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
    • 2. 发明申请
    • AUTOMATED FITTING SYSTEM FOR DEEP BRAIN STIMULATION
    • 自动配准系统,用于深层脑刺激
    • US20090118786A1
    • 2009-05-07
    • US11934731
    • 2007-11-02
    • Paul Milton MeadowsMichael Adam Moffitt
    • Paul Milton MeadowsMichael Adam Moffitt
    • A61N1/05
    • A61N1/36185A61B5/0488A61B5/1101A61B5/1116A61B5/1126A61B5/1127A61B5/4064A61B5/4082A61B5/4094A61N1/0534A61N1/36082A61N1/36139A61N1/37235
    • Methods, systems, and external programmers provide therapy to a patient having a dysfunction. In one aspect, stimulation energy is conveyed from a neurostimulator to electrodes located within a tissue region of the patient, thereby changing the status of the dysfunction. A physiological end-function of the patient indicative of the changed status of the dysfunction is measured, and stimulation parameters are programmed into the neurostimulator based on the measured physiological end-function. In another aspect, electrodes are placed adjacent to a tissue region of the patient, and stimulation energy is conveyed from the electrodes to the tissue region in accordance with the stimulation parameters, thereby changing the status of the dysfunction. A physiological end-function of the patient indicative of the changed status of the dysfunction is measured, and the stimulation parameters are adjusted based on the measured physiological end-function.
    • 方法,系统和外部程序员为具有功能障碍的患者提供治疗。 在一个方面,刺激能量从神经刺激器传送到位于患者组织区域内的电极,从而改变功能障碍的状态。 测量指示功能障碍状态改变的患者的生理学终端功能,并且基于所测量的生理学终端功能将刺激参数编程到神经刺激器中。 在另一方面,电极被放置在患者的组织区域附近,并且根据刺激参数将刺激能量从电极传送到组织区域,从而改变功能障碍的状态。 测量指示功能障碍状态改变的患者的生理学终端功能,并且基于所测量的生理学终端功能来调整刺激参数。
    • 4. 发明申请
    • COUPLED MONOPOLAR AND MULTIPOLAR PULSING FOR CONDITIONING AND STIMULATION
    • 用于调节和刺激的联合单调和多重脉冲
    • US20080294211A1
    • 2008-11-27
    • US11752898
    • 2007-05-23
    • Michael A. Moffitt
    • Michael A. Moffitt
    • A61N1/362
    • A61N1/36146A61N1/0553A61N1/36017A61N1/36071A61N1/36167
    • A method and neurostimulation system of providing therapy to a patient is provided. A plurality of electrodes are placed in contact with tissue of a patient, a conditioning pulse is conveyed from the plurality of electrodes in one of a monopolar manner and a multipolar manner, and a stimulation pulse is conveyed from the plurality of electrodes in a different one of the monopolar manner and the multipolar manner. As one example, the sub-threshold conditioning pulse may be a depolarizing pulse conveyed from the plurality of electrodes to render a first region of the tissue less excitable to stimulation, and the stimulation pulse may be conveyed from the plurality of electrodes to stimulate a second different region of the tissue.
    • 提供了向患者提供治疗的方法和神经刺激系统。 将多个电极放置成与患者的组织接触,以单极方式和多极方式从多个电极传送调理脉冲,并且从多个电极以不同的方式传送刺激脉冲 的单极方式和多极方式。 作为一个示例,子阈值调节脉冲可以是从多个电极传送的去极化脉冲,以使得组织的第一区域不太可兴奋地进行刺激,并且刺激脉冲可以从多个电极传送以刺激第二个 组织的不同区域。
    • 8. 发明申请
    • Orientation-Independent Implantable Pulse Generator
    • 定向无关种植脉冲发生器
    • US20080097554A1
    • 2008-04-24
    • US11550733
    • 2006-10-18
    • David H. PayneMatthew I. Haller
    • David H. PayneMatthew I. Haller
    • A61N1/375
    • A61N1/3787
    • An improved structure for an implantable medical device, such as an implantable pulse generator, is disclosed. The improved device includes a charging coil for wirelessly receiving energy via induction from an external charger. The charging coil in the device is located substantially equidistantly from the two planar sides of the device case. Because the coil is substantially equidistant within the thickness of the case of the device, the device's orientation within the patient is irrelevant, at least from the standpoint of the efficiency of charging the device using the external charger. Accordingly, charging is not adversely affected if the device is implanted in the patient with the wrong orientation, or if the device flips within the patient after implantation. Moreover, because the central portion of the device naturally corresponds to the largest lateral extent within the case due to the case's curved edges, the charging coil can be made larger in area, which improves its gain vis-à-vis the external charger.
    • 公开了一种用于可植入医疗装置的改进的结构,例如可植入脉冲发生器。 改进的装置包括用于通过来自外部充电器的感应无线地接收能量的充电线圈。 装置中的充电线圈与装置壳体的两个平面侧基本上等距离地设置。 由于线圈在器件外壳的厚度范围内基本上是等距的,所以至少从使用外部充电器的设备充电效率的观点来看,器件在患者体内的取向是无关紧要的。 因此,如果将装置以错误的方向植入患者中,或者如果装置在植入后在患者体内翻转,则不会不利地影响充电。 此外,由于装置的中心部分由于壳体的弯曲边缘而自然地对应于壳体内的最大横向范围,因此可以使充电线圈的面积更大,这相对于外部充电器而言增益更大。
    • 9. 发明申请
    • Multi-Electrode Implantable Stimulator Device with a Single Current Path Decoupling Capacitor
    • 具有单电流路径去耦电容器的多电极植入式刺激器装置
    • US20080097529A1
    • 2008-04-24
    • US11550655
    • 2006-10-18
    • Jordi ParramonKiran NimmagaddaEmanuel FeldmanYuping He
    • Jordi ParramonKiran NimmagaddaEmanuel FeldmanYuping He
    • A61N1/00
    • A61N1/36125A61N1/025A61N1/08A61N1/372A61N1/37205A61N1/3756
    • Disclosed herein are circuits and methods for a multi-electrode implantable stimulator device incorporating one decoupling capacitor in the current path established via at least one cathode electrode and at least one anode electrode. In one embodiment, the decoupling capacitor may be hard-wired to a dedicated anode on the device. The cathodes are selectively activatable via stimulation switches. In another embodiment, any of the electrodes on the devices can be selectively activatable as an anode or cathode. In this embodiment, the decoupling capacitor is placed into the current path via selectable anode and cathode stimulation switches. Regardless of the implementation, the techniques allow for the benefits of capacitive decoupling without the need to associate decoupling capacitors with every electrode on the multi-electrode device, which saves space in the body of the device. Although of particular benefit when applied to microstimulators, the disclosed technique can be used with space-saving benefits in any stimulator device.
    • 本文公开了用于在经由至少一个阴极电极和至少一个阳极电极建立的电流路径中并入一个去耦电容器的多电极可植入刺激器装置的电路和方法。 在一个实施例中,去耦电容器可以硬连接到器件上的专用阳极。 阴极可以通过刺激开关选择性地激活。 在另一个实施例中,器件上的任何电极可以选择性地激活为阳极或阴极。 在该实施例中,去耦电容通过可选择的阳极和阴极刺激开关放置在电流路径中。 不管实施方案如何,这些技术允许电容去耦的优点,而不需要将去耦电容器与多电极器件上的每个电极相关联,这节省了器件体内的空间。 虽然在应用于微型激励器时特别有益,但是所公开的技术可以在任何刺激器装置中具有节省空间的优点。