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    • 3. 发明申请
    • BIOFEEDBACK APPARATUS USING MAGNETIC STIMULATOR AND CONTROL METHOD THEREFOR
    • 使用磁力刺激仪的生物安全装置及其控制方法
    • US20150328475A1
    • 2015-11-19
    • US14652603
    • 2013-08-23
    • MCUBETECHNOLOGY CO., LTD.
    • Jung Hoe KIMSeung Tai KIM
    • A61N2/00A61B5/00A61B5/20
    • A61N2/004A61B5/202A61B5/205A61B5/227A61B5/486A61B5/6874A61N2/00
    • Provided is a biofeedback apparatus using a magnetic stimulator. In the biofeedback apparatus, a tube filled with a non-conductive fluid is disposed between a magnetic stimulator and patient's pelvic floor muscles to measure a change in pressure according to muscle exercise of the pelvic floor muscles, biofeedback is available without insertion of a tool for measurement of a pressure or an EMG (electromyogram) into vagina, urethra, or the like. In the biofeedback apparatus, since driving of the magnetic stimulator and driving of a pressure transducer do not influence each other, a controller can continuously monitor a state of change in pressure of the pelvic floor muscles by using the pressure transducer and, at the same time, can adjust a strength of a magnetic field generated from the magnetic stimulator to an optimal strength according to the monitored state, so that it is possible to maximize the effect of treatment.
    • 提供了使用磁刺激器的生物反馈装置。 在生物反馈装置中,填充有非导电流体的管设置在磁刺激器和患者的盆底肌肉之间,以根据骨盆肌肉的肌肉运动来测量压力变化,生物反馈可用于不插入工具 将压力或EMG(肌电图)测量到阴道,尿道等中。 在生物反馈装置中,由于磁刺激器的驱动和压力传感器的驱动不会相互影响,因此控制器可以通过使用压力传感器来连续地监测骨盆底肌肉的压力变化的状态,同时, 可以根据监视状态将从磁刺激器产生的磁场的强度调整到最佳强度,从而可以使治疗效果最大化。
    • 6. 发明授权
    • Miniature pressure sensor assembly for catheter
    • 用于导管的微型压力传感器组件
    • US07911315B2
    • 2011-03-22
    • US11496533
    • 2006-07-28
    • Alistair D. Bradley
    • Alistair D. Bradley
    • A61B5/103A61B5/117G01B5/30G01B7/16H01L27/108H01L29/94G01L1/22H01C10/10
    • A61B5/0215A61B5/03A61B5/6874A61B2562/028A61M2025/0002
    • A pressure sensor assembly configured for use with a catheter. In one illustrative embodiment, the pressure sensor assembly may include a multi-layer co-fired ceramic (MLCC) package. The MLCC package may include two or more ceramic layers that are co-fired together, with a cavity defined by at least some of the ceramic layers. At least one internal bond pad is provided within the cavity, and at least one external connection point is provided on the MLCC package exterior. A sensor, such as a pressure sensor, may be positioned and attached within the cavity. The sensor may be electrically connected to at least one of the internal bond pads. In some cases, a sealant may be used to encapsulate the sensor within the cavity. Once fabricated, the MLCC sensor assembly may be provided in a sensor lumen of a catheter.
    • 构造成与导管一起使用的压力传感器组件。 在一个说明性实施例中,压力传感器组件可以包括多层共烧陶瓷(MLCC)封装。 MLCC封装可以包括两个或更多个共同烧结的陶瓷层,其中空腔由至少一些陶瓷层限定。 在空腔内设置至少一个内部接合焊盘,并且至少一个外部连接点设置在MLCC封装外部。 诸如压力传感器的传感器可以被定位并附接在空腔内。 传感器可以电连接到至少一个内部接合焊盘。 在一些情况下,可以使用密封剂将传感器封装在空腔内。 一旦制造,MLCC传感器组件可以设置在导管的传感器腔中。
    • 9. 发明申请
    • Method for simulation of an electric stimulation in an mr imaging system
    • 用于模拟mr成像系统中电刺激的方法
    • US20070010737A1
    • 2007-01-11
    • US10554339
    • 2004-04-22
    • Paul HarveyJouke SminkGerardus PeerenJacob Den Boer
    • Paul HarveyJouke SminkGerardus PeerenJacob Den Boer
    • A61B5/05
    • A61B5/055A61B5/6874A61B5/7239A61N2/02
    • A novel method is described for simulation of an electric stimulation of the nerve system subject to the rate of change of gradient fields. A gradient signal is filtered and a stimulation signal is derived, which is compared with a predetermined stimulation threshold value. An indicator signal is generated if the threshold value is exceeded. Therefore the time dependent and spatially dependent electric fields as defined by the scanning sequence and the gradient coil properties are calculated. A vector combination of said calculated electric field components from each gradient coil axis is performed, which results in a temporal diagram of the total electric field at various spatial locations within the gradient coil. The stimulation probability at each location from said temporal diagram and said stimulation signal is then calculated, and said stimulation probability is compared with the stimulation threshold value at each location within the gradient coil.
    • 描述了一种新颖的方法来模拟经过梯度场变化率的神经系统的电刺激。 对梯度信号进行滤波,得到与预定的刺激阈值进行比较的刺激信号。 如果超过阈值,则产生指示信号。 因此,计算由扫描序列和梯度线圈特性定义的时间依赖性和空间依赖性电场。 执行来自每个梯度线圈轴的所述计算的电场分量的矢量组合,其导致梯度线圈内的各个空间位置处的总电场的时间图。 然后计算来自所述时间图和所述刺激信号的每个位置处的刺激概率,并将所述刺激概率与梯度线圈内的每个位置处的刺激阈值进行比较。