LIGHTING DEVICE FOR ADJUSTING A LIGHT COLOUR SEPARATELY WITHIN SEVERLA ZONES
    111.
    发明申请
    LIGHTING DEVICE FOR ADJUSTING A LIGHT COLOUR SEPARATELY WITHIN SEVERLA ZONES 审中-公开
    在SEVERLA区分别调节光色的照明装置

    公开(公告)号:US20160150617A1

    公开(公告)日:2016-05-26

    申请号:US14905191

    申请日:2014-07-16

    Abstract: A lighting device (100) is suitable for adjusting a light colour with respect to elements contained within an output field, separately for each element. The lighting device comprises at least two light systems (1a-1d) each adapted for operating as a light detector and also as a light source, a scanning system (2) suitable for scanning the output field, and a processing unit (3). Such lighting device is especially adapted for exhibiting articles with producing enhanced appeal to an observer. To this purpose, light which is directed towards each element may be enhanced in saturation and brightness as compared to initial light reflected by the element, while hue may be substantially maintained.

    Abstract translation: 照明装置(100)适于相对于包含在输出场内的元件分别调整针对每个元件的光色。 照明装置包括至少两个适于作为光检测器操作的光系统(1a-1d),并且还可以作为光源,适于扫描输出场的扫描系统(2)和处理单元(3)。 这种照明装置特别适于展示对观察者产生增强吸引力的物品。 为此,与元件反射的初始光相比,指向每个元件的光可以在饱和度和亮度方面增强,而色调可以被基本保持。

    Multiplexed spectroscopic absorbance from CRDS wave forms
    113.
    发明授权
    Multiplexed spectroscopic absorbance from CRDS wave forms 有权
    来自CRDS波形的多重光谱吸光度

    公开(公告)号:US09329123B2

    公开(公告)日:2016-05-03

    申请号:US14424850

    申请日:2013-08-06

    Abstract: Methods and optical detection systems (200, 300, 800, 900) for generating and processing a real-time time-domain cavity ringdown spectroscopy (CRDS) signal (831, 931) from an absorbing species in an optical detection system (200, 300, 800, 900) having an optical ringdown cavity (200, 300) are disclosed. The optical ringdown cavity (200, 300) is adapted for accepting a sample of an absorbing species. One or more modulated light signals (241,243,245,341) are generated using one or more light sources (240, 242, 244, 340). The light source(s) (240, 242, 244, 340) is pulsed at a specified pulse rate(s). The modulated light signal(s) (241,243,245, 341) is resonated using the optical ringdown cavity (200, 300) comprising a plurality of mirrors (220, 230), or sets of mirrors (320, 330), to produce the CRDS signal (831, 931). The reflectivity of the mirrors (220, 230), or sets of mirrors (320, 330), is dependent upon the pulse rate of the modulated light signals (241,243,245,341). Different beamlines (212, 214, 216, 312, 314, 316) are established by the modulated light signal(s) (241,243,245, 341) and the mirrors (220, 230, 320, 330) interacting with the absorbing species sample.

    Abstract translation: 用于从光学检测系统(200,300)中的吸收物质生成和处理实时时域衰减光谱(CRDS)信号(831,931)的方法和光学检测系统(200,300,800,900) ,800,900),其具有光学衰减腔(200,300)。 光学衰减腔(200,300)适于接收吸收物质的样品。 使用一个或多个光源(240,242,244,340)产生一个或多个调制光信号(241,243,245,341)。 光源(240,242,244,340)以指定的脉冲速率脉冲。 调制光信号(241,243,245,341)使用包括多个反射镜(220,230)或一组反射镜(320,330)的光学环形空腔(200,300)进行谐振,以产生CRDS信号 (831,931)。 反射镜(220,230)或反射镜组(320,330)的反射率取决于调制光信号的脉冲速率(241,243,245,341)。 通过调制光信号(241,243,245,341)和与吸收物质样品相互作用的反射镜(220,230,320,330)建立不同的光束线(212,214,216,312,314,316)。

    SPECTROSCOPY SYSTEMS AND METHODS USING QUANTUM CASCADE LASER ARRAYS WITH LENSES

    公开(公告)号:US20160116337A1

    公开(公告)日:2016-04-28

    申请号:US14985722

    申请日:2015-12-31

    Abstract: A spectroscopy system includes an array of quantum cascade lasers (QCLs) that emits an array of non-coincident laser beams. A lens array coupled to the QCL array substantially collimates the laser beams, which propagate along parallel optical axes towards a sample. The beams remain substantially collimated over the lens array's working distance, but may diverge when propagating over longer distances. The collimated, parallel beams may be directed to/through the sample, which may be within a sample cell, flow cell, multipass spectroscopic absorption cell, or other suitable holder. Alternatively, the beams may be focused to a point on, near, or within the target using a telescope or other suitable optical element(s). When focused, however, the beams remain non-coincident; they simply intersect at the focal point. The target transmits, reflects, and/or scatters this incident light to a detector, which transduces the detected radiation into an electrical signal representative of the target's absorption or emission spectrum.

    Light source lifetime extension in an optical system
    115.
    发明授权
    Light source lifetime extension in an optical system 有权
    光学系统中的光源寿命延长

    公开(公告)号:US09322765B2

    公开(公告)日:2016-04-26

    申请号:US14303644

    申请日:2014-06-13

    Abstract: An optical system comprising a light source comprising a plurality of light emitting elements (LEEs) is presented. The light source is mounted on the same substrate or chip board so that the LEEs are in thermal contact with each other such as to enable thermic conduction and heat transfer between the LEEs. The system is switchable between light source modes in which different light emitting elements or a different number of light emitting elements is switched in an on mode and in a down mode respectively. In all light source modes, one or more light emitting elements, such as those with longer expected lifetime, remain in the on mode, while one or more light emitting elements, such as those with shorter expected lifetime, may be switched in the down mode.

    Abstract translation: 提出了一种包括包括多个发光元件(LEE)的光源的光学系统。 光源安装在相同的基板或芯片板上,使得LEE彼此热接触,以便能够在LEE之间进行热传导和热传递。 该系统可以在其中不同的发光元件或不同数量的发光元件分别在接通模式和下降模式下切换的光源模式之间切换。 在所有光源模式中,一个或多个发光元件,例如具有较长预期寿命的发光元件保持在导通模式,而一个或多个发光元件,例如具有较短预期寿命的发光元件可以在下模式 。

    Illumination Device and Reflection Characteristic Measuring Device
    116.
    发明申请
    Illumination Device and Reflection Characteristic Measuring Device 有权
    照明装置和反射特性测量装置

    公开(公告)号:US20160109293A1

    公开(公告)日:2016-04-21

    申请号:US14894821

    申请日:2014-05-15

    Abstract: An illumination device is provided with a light source, a photodetector, and a support structure. The light source, which emits light, has light distribution in which a reference axis serves as an axis of symmetry or light distribution in which a plane including the reference axis serves as a plane of symmetry. A first light beam in the light is guided to the object to be illuminated. A second light beam in the light is guided to the photodetector. The photodetector detects intensity of the second light beam. The light source and the photodetector are supported by the support structure in positions and postures that allow the first light beam and the second light beam to be guided in an aforementioned manner. A traveling direction of the first light beam and a traveling direction of the second light beam make the same angle with the reference axis.

    Abstract translation: 照明装置设置有光源,光电检测器和支撑结构。 发光的光源具有光分布,其中参考轴用作对称轴或光分布,其中包括基准轴的平面用作对称平面。 光中的第一光束被引导到被照明的物体。 光中的第二光束被引导到光电检测器。 光检测器检测第二光束的强度。 光源和光电检测器由支撑结构支撑在允许以上述方式引导第一光束和第二光束的位置和姿势。 第一光束的行进方向和第二光束的行进方向与参考轴线成相同的角度。

    Light measuring device, printing apparatus, and image display apparatus
    117.
    发明授权
    Light measuring device, printing apparatus, and image display apparatus 有权
    光测量装置,打印装置和图像显示装置

    公开(公告)号:US09316538B2

    公开(公告)日:2016-04-19

    申请号:US14215723

    申请日:2014-03-17

    Inventor: Masashi Kanai

    Abstract: A light measuring device can measure, in one place, a plurality of lights guided from different places. The light measuring device includes a spectroscope configured to selectively transmit light having a desired wavelength, a plurality of light guiding units configured to guide measurement target light to the spectroscope, and a light receiving unit configured to receive the light emitted from the spectroscope. The light guiding units are provided in positions where different lights are respectively made incident on incident ends of the light guiding units as the measurement target light and positions where emission ends of the light guiding units respectively emit lights to different positions of the spectroscope. The spectroscope emits the lights, which are made incident from the light guiding units, respectively from different positions. The light receiving unit separately receives the lights emitted from the different positions of the spectroscope.

    Abstract translation: 光测量装置可以在一个地方测量从不同地方引导的多个光。 光测量装置包括配置为选择性地透射具有期望波长的光的分光镜,被配置为将测量目标光引导到分光器的多个导光单元,以及被配置为接收从分光器发射的光的光接收单元。 导光单元设置在不同的光入射到导光单元的入射端作为测量对象光的位置,以及导光单元的发射端分别发光到分光器的不同位置的位置。 分光器分别从光导单元发出从不同位置入射的光。 光接收单元分别接收从分光器的不同位置发射的光。

    FREQUENCY COMB SOURCE WITH LARGE COMB SPACING
    119.
    发明申请
    FREQUENCY COMB SOURCE WITH LARGE COMB SPACING 审中-公开
    频率合成源与大型COMB间距

    公开(公告)号:US20160097963A1

    公开(公告)日:2016-04-07

    申请号:US14967709

    申请日:2015-12-14

    Abstract: A frequency comb laser providing large comb spacing is disclosed. At least one embodiment includes a mode locked waveguide laser system. The mode locked waveguide laser includes a laser cavity having a waveguide, and a dispersion control unit (DCU) in the cavity. The DCU imparts an angular dispersion, group-velocity dispersion (GVD) and a spatial chirp to a beam propagating in the cavity. The DCU is capable of producing net GVD in a range from a positive value to a negative value. In some embodiments a tunable fiber frequency comb system configured as an optical frequency synthesizer is provided. In at least one embodiment a low phase noise micro-wave source may be implemented with a fiber comb laser having a comb spacing greater than about 1 GHz. The laser system is suitable for mass-producible fiber comb sources with large comb spacing and low noise. Applications include high-resolution spectroscopy.

    Abstract translation: 公开了一种提供较大梳形间距的频率梳状激光器。 至少一个实施例包括模式锁定波导激光系统。 模式锁定波导激光器包括具有波导的激光腔和空腔中的色散控制单元(DCU)。 DCU向在腔中传播的光束赋予角度色散,群速度色散(GVD)和空间啁啾声。 DCU能够在从正值到负值的范围内产生净GVD。 在一些实施例中,提供了被配置为光频合成器的可调光纤频率梳状系统。 在至少一个实施例中,低相位噪声微波源可以用具有大于约1GHz的梳齿间隔的光纤梳状激光器来实现。 激光系统适用于具有大梳齿间隔和低噪音的大规模生产的光纤梳状光源。 应用包括高分辨率光谱。

    Raman spectroscopic apparatus, raman spectroscopic method, and electronic apparatus

    公开(公告)号:US09304087B2

    公开(公告)日:2016-04-05

    申请号:US14477063

    申请日:2014-09-04

    Inventor: Kohei Yamada

    CPC classification number: G01J3/44 G01J3/02 G01J3/10 G01N21/658 G01N33/0047

    Abstract: A Raman spectroscopic apparatus analyzes a substance under analysis and includes a light source that emits light of a first wavelength, an optical device that adsorbs the substance under analysis and is irradiated with the light of the first wavelength, and an optical detector that receives light radiated from the optical device. The optical device includes a first structural member that generates charge transfer resonance in response to the light of the first wavelength and a second structural member that is less than or equal to 5 nm from the first structural member and generates surface plasmon resonance in response to the light of the first wavelength. The first structural member is made of a metal or a semiconductor, and the second structural member is made of a metal different from the material of the first structural member.

Patent Agency Ranking