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    • 2. 发明授权
    • Multi-path, mono-polar co-fired hermetic electrical feedthroughs and methods of fabrication therfor
    • 多路,单极联合密封电馈电及其制造方法
    • US07164572B1
    • 2007-01-16
    • US11227523
    • 2005-09-15
    • Jeremy W. BurdonJoyce K. Yamamoto
    • Jeremy W. BurdonJoyce K. Yamamoto
    • H01G4/35
    • A61N1/3754H01G9/008
    • An electrical feedthrough assembly according to the invention can be used as a component of an implantable medical device (IMD) and/or or electrochemical cell. An IMD includes implantable pulse generators, cardioverter-defibrillators, physiologic sensors, drug-delivery systems, etc. Such assemblies require biocompatibility and resistance to degradation under applied bias current or voltage. In some forms of the invention, such assemblies are fabricated by using electrically common, multiply-interconnected electrical pathways including metallized vias and interlayer structures of conductive metallic material within bores and between ceramic layers. The layers are stacked together and sintered to form a substantially monolithic dielectric structure with at least one electrically common embedded metallization pathway extending through the structure. The metallization pathway reliably conducts electrical signals even when exposed to body fluids and tissue and providing electrical communication between internal IMD circuitry and active electrical components and/or circuitry coupled to the exterior of an IMD.
    • 根据本发明的电馈通组件可以用作可植入医疗装置(IMD)和/或电化学电池的组件。 IMD包括植入式脉冲发生器,心律转复除颤器,生理传感器,药物递送系统等。这些组件在施加的偏置电流或电压下需要生物相容性和抗降解性。 在本发明的某些形式中,通过使用电通常的,多重互连的电路径制造这种组件,所述电路径包括在孔内和陶瓷层之间的导电金属材料的金属化通孔和层间结构。 这些层堆叠在一起并烧结以形成具有延伸穿过该结构的至少一个电通常的嵌入金属化通路的基本上单片电介质结构。 金属化路径即使暴露于体液和组织也可靠地传导电信号,并提供内部IMD电路与耦合到IMD外部的有源电气部件和/或电路之间的电气通信。
    • 3. 发明授权
    • Display and method of manufacture
    • 显示和制造方法
    • US06781319B1
    • 2004-08-24
    • US10411697
    • 2003-04-11
    • Joyce K. YamamotoEmmett M. HowardLawrence N. Dworsky
    • Joyce K. YamamotoEmmett M. HowardLawrence N. Dworsky
    • H05B3700
    • H01J9/185H01J9/241
    • A field emissive display (40) having an anode plate (10) coupled to a cathode plate (20) and a method for manufacturing the field emissive display (40). A substrate (21) of the cathode plate (20) is manufactured or selected such that its coefficient of thermal expansion substantially matches that of the anode plate (10), i.e., the coefficients of thermal expansion of the cathode plate (20) and the anode plate (10) are within ten percent of each other. The cathode plate (20) is coupled to the anode plate (10) by means of a frit structure (41) whose coefficient of thermal expansion preferably substantially matches that of the cathode plate (20) and the anode plate (10). A control circuit can be mounted to the bottom surface of the field emissive display (40).
    • 具有耦合到阴极板(20)的阳极板(10)的场发射显示器(40)和用于制造场发射显示器(40)的方法。 制造或选择阴极板(20)的基板(21),使得其热膨胀系数基本上与阳极板(10)的热膨胀系数匹配,即阴极板(20)和 阳极板(10)彼此的百分之十。 阴极板(20)通过玻璃料结构(41)耦合到阳极板(10),其玻璃体系的热膨胀系数优选基本上与阴极板(20)和阳极板(10)的热膨胀系数基本匹配。 控制电路可以安装到场发射显示器(40)的底表面。
    • 4. 发明授权
    • Method for fabricating a field emission display having a spacer with a passivation layer
    • 用于制造具有带有钝化层的间隔物的场致发射显示器的方法
    • US06366009B1
    • 2002-04-02
    • US09365197
    • 1999-08-02
    • Peter A. SmithJoyce K. YamamotoCraig AmrineThomas NilssonSteven M. Smith
    • Peter A. SmithJoyce K. YamamotoCraig AmrineThomas NilssonSteven M. Smith
    • H01J1942
    • H01J9/185H01J9/242H01J31/123H01J2329/864
    • A method for fabricating a field emission display (100) includes the steps of providing a cathode plate (102), providing an anode plate (104), providing a spacer substrate (160) made from a bulk spacer material (109), cutting the spacer substrate (160) to define a spacer (108) having a surface (107), passivating the surface (107) of the spacer (108) using the bulk spacer material (109) to form a passivation layer, and disposing the spacer (108) between the cathode plate (102) and the anode plate (104). A field emission display (100) which includes a cathode plate (102) having a plurality of electron emitters (124), an anode plate (104) opposing the cathode plate (102), and a spacer (108) extending between the cathode plate (102) and anode plate (104). The spacer (108) has a passivation layer made from bulk spacer material (109).
    • 一种用于制造场致发射显示器(100)的方法包括以下步骤:提供阴极板(102),提供阳极板(104),提供由块状隔离材料(109)制成的间隔基板(160),切割 间隔基板(160)以限定具有表面(107)的间隔物(108),使用块状间隔物材料(109)钝化间隔物(108)的表面(107)以形成钝化层,并且将间隔物 108)与阴极板(102)之间。 一种场发射显示器(100),包括具有多个电子发射器(124)的阴极板(102),与阴极板(102)相对的阳极板(104),以及在阴极板 (102)和阳极板(104)。 间隔物(108)具有由块状隔离材料(109)制成的钝化层。
    • 6. 发明授权
    • Phased array cofire antenna structure and method for operating the same
    • 相控阵天线结构及其操作方法
    • US08050771B2
    • 2011-11-01
    • US12344980
    • 2008-12-29
    • Joyce K. YamamotoCharles S. Farlow
    • Joyce K. YamamotoCharles S. Farlow
    • A61N1/08
    • H01Q1/273A61N1/37229H01Q3/26
    • An antenna structure for an implantable medical device (IMD) is provided that includes an antenna embedded within a structure derived from a plurality of discrete dielectric layers. An array of electrodes are connected to the antenna structure and arranged for applying a bias across selected segments of the dielectric layers for altering the performance characteristics of the antenna. The bias applied by the array of electrodes can be selected to provide desired impedance matching between the antenna and the surrounding environment of the implant location to mitigate energy reflection effects at the transition from the antenna structure to the surrounding environment, to provide beam steering functionality for the antenna, or to alter the gain of the signals received by the antenna. IMD is configured to monitor received signal characteristics (e.g., RSSI, EVM or bit error rate) and alter material properties of the dielectric material through biasing to control antenna performance.
    • 提供了一种用于可植入医疗装置(IMD)的天线结构,其包括嵌入在由多个离散电介质层衍生的结构内的天线。 电极阵列连接到天线结构,并布置成用于在电介质层的所选段上施加偏置,以改变天线的性能特征。 可以选择由电极阵列施加的偏置以在天线与植入位置的周围环境之间提供期望的阻抗匹配,以减轻在从天线结构向周围环境的转变时的能量反射效应,以提供用于 天线,或改变由天线接收的信号的增益。 IMD被配置为监视接收的信号特性(例如,RSSI,EVM或误码率),并通过偏置来控制天线性能来改变电介质材料的材料特性。
    • 7. 发明申请
    • High Dielectric Substrate Antenna For Implantable Miniaturized Wireless Communications and Method for Forming the Same
    • 用于植入式微型无线通信的高介电基板天线及其形成方法
    • US20100109958A1
    • 2010-05-06
    • US12347379
    • 2008-12-31
    • Gregory J. HaubrichJoyce K. YamamotoDuane N. Mateychuk
    • Gregory J. HaubrichJoyce K. YamamotoDuane N. Mateychuk
    • H01Q1/00H01P11/00
    • H01Q1/27A61B5/0031A61N1/37229H01Q1/38H01Q9/30Y10T29/49016
    • An antenna structure for an implantable medical device (IMD) is provided including a lower dielectric biocompatible antenna portion positioned on a body side of the structure and a high dielectric portion including at least one dielectric substrate having a high dielectric constant positioned on a device side of the structure. The biocompatible antenna portion is derived from an antenna layer, a biocompatible surface layer, and at least one layer of biocompatible dielectric material (e.g., high temperature cofire ceramic (HTCC) material) that provides a matching gradient between the antenna and the surrounding environment. The high dielectric portion may include at least one layer of low temperature cofire ceramic (LTCC) material. The high dielectric portion may be bonded to the biocompatible antenna portion or cofired with the biocompatible antenna portion to form a single bilayer monolithic antenna structure having a lower dielectric HTCC biocompatible antenna portion and a high dielectric LTCC portion.
    • 提供了一种用于植入式医疗装置(IMD)的天线结构,其包括位于该结构体的主体侧的下部电介质生物相容性天线部分和高介电部分,该电介质部分包括至少一个位于器件侧的介电常数的介电基片 结构。 生物相容性天线部分源自天线层,生物相容性表面层,以及提供天线与周围环境之间的匹配梯度的至少一层生物相容介电材料(例如,高温共烧陶瓷(HTCC)材料)。 高电介质部分可以包括至少一层低温烧制陶瓷(LTCC)材料。 高电介质部分可以结合到生物相容性天线部分或与生物相容性天线部分共烧,以形成具有下介电HTCC生物相容性天线部分和高介电LTCC部分的单层双层单片天线结构。
    • 9. 发明申请
    • Phased Array Cofire Antenna Structure and Method for Forming the Same
    • 相控阵火焰天线结构及其形成方法
    • US20100168817A1
    • 2010-07-01
    • US12344980
    • 2008-12-29
    • Joyce K. YamamotoCharles S. Farlow
    • Joyce K. YamamotoCharles S. Farlow
    • A61N1/08
    • H01Q1/273A61N1/37229H01Q3/26
    • An antenna structure for an implantable medical device (IMD) is provided that includes an antenna embedded within a structure derived from a plurality of discrete dielectric layers. An array of electrodes are connected to the antenna structure and arranged for applying a bias across selected segments of the dielectric layers for altering the performance characteristics of the antenna. The bias applied by the array of electrodes can be selected to provide desired impedance matching between the antenna and the surrounding environment of the implant location to mitigate energy reflection effects at the transition from the antenna structure to the surrounding environment, to provide beam steering functionality for the antenna, or to alter the gain of the signals received by the antenna. IMD is configured to monitor received signal characteristics (e.g., RSSI, EVM or bit error rate) and alter material properties of the dielectric material through biasing to control antenna performance.
    • 提供了一种用于可植入医疗装置(IMD)的天线结构,其包括嵌入在由多个离散电介质层衍生的结构内的天线。 电极阵列连接到天线结构,并布置成用于在电介质层的所选段上施加偏置,以改变天线的性能特征。 可以选择由电极阵列施加的偏置以在天线与植入位置的周围环境之间提供期望的阻抗匹配,以减轻在从天线结构向周围环境的转变时的能量反射效应,以提供用于 天线,或改变由天线接收的信号的增益。 IMD被配置为监视接收的信号特性(例如,RSSI,EVM或误码率),并通过偏置来控制天线性能来改变电介质材料的材料特性。
    • 10. 发明授权
    • Display and method of manufacture
    • 显示和制造方法
    • US06577057B1
    • 2003-06-10
    • US09656644
    • 2000-09-07
    • Joyce K. YamamotoEmmett M. HowardLawrence N. Dworsky
    • Joyce K. YamamotoEmmett M. HowardLawrence N. Dworsky
    • H01J2986
    • H01J29/863H01J31/123
    • A field emissive display (40) having an anode plate (10) coupled to a cathode plate (20) and a method for manufacturing the field emissive display (40). A substrate (21) of the cathode plate (20) is manufactured or selected such that its coefficient of thermal expansion substantially matches that of the anode plate (10), i.e., the coefficients of thermal expansion of the cathode plate (20) and the anode plate (10) are within ten percent of each other. The cathode plate (20) is coupled to the anode plate (10) by means of a frit structure (41) whose coefficient of thermal expansion preferably substantially matches that of the cathode plate (20) and the anode plate (10). A control circuit can be mounted to the bottom surface of the field emissive display (40).
    • 具有耦合到阴极板(20)的阳极板(10)的场发射显示器(40)和用于制造场发射显示器(40)的方法。 制造或选择阴极板(20)的基板(21),使得其热膨胀系数基本上与阳极板(10)的热膨胀系数匹配,即阴极板(20)和 阳极板(10)彼此的百分之十。 阴极板(20)通过玻璃料结构(41)耦合到阳极板(10),其玻璃体系的热膨胀系数优选基本上与阴极板(20)和阳极板(10)的热膨胀系数基本匹配。 控制电路可以安装到场发射显示器(40)的底表面。