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    • 1. 发明授权
    • Clinical apparatuses
    • 临床装置
    • US08211019B2
    • 2012-07-03
    • US11334089
    • 2006-01-18
    • Chikayoshi Sumi
    • Chikayoshi Sumi
    • A61B8/00
    • A61B8/08A61B5/0051A61B5/0053A61B5/015A61B5/7239A61B8/485G01S7/52042G01S7/52095G01S15/582G01S15/8906G01S15/8984
    • A clinical apparatus includes an ultrasound transducer having at least one oscillator, a transmitter circuit which supplies drive signals to the oscillator of the ultrasound transducer, a receiver circuit which receives echo signals outputted from the oscillator of the ultrasound transducer and which performs phase matching processing on the echo signals, and a data processor which yields superimposed echo signals by superimposing plural beams generated in different directions, where the plural beams are generated by performing at least one of (i) a mechanical scan, (ii) transmission and reception of steered beams in the different directions, and (iii) aperture synthesis in the different directions with respect to the received echo signals.
    • 临床装置包括具有至少一个振荡器的超声换能器,向超声波换能器的振荡器提供驱动信号的发射器电路,接收从超声换能器的振荡器输出的回波信号的接收器电路, 回波信号,以及数据处理器,其通过叠加在不同方向上生成的多个波束来产生叠加的回波信号,其中通过执行以下至少一个来生成多个波束:(i)机械扫描,(ii)转向波束的发送和接收 在不同的方向上,以及(iii)相对于所接收的回波信号在不同方向上的孔径合成。
    • 6. 发明授权
    • Beamforming apparatus and method
    • 波束成形装置和方法
    • US07868824B2
    • 2011-01-11
    • US11827359
    • 2007-07-11
    • Chikayoshi Sumi
    • Chikayoshi Sumi
    • H01Q3/00H01Q3/22
    • H01Q3/46
    • A beamforming apparatus obtains the beamforming parameters that realize arbitrary desirable PSF by using optimization theories. The apparatus uses at least one of the beamforming parameters such as the intensities, frequencies, bandwidths and shapes of the signals transmitted by the transmitting unit, the filtering of noises, amplifications (gains) and shapes of the signals received by the receiving unit, delays of the directions of propagation and array used by the delay units, apodization functions of the directions of propagation and array used by the apodization units, the number of the additions of the signals by the addition unit, array element parameters such as element size or shape and how to implement the elements in transducers (e.g., connections by leads between the elements and with the surroundings), which are determined by the specified optimization process to realize the desirable PSF.
    • 波束形成装置通过使用优化理论获得实现任意期望的PSF的波束成形参数。 该装置使用波束形成参数中的至少一个,例如由发射单元发射的信号的强度,频率,带宽和形状,噪声的滤波,放大(增益)和由接收单元接收的信号的形状延迟 由延迟单元使用的传播方向和阵列的方向,由变迹单元使用的传播方向和阵列的变迹函数,加法单元添加信号的数量,诸如元件尺寸或形状的数组元素参数 以及如何通过指定的优化过程来确定换能器中的元件(例如由元件之间的引线与周围的连接),以实现所需的PSF。
    • 7. 发明授权
    • Thermal properties measurement apparatus
    • 热性能测量仪器
    • US07690838B2
    • 2010-04-06
    • US11110701
    • 2005-04-21
    • Chikayoshi Sumi
    • Chikayoshi Sumi
    • G01K3/08G01K25/18G06F17/10G06F17/13G01K25/20
    • G01N25/18
    • A thermal property measurement apparatus capable of directly measuring thermal conductivity distribution in a ROI within a target only by measuring the temperature distribution that already exists in the ROI without generating other temperature fields artificially. The thermal property measurement apparatus includes a temperature detector for measuring temperatures at plural positions in the ROI, a distance controller for controlling a distance between the temperature detector and the target, a scanner for changing a relative position therebetween, a stage for putting the object thereon, a recorder for recording measured temperature data, position data and time data, a determination unit for determining whether at least one of thermal conductive phenomena and convection phenomena is dealt with or not, a processor for calculating thermal conductivity distribution in the ROI from the recorded data and temporal changeable references of the thermal conductivity in the ROI, and a controller.
    • 一种热能测量装置,其能够通过测量已经存在于ROI中的温度分布直接测量目标内的ROI中的导热率分布,而不产生人为的其他温度场。 热性能测量装置包括用于测量ROI中的多个位置的温度的温度检测器,用于控制温度检测器和目标之间的距离的距离控制器,用于改变其间的相对位置的扫描仪,用于将物体放置在其上的台 用于记录测量的温度数据,位置数据和时间数据的记录器,用于确定是否处理热传导现象和对流现象中的至少一个的确定单元,用于从记录的所述ROI计算所述ROI中的热导率分布的处理器 ROI中的热导率的数据和时间可变参考,以及控制器。
    • 8. 发明申请
    • Thermal properties measurement apparatus
    • 热性能测量仪器
    • US20060239328A1
    • 2006-10-26
    • US11110701
    • 2005-04-21
    • Chikayoshi Sumi
    • Chikayoshi Sumi
    • G01N25/20
    • G01N25/18
    • A thermal property measurement apparatus capable of directly measuring thermal conductivity distribution in a ROI within a target only by measuring the temperature distribution that already exists in the ROI without generating other temperature fields artificially. The thermal property measurement apparatus includes a temperature detector for measuring temperatures at plural positions in the ROI, a distance controller for controlling a distance between the temperature detector and the target, a scanner for changing a relative position therebetween, a stage for putting the object thereon, a recorder for recording measured temperature data, position data and time data, a determination unit for determining whether at least one of thermal conductive phenomena and convection phenomena is dealt with or not, a processor for calculating thermal conductivity distribution in the ROI from the recorded data and temporal changeable references of the thermal conductivity in the ROI, and a controller.
    • 一种热能测量装置,其能够通过测量已经存在于ROI中的温度分布直接测量目标内的ROI中的导热率分布,而不产生人为的其他温度场。 热性能测量装置包括用于测量ROI中的多个位置的温度的温度检测器,用于控制温度检测器和目标之间的距离的距离控制器,用于改变其间的相对位置的扫描仪,用于将物体放置在其上的台 用于记录测量的温度数据,位置数据和时间数据的记录器,用于确定是否处理热传导现象和对流现象中的至少一个的确定单元,用于从记录的所述ROI计算所述ROI中的热导率分布的处理器 ROI中的热导率的数据和时间可变参考,以及控制器。
    • 9. 发明授权
    • Displacement measurement method and apparatus, and ultrasonic diagnostic apparatus
    • US11026660B2
    • 2021-06-08
    • US15651545
    • 2017-07-17
    • Chikayoshi Sumi
    • Chikayoshi Sumi
    • A61B8/08G01S7/52A61B8/06A61B5/00A61B5/055A61B8/14A61B8/00G01R33/48G06T7/00G01S15/89A61B5/01G01S15/42
    • A displacement measurement apparatus includes an ultrasound sensor transmitting ultrasounds to an object in accordance with a drive signal, and detecting ultrasound echo signals generated in the object to output echo signals; a driving and processing unit supplying the drive signal to the sensor, and processing the echo signals from the sensor to obtain ultrasound echo data; and a controller controlling the driving and processing unit to yield an ultrasound echo data frame at each of plural different temporal phases based on the ultrasound echo data obtained by scanning the object. The ultrasound echo data has one of local single octant spectra, local single quadrant spectra, and local single half-band-sided spectra in a frequency domain. The ultrasound echo data is obtained from plural same bandwidth spectra. A data processing unit calculates a displacement at each local position or distribution thereof in at least one of axial, lateral, and elevational directions by solving simultaneous equations derived at each local position via implementing a predetermined displacement measurement method on the ultrasound echo data yielded at the plural different temporal phases with respect to at least one of the axial, lateral, and elevational carrier frequencies and the phase, or the one of the local single octant spectra, the local single quadrant spectra, and the local single half-band-sided spectra.