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    • 1. 发明申请
    • INFRARED GAS DETECTOR AND INFRARED GAS MEASURING DEVICE
    • 红外气体探测器和红外测量气体测量装置
    • US20120235038A1
    • 2012-09-20
    • US13380810
    • 2010-06-22
    • Takayuki NishikawaYoshifumi WatabeYuichi InabaTakahiko HiraiHiroaki Kitamura
    • Takayuki NishikawaYoshifumi WatabeYuichi InabaTakahiko HiraiHiroaki Kitamura
    • G01N21/59G01J5/00
    • G01N21/359G01J5/0014G01J5/02G01J5/024G01J5/04G01J5/045G01J5/08G01J5/0803G01J5/0862G01J5/12G01J5/20G01N21/3504
    • An infrared gas detector includes an infrared reception member, a package configured to accommodate the infrared reception member, and an optical filter. The infrared reception member includes a plurality of thermal infrared detection elements each configured to detect infrared based on heat caused by received infrared. The thermal infrared detection elements are placed side by side. The package is provided with a window opening configured to allow the infrared reception member to receive infrared. The optical filter is attached to the package so as to cover the window opening, and includes a plurality of filter elements respectively corresponding to the plurality of the thermal infrared detection elements. Each of the filter elements includes a filter substrate made of an infrared transparent material, a transmission filter configured to transmit infrared of a selected wavelength, and a cut-off filter configured to absorb infrared of a wavelength longer than the selected wavelength. The transmission filter and the cut-off filter are formed over the filter substrate. The filter substrate is thermally coupled to the package. The transmission filters of the respective filter elements are configured to transmit infrared of the different selected wavelengths.
    • 红外线气体检测器包括红外线接收部件,被构造成容纳红外线接收部件的封装体和滤光器。 红外线接收构件包括多个热红外线检测元件,每个热红外线检测元件被配置为基于由接收到的红外线引起的热量来检测红外线。 热红外线检测元件并排放置。 该包装件设置有一个窗口,该开口被配置为允许红外线接收件接收红外线。 滤光器附接到封装以覆盖窗口,并且包括分别对应于多个热红外线检测元件的多个滤光元件。 每个滤光元件包括由红外线透明材料制成的滤光片基板,被配置为透射所选择的波长的红外线的透射滤光器和被配置为吸收长于所选波长的波长的红外线的截止滤光器。 透过滤波器和截止滤波器形成在滤波器基板上。 过滤器基板热耦合到封装。 各个滤波器元件的透射滤波器被配置成透射不同选择波长的红外线。
    • 2. 发明申请
    • INFRARED OPTICAL FILTER AND MANUFACTURING METHOD OF THE INFRARED OPTICAL FILTER
    • 红外光滤波器的红外光滤波器和制造方法
    • US20110310472A1
    • 2011-12-22
    • US13201180
    • 2010-02-04
    • Takahiko HiraiHiroaki KitamuraYuichi InabaYoshifumi WatabeTakayuki NishikawaTakahiro Sono
    • Takahiko HiraiHiroaki KitamuraYuichi InabaYoshifumi WatabeTakayuki NishikawaTakahiro Sono
    • F21V9/04B05D5/06B29D11/00
    • G02B5/281C23C14/081C23C14/083C23C14/10
    • The infrared optical filter of the present invention comprises a substrate formed of an infrared transmitting material and a plurality of filter parts arranged side by side on one surface side of the substrate. Each filter part includes: a first λ/4 multilayer film in which two kinds of thin films having mutually different refractive indices but an identical optical film thickness are alternately stacked; a second λ/4 multilayer film in which the two kinds of thin films are alternately stacked, said second λ/4 multilayer film being formed on the opposite side of the first λ/4 multilayer film from the substrate side, and; and a wavelength selection layer interposed between the first λ/4 multilayer film and the second λ/4 multilayer film, said wavelength selection layer having an optical film thickness different from the optical film thickness of each the thin film according to a desired selection wavelength. A low refractive index material of the first λ/4 multilayer film and the second λ/4 multilayer film is an oxide, and a high refractive index material thereof is a semiconductor material of Ge. A material of the wavelength selection layer is identical to a material of the second thin film from the top of the first λ/4 multilayer film.
    • 本发明的红外光滤波器包括由红外线透射材料形成的基板和在基板的一个表面侧上并排设置的多个滤光器部件。 每个过滤器部分包括:第一λ/ 4多层膜,其中具有相互不同的折射率但相同的光学膜厚度的两种薄膜交替堆叠; 其中两种薄膜交替层叠的第二λ/ 4多层膜,所述第二λ/ 4多层膜从基片侧形成在与第一λ/ 4多层膜相反的一侧上; 以及布置在第一λ/ 4多层膜和第二λ/ 4多层膜之间的波长选择层,所述波长选择层根据期望的选择波长具有与每个薄膜的光学膜厚度不同的光学膜厚度。 第一λ/ 4多层膜和第二λ/ 4多层膜的低折射率材料是氧化物,其高折射率材料是Ge的半导体材料。 波长选择层的材料与第一λ/ 4多层膜的顶部的第二薄膜的材料相同。
    • 3. 发明申请
    • INFRARED FRAME DETECTOR
    • 红外线检测器
    • US20120298867A1
    • 2012-11-29
    • US13514631
    • 2010-12-06
    • Takayuki NishikawaYoshifumi WatabeYuichi InabaTakahiko Hirai
    • Takayuki NishikawaYoshifumi WatabeYuichi InabaTakahiko Hirai
    • G01J5/08G01J5/20
    • G01J5/34G01J1/0488G01J5/0014G01J5/0018G01J5/04G01J5/045G01J5/08G01J5/0862G01J5/0875G01J5/602G08B17/125
    • An infrared flame detector of the present invention has an infrared radiation receiving element accommodated in a package. In the infrared radiation receiving element, a set of two pyroelectric elements are arranged side by side and connected in anti-series on a pyroelectric element forming substrate. An infrared optical filter includes a filter forming substrate made of an infrared radiation transmitting material, a set of two narrowband transmission filter sections formed at positions respectively corresponding to positions of the pyroelectric elements on a first surface of the filter forming substrate and configured to transmit infrared radiation of a first selective wavelength and infrared radiation of a second selective wavelength, and a broadband blocking filter section formed on a second surface of the filter forming substrate and configured to absorb infrared radiation of a wavelength longer than an upper limit of an infrared reflection band.
    • 本发明的红外线火焰探测器具有容纳在封装中的红外辐射接收元件。 在红外线辐射接收元件中,并排设置两组热电元件,并且在热电元件形成基板上以反串联方式连接。 红外光滤波器包括由红外辐射透射材料制成的滤光器形成基板,一组两个窄带透射滤光器部分,形成在分别对应于过滤器形成基板的第一表面上的热电元件的位置的位置处,并且被配置为透射红外线 第二选择波长的第一选择波长和红外辐射的辐射以及形成在过滤器形成基板的第二表面上并被配置为吸收长于红外反射带的上限的波长的红外辐射的宽带阻挡滤波器部分 。
    • 5. 发明申请
    • FIRE ALARM SYSTEM
    • 火警系统
    • US20100259396A1
    • 2010-10-14
    • US12682300
    • 2008-10-21
    • Yoshifumi WatabeYoshiaki HondaMasanori HayashiYuji TakadaTakayuki Nishikawa
    • Yoshifumi WatabeYoshiaki HondaMasanori HayashiYuji TakadaTakayuki Nishikawa
    • G08B17/12
    • G08B17/10G01N29/032G01N29/348G01N29/4427G01N2291/0217G01N2291/045G01N2291/048G08B13/1968G08B17/00G08B17/113G08B29/24
    • A fire alarm system, determining existence or nonexistence of a fire by using an ultrasound wave, comprises a sound wave generator and a sound wave detector to detect sound waves propagated through two propagation paths having different lengths each other. The system comprises a calculation means for calculating a pressure ratio between a first sound pressure, which is a sound pressure of a sound wave propagated through a first propagation path, and a second sound pressure, which is a sound pressure of a sound wave propagated through a second propagation path, and a smoke density estimator. The smoke density estimator calculates a change ratio between the pressure ratio calculated by the calculation means and a predetermined standard pressure ratio, and determines a smoke density from the change ratio based on a predetermined relational expression describing the relation between the change ratio and the smoke density, and determines existence of a fire when the smoke density exceeds a predetermined threshold.
    • 一种通过使用超声波确定存在或不存在火的火灾报警系统包括声波发生器和声波检测器,用于检测通过具有彼此不同长度的两个传播路径传播的声波。 该系统包括计算装置,用于计算作为通过第一传播路径传播的声波的声压的第一声压与作为通过传播的声波的声压的第二声压之间的压力比 第二传播路径和烟浓度估计器。 烟密度估计器计算由计算装置计算的压力比与预定标准压力比之间的变化比,并且基于描述变化率和烟密度之间的关系的预定关系式从变化率确定烟浓度 并且当烟浓度超过预定阈值时确定火的存在。
    • 6. 发明授权
    • Fire alarm system
    • 火警系统
    • US08519854B2
    • 2013-08-27
    • US12682300
    • 2008-10-21
    • Yoshifumi WatabeYoshiaki HondaMasanori HayashiYuji TakadaTakayuki Nishikawa
    • Yoshifumi WatabeYoshiaki HondaMasanori HayashiYuji TakadaTakayuki Nishikawa
    • G08B17/12
    • G08B17/10G01N29/032G01N29/348G01N29/4427G01N2291/0217G01N2291/045G01N2291/048G08B13/1968G08B17/00G08B17/113G08B29/24
    • A fire alarm system, determining existence or nonexistence of a fire by using an ultrasound wave, comprises a sound wave generator and a sound wave detector to detect sound waves propagated through two propagation paths having different lengths each other. The system comprises a calculation means for calculating a pressure ratio between a first sound pressure, which is a sound pressure of a sound wave propagated through a first propagation path, and a second sound pressure, which is a sound pressure of a sound wave propagated through a second propagation path, and a smoke density estimator. The smoke density estimator calculates a change ratio between the pressure ratio calculated by the calculation means and a predetermined standard pressure ratio, and determines a smoke density from the change ratio based on a predetermined relational expression describing the relation between the change ratio and the smoke density, and determines existence of a fire when the smoke density exceeds a predetermined threshold.
    • 一种通过使用超声波确定存在或不存在火的火灾报警系统包括声波发生器和声波检测器,用于检测通过具有彼此不同长度的两个传播路径传播的声波。 该系统包括计算装置,用于计算作为通过第一传播路径传播的声波的声压的第一声压与作为通过传播的声波的声压的第二声压之间的压力比 第二传播路径和烟浓度估计器。 烟密度估计器计算由计算装置计算的压力比与预定标准压力比之间的变化比,并且基于描述变化率和烟密度之间的关系的预定关系式从变化率确定烟浓度 并且当烟浓度超过预定阈值时确定火的存在。
    • 10. 发明申请
    • Process Of Making An Optical Lens
    • 制作光学镜片的过程
    • US20090101509A1
    • 2009-04-23
    • US11920545
    • 2006-05-16
    • Yoshiaki HondaTakayuki Nishikawa
    • Yoshiaki HondaTakayuki Nishikawa
    • C25D5/02C25F3/12
    • B29D11/00019B29D11/00298G02B3/0006G02B3/0031G02B3/0056G02B3/02
    • A semiconductor substrate is anodized to be shaped into an optical lens. Prior to being anodized, the substrate is finished with an anode pattern on its bottom surface so as to be consolidated into a unitary structure in which the anode pattern is precisely reproduced on the substrate. The anodization utilizes an electrolytic solution which etches out oxidized portion as soon as it is formed as a result of the anodization, to thereby develop a porous layer in a pattern in match with the anode pattern. The anode pattern brings about an in-plane distribution of varying electric field intensity by which the porous layer develops into a shape complementary to a desired lens profile. Upon completion of the anodization, the semiconductor substrate is shaped into the lens by etching out the porous layer and the anode pattern from the substrate.
    • 阳极氧化半导体衬底以成形为光学透镜。 在阳极氧化之前,在其底表面上用阳极图案完成衬底,以便固结成其中在衬底上精确再现阳极图案的单一结构。 阳极氧化利用电解溶液,其在阳极氧化后形成氧化部分,从而开发与阳极图案相匹配的图案中的多孔层。 阳极图案产生变化的电场强度的面内分布,通过该平面分布,多孔层发展成与期望的透镜轮廓互补的形状。 在阳极氧化完成后,通过从衬底上蚀刻多孔层和阳极图案将半导体衬底成形为透镜。