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    • 41. 发明授权
    • Inductively-powered gas discharge lamp circuit
    • 电感式气体放电灯电路
    • US07821208B2
    • 2010-10-26
    • US11620840
    • 2007-01-08
    • David W. BaarmanScott A. MollemaRonald L. StoddardJoshua K. Schwannecke
    • David W. BaarmanScott A. MollemaRonald L. StoddardJoshua K. Schwannecke
    • H05B37/00
    • H05B41/295
    • An inductively powered gas discharge lamp assembly having a secondary circuit with starter circuitry that provides pre-heating when power is supplied to the secondary circuit at a pre-heat frequency and that provides normal operation when power is supplied to the secondary circuit at an operating frequency. In one embodiment, the starter circuitry includes a pre-heat capacitor connected between the lamp electrodes and an operating capacitor located between the secondary coil and the lamp. The pre-heat capacitor is selected so that the electrical flow path through the pre-heat capacitor has a lesser impedance than the electrical flow path through the gas of the lamp when power is applied to the secondary circuit at the pre-heat frequency, and so that the electrical flow path through the pre-heat capacitor has a greater impedance than the electrical flow path through the gas when power is applied the operating frequency. The primary circuit may include a tank circuit for which the resonant frequency can be adjusted to match the pre-heat frequency and the operating frequency.
    • 一种感应动力气体放电灯组件,其具有具有起动器电路的次级电路,该起动器电路在以预热频率向次级电路供电时提供预热,并且当以工作频率向次级电路供电时,提供正常运行 。 在一个实施例中,起动器电路包括连接在灯电极和位于次级线圈和灯之间的工作电容器之间的预热电容器。 选择预热电容器,使得通过预热电容器的电流路径比通过灯的气体的电流路径具有比在预热频率下施加到次级电路的电力时更小的阻抗,以及 使得通过预热电容器的电流通道具有比通过气体的电流路径更大的阻抗,其在施加功率时工作频率。 主电路可以包括谐振频率可以被调节以匹配预热频率和工作频率的振荡电路。
    • 42. 发明授权
    • Starter for a gas discharge light source
    • 起动器用于气体放电光源
    • US07560867B2
    • 2009-07-14
    • US11550216
    • 2006-10-17
    • Joshua K. SchwanneckeKarlis VecziedinsDavid W. Baarman
    • Joshua K. SchwanneckeKarlis VecziedinsDavid W. Baarman
    • H05B41/291
    • H05B41/295
    • A starter for a gas discharge light source is configured to measure an initial resistance of one or more filaments of the gas discharge light source, such as a fluorescent light, each time the gas discharge light source is initially powered via a ballast. The starter may initiate a preheat cycle to heat the one or more filaments. The duration of the preheat cycle may be automatically customized by the starter based on the initial resistance and a target hot resistance that is calculated by the starter based on the initial resistance. The duration of the preheat cycle may be automatically customized by the starter to optimize reliability and the life of the gas discharge light source.
    • 用于气体放电光源的起动器被配置成每当气体放电光源首先通过镇流器供电时,测量诸如荧光灯的气体放电光源的一个或多个细丝的初始电阻。 启动器可以启动预热循环以加热一个或多个细丝。 预热循环的持续时间可以由启动器根据初始电阻和由起动器基于初始电阻计算的目标热阻自动地定制。 预热循环的持续时间可以通过启动器自动定制,以优化气体放电光源的可靠性和寿命。
    • 43. 发明申请
    • INDUCTIVELY-POWERED GAS DISCHARGE LAMP CIRCUIT
    • 电感式放电灯电路
    • US20080164817A1
    • 2008-07-10
    • US11620840
    • 2007-01-08
    • David W. BaarmanScott A. MollemaRonald L. StoddardJoshua K. Schwannecke
    • David W. BaarmanScott A. MollemaRonald L. StoddardJoshua K. Schwannecke
    • H01J7/24H05B37/00
    • H05B41/295
    • An inductively powered gas discharge lamp assembly having a secondary circuit with starter circuitry that provides pre-heating when power is supplied to the secondary circuit at a pre-heat frequency and that provides normal operation when power is supplied to the secondary circuit at an operating frequency. In one embodiment, the starter circuitry includes a pre-heat capacitor connected between the lamp electrodes and an operating capacitor located between the secondary coil and the lamp. The pre-heat capacitor is selected so that the electrical flow path through the pre-heat capacitor has a lesser impedance than the electrical flow path through the gas of the lamp when power is applied to the secondary circuit at the pre-heat frequency, and so that the electrical flow path through the pre-heat capacitor has a greater impedance than the electrical flow path through the gas when power is applied the operating frequency. The primary circuit may include a tank circuit for which the resonant frequency can be adjusted to match the pre-heat frequency and the operating frequency.
    • 一种感应动力气体放电灯组件,其具有具有起动器电路的次级电路,该起动器电路在以预热频率向次级电路供电时提供预热,并且当以工作频率向次级电路供电时,提供正常运行 。 在一个实施例中,起动器电路包括连接在灯电极和位于次级线圈和灯之间的工作电容器之间的预热电容器。 选择预热电容器,使得通过预热电容器的电流路径比通过灯的气体的电流路径具有比在预热频率下施加到次级电路的电力时更小的阻抗,以及 使得通过预热电容器的电流通道具有比通过气体的电流路径更大的阻抗,其在施加功率时工作频率。 主电路可以包括谐振频率可以被调节以匹配预热频率和工作频率的振荡电路。
    • 47. 发明授权
    • Input parasitic metal detection
    • 输入寄生金属检测
    • US08620484B2
    • 2013-12-31
    • US13022944
    • 2011-02-08
    • David W. BaarmanJoshua K. SchwanneckeNeil W. KuyvenhovenA. Esai UmeneiDale R. LiffAndrew C. ZeikMark A. BlahaJason L. AmistadiRobert D. Gruich
    • David W. BaarmanJoshua K. SchwanneckeNeil W. KuyvenhovenA. Esai UmeneiDale R. LiffAndrew C. ZeikMark A. BlahaJason L. AmistadiRobert D. Gruich
    • G06F19/00
    • H02J50/12G01R21/00G01V3/02H01F38/14H02J5/005H02J7/025H02J50/60
    • A system and method of controlling inductive power transfer in an inductive power transfer system and a method for designing an inductive power transfer system with power accounting. The method of controlling inductive power transfer including measuring a characteristic of input power, a characteristic of power in the tank circuit, and receiving information from a secondary device. Estimating power consumption based on the measured characteristic of tank circuit power and received information and comparing the measured characteristic of input power, the information from the secondary device, and the estimated power consumption to determine there is an unacceptable power loss. The method for designing an inductive power transfer system with power accounting including changing the distance between a primary side and a secondary side and changing a load of the secondary side. For each distance between the primary side and the secondary side and for each load, measuring a circuit parameter on the primary side in the tank circuit and a circuit parameter on the secondary side during the transfer of contactless energy. The method further including selecting a formula to describe power consumption in the system during the transfer of contactless energy based on coefficients and the circuit parameters, and determining the coefficients using the measured circuit parameters.
    • 一种在感应功率传输系统中控制感应功率传输的系统和方法以及用于设计具有功率计费的感应功率传输系统的方法。 控制感应功率传输的方法,包括测量输入功率的特性,储能电路中的功率特性,以及从辅助设备接收信息。 基于测量的电路功率特性和接收到的信息估计功耗,并比较输入功率的测量特性,来自辅助设备的信息和估计的功耗,以确定存在不可接受的功率损耗。 用于设计具有功率计量的感应功率传输系统的方法,包括改变初级侧和次级侧之间的距离并改变次级侧的负载。 对于初级侧和次级侧之间以及每个负载的每个距离,在传递无接触能量期间,测量储能电路初级侧的电路参数和次级侧的电路参数。 该方法还包括在基于系数和电路参数的非接触能量传送期间选择公式来描述系统中的功率消耗,以及使用所测量的电路参数来确定系数。