明授权
    • Ultrasound imaging apparatus
    • 超声成像装置
    • US08986210B2
    • 2015-03-24
    • US13524387
    • 2012-06-15
    • Kunio HashibaShinichiro UmemuraHiroshi MasuzawaSatoshi Tamano
    • Kunio HashibaShinichiro UmemuraHiroshi MasuzawaSatoshi Tamano
    • A61B8/14G10K11/34G01S15/89G01S7/52
    • G10K11/346G01S7/52095G01S15/8922G01S15/8925G01S15/8927G01S15/8993
    • Ultrasound imaging apparatus including a two-dimensional array of plural transducer elements distributed two-dimensionally and transmits and receives ultrasonic waves while scanning an area to be imaged to create an ultrasound three-dimensional image. Transducer elements are divided into plural element blocks including a first element block of which a size in a second direction of an arrangement surface of the two-dimensional array is larger than a size in a first direction of the surface, and a second element block of which a size in the first direction is larger than a size in the second direction. Each of the element blocks is divided into a predetermined number of groups to form a transmit beam and plural receive beams in the area to be imaged. Further included is a selecting means for making transmit/receive channels of the transducer elements grouped to be one channel in each of the groups.
    • 包括二维分布的二维阵列的超声成像装置,并且在扫描要成像的区域的同时发送和接收超声波以产生超声三维图像。 传感器元件被分成多个元件块,其包括其中二维阵列的布置表面的第二方向上的尺寸大于表面的第一方向上的尺寸的第一元件块,以及第二元件块 第一方向上的尺寸大于第二方向的尺寸。 每个元件块被分成预定数量的组,以在待成像的区域中形成发射波束和多个接收波束。 进一步包括用于使换能器元件的发送/接收信道分组为每个组中的一个通道的选择装置。
    • 8. 发明申请
    • ULTRASOUND DIAGNOSIS APPARATUS
    • 超声诊断装置
    • US20130289402A1
    • 2013-10-31
    • US13992083
    • 2011-12-01
    • Marie TabaruTakashi AzumaHideki YoshikawaKunio Hashiba
    • Marie TabaruTakashi AzumaHideki YoshikawaKunio Hashiba
    • A61B8/08
    • A61B8/08A61B8/0825A61B8/0891A61B8/485G01S7/52049G01S7/52071G01S7/52073
    • When multiple tissues having differing speeds of sound are intermixed in the viewing field of a measured subject such as a living body, the invention measures hardness, such as modulus of elasticity or viscosity, with high precision. As a means for detecting heterogeneity of sound speed in the tissues of a subject, a displacement-generating transmission beam is applied from a displacement generating beam-generating device (13) of a displacement-generating unit (10) on an ultrasound probe (1) to irradiate a focused ultrasonic wave into the living tissue and generate a shear wave. From the displacement-time waveforms of multiple positions of the shear wave detected using the displacement detection transmission beam-generating device (22) and the displacement detection received beam-computing device (23) of a displacement-detecting unit (20), at least two pieces of information, such as the integrated value and the maximum amplitude value, are obtained. On the basis of the two pieces of information, a heterogeneity-detecting device (26) of the displacement-detecting unit (20) detects the physical magnitude associated with the heterogeneity in sound speed arising from the tissue structure and displays same on a display (5).
    • 当具有不同声速的多个组织混合在诸如生物体的被测量对象的视野中时,本发明以高精度测量诸如弹性模量或粘度的硬度。 作为用于检测被检体的组织中的声速的异质性的手段,从位移产生单元(10)的位移产生光束产生装置(13)向超声波探头(1)施加位移产生透射束 )将聚焦超声波照射到活体组织中并产生剪切波。 根据位移检测传输光束产生装置(22)检测到的剪切波的多个位置和位移检测单元(20)的位移检测接收光束计算装置(23)的位移时间波形,至少 获得两个信息,例如积分值和最大振幅值。 基于两条信息,位移检测单元(20)的异质性检测装置(26)检测与由组织结构产生的声速异质性相关的物理量值,并将其显示在显示器上 5)。
    • 9. 发明申请
    • METHOD OF MANUFACTURING SEMICONDUCTOR DEVICE
    • 制造半导体器件的方法
    • US20110086443A1
    • 2011-04-14
    • US12999478
    • 2009-06-05
    • Takashi KobayashiShuntaro MachidaKunio Hashiba
    • Takashi KobayashiShuntaro MachidaKunio Hashiba
    • H01L21/82H01L21/66
    • H04R31/00B81B2201/0257B81B2207/053B81C1/00214
    • A manufacturing yield of a semiconductor device (capacitive micromachined ultrasonic transducer) is increased. A plurality of first chips 1 in which a plurality of cells each having functions of transmitting and receiving ultrasonic waves are formed on a front surface of a first semiconductor wafer are manufactured, and each of the first chips 1 is judged as a superior/inferior product, and then, the first semiconductor wafer is sigulated into a plurality of first chips 1. Next, a plurality of second chips 2 in which a wiring layer is formed on a front surface of a second semiconductor wafer are manufactured, and each of the second chips 2 is judged as a superior/inferior product, and then, the second semiconductor wafer is sigulated into a plurality of second chips 2. Next, the plurality of first chips 1 judged as the superior product are adjacently arranged on the front surface of the second chip 2 judged as the superior product in plane in a Y direction so that lower electrodes 5 of the adjacent first chips 1 are electrically connected with each other via a through electrode 6, a bump 8, and a wiring layer 7.
    • 半导体器件(电容式微加工超声换能器)的制造产量增加。 制造在第一半导体晶片的前表面上形成多个具有发送和接收超声波功能的多个单元的多个第一芯片1,并且将第一芯片1判断为上/下产品 然后,第一半导体晶片被配置成多个第一芯片1.接着,制造在第二半导体晶片的前表面上形成有布线层的多个第二芯片2, 将芯片2判断为优劣产品,然后将第二半导体晶片投入多个第二芯片2.接下来,判断为优质产品的多个第一芯片1相邻布置在 第二芯片2在Y方向上被认为是平面上的优异产品,使得相邻的第一芯片1的下电极5经由通电极6,凸块8和 布线层7。