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    • 6. 发明授权
    • Battery management for an implantable medical device
    • 可植入医疗器械的电池管理
    • US09393433B2
    • 2016-07-19
    • US13489770
    • 2012-06-06
    • Jordi ParramonGoran N. MarnfeldtRobert OzawaEmanuel FeldmanDave Peterson
    • Jordi ParramonGoran N. MarnfeldtRobert OzawaEmanuel FeldmanDave PetersonYuping He
    • A61N1/378A61N1/08
    • A61N1/3787A61N1/08
    • Battery management circuitry for an implantable medical device such as an implantable neurostimulator is described. The circuitry has a T-shape with respect to the battery terminal, with charging circuitry coupled between rectifier circuitry and the battery terminal on one side of the T, and load isolation circuitry coupled between the load and the battery terminal on the other side. The load isolation circuitry can comprise two switches wired in parallel. An undervoltage fault condition opens both switches to isolate the battery terminal from the load to prevent further dissipation of the battery. Other fault conditions will open only one the switches leaving the other closed to allow for reduced power to the load to continue implant operations albeit at safer low-power levels. The battery management circuitry can be fixed in a particular location on an integrated circuit which also includes for example the stimulation circuitry for the electrodes.
    • 描述了诸如可植入神经刺激器的可植入医疗装置的电池管理电路。 电路相对于电池端子具有T形,充电电路耦合在整流器电路和T的一侧上的电池端子之间,负载隔离电路耦合在另一侧的负载和电池端子之间。 负载隔离电路可以包括并联的两个开关。 欠压故障条件打开两个开关以将电池端子与负载隔离,以防止电池进一步耗散。 其他故障条件将仅打开一个开关,使另一个闭合,以允许降低负载的功率,以继续进行种植体操作,尽管处于更安全的低功率水平。 电池管理电路可以固定在集成电路的特定位置,该集成电路还包括例如用于电极的刺激电路。
    • 7. 发明申请
    • Battery Management for an Implantable Medical Device
    • 可植入医疗器械的电池管理
    • US20130023943A1
    • 2013-01-24
    • US13489770
    • 2012-06-06
    • Jordi ParramonGoran N. MarnfeldtRobert OzawaEmanuel FeldmanDave Peterson
    • Jordi ParramonGoran N. MarnfeldtRobert OzawaEmanuel FeldmanDave PetersonYuping He
    • A61N1/36
    • A61N1/3787A61N1/08
    • Battery management circuitry for an implantable medical device such as an implantable neurostimulator is described. The circuitry has a T-shape with respect to the battery terminal, with charging circuitry coupled between rectifier circuitry and the battery terminal on one side of the T, and load isolation circuitry coupled between the load and the battery terminal on the other side. The load isolation circuitry can comprise two switches wired in parallel. An undervoltage fault condition opens both switches to isolate the battery terminal from the load to prevent further dissipation of the battery. Other fault conditions will open only one the switches leaving the other closed to allow for reduced power to the load to continue implant operations albeit at safer low-power levels. The battery management circuitry can be fixed in a particular location on an integrated circuit which also includes for example the stimulation circuitry for the electrodes.
    • 描述了诸如可植入神经刺激器的可植入医疗装置的电池管理电路。 电路相对于电池端子具有T形,充电电路耦合在整流器电路和T的一侧上的电池端子之间,负载隔离电路耦合在另一侧的负载和电池端子之间。 负载隔离电路可以包括并联的两个开关。 欠压故障条件打开两个开关以将电池端子与负载隔离,以防止电池进一步耗散。 其他故障条件将仅打开一个开关,使另一个闭合,以允许降低负载的功率,以继续进行种植体操作,尽管处于更安全的低功率水平。 电池管理电路可以固定在集成电路的特定位置,该集成电路还包括例如用于电极的刺激电路。
    • 8. 发明授权
    • 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可植入刺激装置
    • US07881803B2
    • 2011-02-01
    • US11550655
    • 2006-10-18
    • Jordi ParramonKiran NimmagaddaEmanuel FeldmanYuping He
    • Jordi ParramonKiran NimmagaddaEmanuel FeldmanYuping He
    • A61N1/40
    • 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。
    • 10. 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。