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    Aperture plate and related system and method
    1.
    发明授权
    Aperture plate and related system and method 有权
    孔板及相关系统及方法

    公开(公告)号：US07277213B2

    公开(公告)日：2007-10-02

    申请号：US11003179

    申请日：2004-12-03

    Applicant: Mathew D. Watson ,  Christopher A. Wiklof

    Inventor： Mathew D. Watson ,  Christopher A. Wiklof

    IPC: G02B26/10

    CPC classification number: G02B5/005 ,  G02B26/0833

    Abstract: An aperture plate includes an opening and a surface adjacent to the opening. The opening passes electromagnetic energy such as light to a reflector that is aligned with the opening and that directs the electromagnetic energy to a location. The surface reflects incident electromagnetic energy away from the location in a direction that is outside of the range of directions. Such an aperture plate insures that electromagnetic energy, e.g., light, strikes only the desired portions of the reflector, and that peripheral light that is outside of the aperture opening is reflected away from the location, e.g., display screen, toward which the reflector directs the electromagnetic energy. Furthermore, because such an aperture plate is mounted near the reflector, the alignment tolerances are typically less stringent than for an aperture plate mounted near the energy source.

    Abstract translation: 孔板包括开口和与开口相邻的表面。 开口将诸如光的电磁能量传递到与开口对准的反射器，并将电磁能量引导到位置。 该表面反射入射电磁能远离位于方向范围之外的位置。 这样的孔板确保电磁能量（例如光）仅仅触发反射器的期望部分，并且位于孔径开口外部的外围光线被反射离开反射器指向的位置，例如显示屏 电磁能量。 此外，由于这种孔板安装在反射器附近，所以对准公差通常不如安装在能量源附近的孔板更不严格。

    Scanned light display system using array of collimating elements in conjunction with large numerical aperture light emitter array
    3.
    发明授权
    Scanned light display system using array of collimating elements in conjunction with large numerical aperture light emitter array 有权
    扫描光显示系统使用准直元件阵列与大数值孔径光发射器阵列相结合

    公开(公告)号：US07365892B2

    公开(公告)日：2008-04-29

    申请号：US11404308

    申请日：2006-04-14

    Applicant: Randall B. Sprague ,  Mathew D. Watson ,  Thomas W. Montague ,  Christopher A. Wiklof

    Inventor： Randall B. Sprague ,  Mathew D. Watson ,  Thomas W. Montague ,  Christopher A. Wiklof

    IPC: G02B26/08

    CPC classification number: G02B26/0875 ,  G02B26/0816

    Abstract: A scanned light display system includes a light emitter array having a plurality of light sources operable to emit diverging light and an array of collimating elements positioned so that each of the collimating elements receive at least a portion of the light emitted from a corresponding one of the light sources. Each of collimating elements is configured to substantially collimate the received light from at least one corresponding light source into respective beams. The scanned beam display is operable to scan the respective beams to provide an image to a viewer. The displayed image appears substantially fixed to a viewer as the viewer's eye moves relative to the array of collimating elements. In one embodiment, each of the collimating elements is a curved mirror. In other embodiments, each of the collimating elements includes at least one lens or a curved mirror/lens pair.

    Abstract translation: 扫描光显示系统包括光发射器阵列，其具有可操作以发射发散光的多个光源和准直元件阵列，其被定位成使得每个准直元件接收从相应的一个光源发出的光的至少一部分 光源。 准直元件中的每一个被构造成将从至少一个对应的光源的接收的光基本准直到相应的光束。 扫描的光束显示器可操作以扫描相应的光束以向观看者提供图像。 当观看者的眼睛相对于准直元件阵列移动时，所显示的图像基本上固定在观看者身上。 在一个实施例中，每个准直元件是曲面镜。 在其他实施例中，每个准直元件包括至少一个透镜或曲面镜/透镜对。

    Gas sensor using nanotubes
    8.
    发明授权
    Gas sensor using nanotubes 有权
    使用纳米管的气体传感器

    公开(公告)号：US08567232B2

    公开(公告)日：2013-10-29

    申请号：US12997859

    申请日：2010-07-09

    Applicant: H. Sprague Ackley ,  Christopher A. Wiklof

    Inventor： H. Sprague Ackley ,  Christopher A. Wiklof

    IPC: G01N29/02 ,  G01N33/00

    CPC classification number: G01N33/0055

    Abstract: Techniques are generally described for detecting a concentration level of at least one gas. Some example devices may include a sensor including conductive plate on a surface of dielectric including a nanotube layer formed thereon. The conductive plate and the nanotube layer form a resonator that resonates at a frequency in response to an interrogation signal. The nanotube layer may be configured to associate with one or more gas molecules. The frequency at which the resonator resonates may shift according to which gas molecules are associated with the nanotube layer to identify a particular gas. An amount of resonance may be exhibited as a resonant response signal. An amplitude of the resonant response signal may be indicative of the concentration level of the detected gas.

    Abstract translation: 通常描述了用于检测至少一种气体的浓度水平的技术。 一些示例性装置可以包括传感器，其包括在包括其上形成的纳米管层的电介质的表面上的导电板。 导电板和纳米管层形成响应于询问信号以频率谐振的谐振器。 纳米管层可以被配置为与一个或多个气体分子缔合。 谐振器谐振的频率可以根据哪个气体分子与纳米管层相关联来识别特定气体。 作为共振响应信号，可以表现出共振量。 谐振响应信号的振幅可以指示检测到的气体的浓度水平。

    ENERGY STORAGE DEVICE
    9.
    发明申请
    ENERGY STORAGE DEVICE 有权
    能源储存装置

    公开(公告)号：US20120060643A1

    公开(公告)日：2012-03-15

    申请号：US12881727

    申请日：2010-09-14

    Applicant: Christopher A. Wiklof

    Inventor： Christopher A. Wiklof

    IPC: H02K7/02 ,  F16C17/00 ,  F16C32/06

    CPC classification number: F16C32/0614 ,  F16C2361/55 ,  Y10T74/2117 ,  Y10T74/2121 ,  Y10T74/2123

    Abstract: Energy storage devices for storing energy are provided. An energy storage device includes a flywheel disposed in a chamber of a journal. A gas bearing is formed between an outer face of the flywheel and an inner face of the journal. The gas bearing exerts a compressive force on the flywheel, which allows for higher rotational velocities and higher energy storage.

    Abstract translation: 提供存储能量的储能装置。 能量存储装置包括设置在轴颈的腔室中的飞轮。 在飞轮的外表面和轴颈的内表面之间形成气体轴承。 气体轴承在飞轮上施加压缩力，这允许更高的旋转速度和更高的能量储存。

    GAS SENSOR USING NANOTUBES
    10.
    发明申请
    GAS SENSOR USING NANOTUBES 有权
    使用NANOTUBES的气体传感器

    公开(公告)号：US20120006096A1

    公开(公告)日：2012-01-12

    申请号：US12997859

    申请日：2010-07-09

    Applicant: H. Sprague Ackley ,  Christopher A. Wiklof

    Inventor： H. Sprague Ackley ,  Christopher A. Wiklof

    IPC: G01N29/02

    CPC classification number: G01N33/0055

    Abstract: Techniques are generally described for detecting a concentration level of at least one gas. Some example devices may include a sensor including conductive plate on a surface of dielectric including a nanotube layer formed thereon. The conductive plate and the nanotube layer form a resonator that resonates at a frequency in response to an interrogation signal. The nanotube layer may be configured to associate with one or more gas molecules. The frequency at which the resonator resonates may shift according to which gas molecules are associated with the nanotube layer to identify a particular gas. An amount of resonance may be exhibited as a resonant response signal. An amplitude of the resonant response signal may be indicative of the concentration level of the detected gas.

    Abstract translation: 通常描述了用于检测至少一种气体的浓度水平的技术。 一些示例性装置可以包括传感器，其包括在包括其上形成的纳米管层的电介质的表面上的导电板。 导电板和纳米管层形成响应于询问信号以频率谐振的谐振器。 纳米管层可以被配置为与一个或多个气体分子缔合。 谐振器谐振的频率可以根据哪个气体分子与纳米管层相关联来识别特定气体。 作为共振响应信号，可以表现出共振量。 谐振响应信号的振幅可以指示检测到的气体的浓度水平。

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