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    • 11. 发明申请
    • MEDICAL DEVICE RECHARGE SYSTEMS USING A CONTROLLER IN WIRELESS COMMUNICATION WITH A SEPARATE RECHARGE DEVICE
    • 使用无线通信中的控制器与单独的充电装置的医疗装置充电系统
    • US20120197351A1
    • 2012-08-02
    • US13016711
    • 2011-01-28
    • David P. OlsonNathan A. Torgerson
    • David P. OlsonNathan A. Torgerson
    • A61N1/378H02J7/00
    • A61N1/3787
    • Medical device recharging systems include a controller and a separate recharge device that communicate wirelessly together to provide recharging to an implantable medical device. Either the controller or the recharge device may also communicate wirelessly with the implantable medical device to obtain recharge status and other information. There may be multiple recharge devices present within communication range of the controller, and the controller may determine which recharge device to activate depending upon proximity of each recharge device to the implantable medical device. The controller may allow the recharge device that is active at any given time to change so that the patient having the implantable medical device can move about in the area where the recharge devices are located while recharging continues.
    • 医疗装置再充电系统包括一个控制器和一个单独的再充电装置,它们以无线方式通信在一起以向可植入医疗装置提供再充电。 控制器或充电设备也可以与可植入医疗设备进行无线通信,以获得充电状态和其他信息。 在控制器的通信范围内可能存在多个充电设备,并且控制器可以根据每个再充电设备与可植入医疗设备的接近度来确定要激活的再充电设备。 控制器可以允许在任何给定时间处于活动状态的再充电设备改变,使得具有可植入医疗设备的患者可以在充电设备所在的区域中移动,同时继续充电。
    • 14. 发明申请
    • BATTERY RECHARGE MANAGEMENT FOR IMPLANTABLE MEDICAL DEVICE
    • 用于可植入医疗器械的电池充电管理
    • US20110077720A1
    • 2011-03-31
    • US12959138
    • 2010-12-02
    • Nathan A. TorgersonJames E. Riekels
    • Nathan A. TorgersonJames E. Riekels
    • A61N1/02
    • A61N1/3787A61N1/36142
    • An implantable medical device having an implantable power source such as a rechargeable lithium ion battery. The implantable medical device includes a recharge module that regulates the recharging process of the implantable power source using closed-loop feedback control. The recharge module includes a recharge regulator, a recharge measurement device monitoring at least one recharge parameter, and a recharge regulation control unit for regulating the recharge energy delivered to the power source in response to the recharge measurement device. The recharge module adjusts the energy provided to the power source to ensure that the power source is being recharged under safe levels.
    • 一种具有可植入电源的可植入医疗装置,例如可充电锂离子电池。 可植入医疗装置包括充电模块,其使用闭环反馈控制来调节可植入电源的再充电过程。 再充电模块包括再充电调节器,监视至少一个再充电参数的再充电测量装置,以及用于响应于再充电测量装置调节传送到电源的再充电能量的再充电调节控制单元。 充电模块调整提供给电源的能量,以确保电源在安全水平下充电。
    • 15. 发明申请
    • SEIZURE DETECTION ALGORITHM ADJUSTMENT
    • 检测检测算法调整
    • US20100121215A1
    • 2010-05-13
    • US12432268
    • 2009-04-29
    • Jonathon E. GiftakisNathan A. Torgerson
    • Jonathon E. GiftakisNathan A. Torgerson
    • A61B5/0476A61B5/11
    • A medical system implements a seizure detection algorithm to detect a seizure based on a first patient parameter. The medical system monitors a second patient parameter to adjust the seizure detection algorithm. In some examples, the medical system determines whether a seizure for which therapy delivery is desirable occurred based on a second patient parameter. If a target seizure occurred, and the seizure detection algorithm did not detect the target seizure, the medical system adjusts the seizure detection algorithm to detect the target seizure. For example, the medical system may determine a first patient parameter characteristic indicative of the target seizure detected based on the second patient parameter and store the first patient parameter characteristic as part of the seizure detection algorithm. In some examples, the first patient parameter is an electrical brain signal and the second patient parameter is patient activity (e.g., patient motion or posture).
    • 医疗系统实施缉获检测算法以基于第一患者参数检测癫痫发作。 医疗系统监测第二个患者参数以调整发作检测算法。 在一些示例中,医疗系统基于第二患者参数确定是否期望发生治疗递送的癫痫发作。 如果发生目标发作,并且癫痫发作检测算法未检测到目标癫痫发作,则医疗系统调整癫痫发作检测算法以检测目标癫痫发作。 例如,医疗系统可以基于第二患者参数确定指示检测到的目标发作的第一患者参数特征,并将第一患者参数特征存储为发作检测算法的一部分。 在一些示例中,第一患者参数是电脑信号,第二患者参数是患者活动(例如患者运动或姿势)。
    • 16. 发明申请
    • DETERMINATION OF STIMULATION OUTPUT CAPABILITIES THROUGHOUT POWER SOURCE VOLTAGE RANGE
    • 通过电源电压范围确定刺激输出能力
    • US20100114252A1
    • 2010-05-06
    • US12362198
    • 2009-01-29
    • Nathan A. Torgerson
    • Nathan A. Torgerson
    • A61N1/36
    • A61N1/3782A61N1/3605A61N1/36082A61N1/3708
    • Techniques for determining whether a medical device will be able to deliver stimulation according to a particular program throughout a useable voltage range of a power source of the medical device are described. According to some examples, the medical device charges a charge pump to a level sufficient to provide a stimulation output according to a stimulation program, determines a length of time that the charge pump charges at the present power source voltage level, and determines a time between stimulation pulses of the stimulation program. Whether the medical device will be able to deliver stimulation according to the program when the power source is at a power source voltage level lower than the present voltage level is determined based on the length of time the charge pump charges at the present voltage level of the power source and the time between stimulation pulses.
    • 描述了用于确定医疗设备是否能够根据特定程序在医疗设备的电源的可用电压范围内递送刺激的技术。 根据一些示例,医疗设备将电荷泵充电到足以根据刺激程序提供刺激输出的水平,确定电荷泵在当前电源电压电平下充电的时间长度,并确定 刺激程序的刺激脉冲。 当电源处于低于当前电压电平的电源电压电平时,医疗设备是否能够根据程序传送刺激是基于电荷泵在当前电压水平下的电压时间长度来确定的 电源和刺激脉冲之间的时间。
    • 17. 发明申请
    • DETERMINATION OF STIMULATION OUTPUT CAPABILITIES THROUGHOUT POWER SOURCE VOLTAGE RANGE
    • 通过电源电压范围确定刺激输出能力
    • US20090132009A1
    • 2009-05-21
    • US11943858
    • 2007-11-21
    • Nathan A. Torgerson
    • Nathan A. Torgerson
    • A61N1/00
    • A61N1/3708A61N1/3706A61N1/371A61N1/378A61N1/3782
    • Techniques for determining whether a medical device will be able to deliver stimulation according to a particular program throughout a voltage range of a power source of the medical device are described. According to some examples, the medical device simulates a power source voltage level lower than a present voltage level of the power source, and delivers stimulation according to the program while simulating the lower power source voltage level. Whether medical device will be able to deliver stimulation according to the program when the power source is actually at the lower voltage level is determined based on an electrical parameter measured during the delivery of stimulation while simulating the lower voltage level. The simulation and determination for a program may be performed, as an example, when the program is created or modified.
    • 描述了用于确定医疗设备是否能够在医疗设备的电源的整个电压范围内根据特定程序传递刺激的技术。 根据一些示例,医疗设备模拟低于电源的当前电压电平的电源电压电平,并且在模拟较低电源电压电平的同时根据程序传送刺激。 基于在模拟较低电压电平期间在刺激递送期间测量的电参数来确定当电源实际处于较低电压电平时,医疗装置是否能够根据程序传送刺激。 作为示例,当程序被创建或修改时,可以执行程序的模拟和确定。
    • 18. 发明授权
    • Device and method for determining and communicating the remaining life of a battery in an implantable neurological tissue stimulating device
    • 用于确定和传达可植入神经组织刺激装置中的电池的剩余寿命的装置和方法
    • US06820019B1
    • 2004-11-16
    • US09364967
    • 1999-07-31
    • Kevin J. KellyNathan A. Torgerson
    • Kevin J. KellyNathan A. Torgerson
    • A61N139
    • A61N1/3708
    • The invention is a device and method for determining the current status and remaining life of a power source in an implantable neurological tissue stimulator. The invention contemplates a method, performed in a system without human intervention, that includes the steps of assessing the power source voltage of the power source in an IPG, determining, using the power source voltage, where in the power source life cycle the power source is, and taking action in response to the determination of where in the power source life cycle the power source is. The invention also includes a device that embodies the method described above. The device, which is partially resident in an IPG and partially resident in an external device such as a programmer measures the power source voltage in the IPG, using the power source voltage determines where in the power source life cycle the power source is and takes appropriate action in response to the determination of where in the power source life cycle the power source is. A processor, either on the IPG or in the programmer is the preferred structure for determining where in the power source life cycle the power source is and for directing the appropriate action in response to the determination of where in the power source life cycle the power source is.
    • 本发明是用于确定可植入神经组织刺激器中的电源的当前状态和剩余寿命的装置和方法。 本发明考虑了一种在没有人为干预的系统中执行的方法,其包括以下步骤:评估IPG中的电源的电源电压,使用电源电压确定电源生命周期中的电源 并且采取行动来响应电源生命周期中电源的确定位置。 本发明还包括体现上述方法的装置。 部分驻留在IPG中并且部分驻留在诸如编程器的外部设备中的设备使用电源电压来测量IPG中的电源电压,从而确定电源在电源的寿命周期中并且适当地 响应于确定电源的电源生命周期中的哪个位置的动作。 在IPG或编程器中的处理器是用于确定电源在电源生命周期中的哪里的优选结构,并且响应于确定电源生命周期中的哪个电源来引导适当的动作 是的