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    • 12. 发明申请
    • MISSILE WARNING AND PROTECTION SYSTEM FOR AIRCRAFT PLATFORMS
    • 飞机平台的故障警告和保护系统
    • US20050065668A1
    • 2005-03-24
    • US10632211
    • 2003-08-01
    • Jasbinder SangheraLynda BusseIshwar Aggarwal
    • Jasbinder SangheraLynda BusseIshwar Aggarwal
    • F41H11/02F41H13/00G05D3/00G06F7/00
    • F41H13/00F41G7/224F41H11/02G01S7/495
    • This invention pertains to the incorporation of a unitary infrared transmitting glass optical fiber within a jam head as part of an infrared missile seeking protection system for a movable platform. The jam head includes a first part rotatable around a first axis and a second part rotatably connected to said first part and rotatable around a second axis, a viewing port in said first part for viewing an object, at least one reflecting surface for conveying an image through said port, a camera optically connected via said at least one reflecting surface to said camera and a unitary glass fiber of constant core diameter passing through said first and said second parts for conveying an energetic optical signal therethrough and through an exit port through which the optical signal passes. The protection system includes a detector for locating a threat; an electronic and control system connected to said detector for receiving a signal from said detector; a laser connected to said electronic and control system; and a jam head including at least two independently rotatable parts and a tracking scanner connected to said laser and to said electronic and control system for sending a laser burst at the threat in order to disable/disorient same, said jam head comprising a unitary glass fiber of constant core diameter passing from the laser to and through said first and said second parts for conveying an energetic optical signal.
    • 本发明涉及将一体红外透射玻璃光纤结合在卡头内,作为用于可移动平台的红外导弹寻求保护系统的一部分。 卡纸头包括可围绕第一轴线旋转的第一部分和可旋转地连接到所述第一部分并可围绕第二轴线旋转的第二部分,在所述第一部分中用于观察物体的观察口,用于传送图像的至少一个反射表面 通过所述端口,通过所述至少一个反射表面与所述照相机光学连接的照相机和通过所述第一和所述第二部分的恒定纤芯直径的整体玻璃纤维,用于传送能量光学信号并通过出口, 光信号通过。 保护系统包括用于定位威胁的检测器; 连接到所述检测器的电子和控制系统,用于从所述检测器接收信号; 连接到所述电子和控制系统的激光; 以及包括至少两个可独立旋转的部件的卡纸头和连接到所述激光器的跟踪扫描器以及所述电子和控制系统,用于在威胁下发送激光脉冲串以便禁用/迷失方向,所述卡纸头包括单一玻璃纤维 恒定芯径从激光器通过并通过所述第一和第二部分,用于传送高能光信号。
    • 15. 发明申请
    • Method for coating small particles
    • 涂布小颗粒的方法
    • US20060024436A1
    • 2006-02-02
    • US11239433
    • 2005-09-20
    • Shyam BayyaGuillermo VillalobosJasbinder SangheraIshwar Aggarwal
    • Shyam BayyaGuillermo VillalobosJasbinder SangheraIshwar Aggarwal
    • B05D7/00
    • C09K11/02B01J2/006B01J2/04C09K11/584
    • The coating method includes the steps of dissolving coating precursor(s) in a solvent to form a precursor solution: adding with mixing a miscible diluent to the precursor solution to form a coating solution; admixing solid particles to the coating solution to form a coating slurry, with the particles surrounded with the coating solution; spraying the coating slurry to form droplets containing at least one particle; passing the droplets through a drying zone where the droplets are dried and form dry particles coated with a coating material formed from the coating precursor(s); heat-treating the coating material on the particles emanating from the drying zone to remove volatile matter on the coating material, to improve integrity of the coating material and/or to effect another objective; and collecting dry coated particles.
    • 涂布方法包括以下步骤:将涂覆前体溶解在溶剂中以形成前体溶液:将可混溶的稀释剂与前体溶液混合形成涂布溶液; 将固体颗粒混合到涂布溶液中以形成涂覆浆料,其中颗粒被涂布溶液包围; 喷涂涂料浆料以形成含有至少一个颗粒的液滴; 使液滴通过干燥区域,其中液滴被干燥并形成涂覆有由涂层前体形成的涂层材料的干燥颗粒; 对从干燥区发出的颗粒上的涂层材料进行热处理以除去涂层材料上的挥发物质,以改善涂层材料的完整性和/或实现另一目的; 并收集干涂层颗粒。
    • 16. 发明申请
    • Low loss chalcogenide glass and process for making same using arsenic monochalcogenide
    • 低损耗硫族化物玻璃及其制备方法
    • US20050229636A1
    • 2005-10-20
    • US10824836
    • 2004-04-15
    • Vinh NguyenJasbinder SangheraIshwar Aggarwal
    • Vinh NguyenJasbinder SangheraIshwar Aggarwal
    • C03C3/32C03C13/04G02B6/10
    • C03C13/043C03C3/321G02B6/102Y10S65/15
    • This invention pertains to a chalcogenide glass of low optical loss that can be on the order of 30 dB/km or lower, and to a process for preparing the chalcogenide glass. The process includes the steps of optionally preparing arsenic monochalcogenide precursor or the precursor can be provided beforehand; dynamically distilling the precursor in an open system under vacuum from a hot section to a cold section to purify same; homogenizing the precursor in a closed system so that it is of a uniform color; disposing the distilled or purified precursor and at least one chalcogenide element at a hot section of an open distillation system; dynamically distilling under vacuum in an open system so that the precursor and the at least one chalcogenide element are deposited at a cold section of the open system in a more purified state; homogenizing the precursor and the at least chalcogenide element in a closed system while converting the precursor and the at least one chalcogenide element from crystalline phase to glassy phase.
    • 本发明涉及低光损耗的硫属化物玻璃,其数量级可以在30dB / km以下,以及制备硫族化物玻璃的方法。 该方法包括任选地制备砷单体前体的步骤,或者可以预先提供前体; 在开放系统中在真空下从热部分到冷部分动态蒸馏前体以净化其; 在封闭系统中使前体均匀化,使其具有均匀的颜色; 将蒸馏或纯化的前体和至少一种硫族化物元素置于开放蒸馏系统的热段; 在开放系统中在真空下动态蒸馏,使得前体和至少一种硫族化物元素以更纯化的状态沉积在开放系统的冷部分; 在将前体和至少一种硫属元素元素从结晶相转化为玻璃相的同时使封闭体系中的前体和至少硫属元素元素均化。
    • 18. 发明授权
    • Method for producing core/clad glass optical fiber preforms using hot
isostatic pressing
    • 使用热等静压法生产芯/包层玻璃光纤预制棒的方法
    • US5735927A
    • 1998-04-07
    • US672771
    • 1996-06-28
    • Jasbinder SangheraPablo PurezaIshwar AggarwalRobert Miklos
    • Jasbinder SangheraPablo PurezaIshwar AggarwalRobert Miklos
    • C03B37/012
    • C03B37/01248C03B37/01211C03B2201/86
    • Core/clad glass optical fiber preforms free of bubbles and soot at the coclad interface are fabricated by inserting a glass core rod into a cladding glass tube sized so that space remains between them, sealing the top and bottom of the tube onto the core rod to form a sealed space between them which is relatively soot free and under a vacuum and then hot isostatically pressing the sealed composite to collapse the tube onto the rod and also collapse bubbles in the glass. Soot formation is avoided or minimized by purging the space with inert gas while the bottom of the tube is collapsed onto the rod and by sealing the top under a dynamic vacuum and at the lowest possible temperature to avoid soot formation without cracking the glass. The space is vacuum outgassed before the second seal is made. Chalcogenide fiber drawn from a preform made in this fashion exhibits very low transmission losses.
    • 通过将玻璃芯棒插入包层玻璃管中,使其间留有空间,将管的顶部和底部密封在芯上,制成芯/包层界面处的无气泡和烟灰的芯/包层玻璃光纤预制件 杆,以在它们之间形成密封空间,其相对不含烟灰并在真空下,然后热等静压所述密封复合材料以将管塌陷到所述杆上并且还使所述玻璃中的气泡折叠。 通过用惰性气体吹扫空间来避免或最小化烟灰,同时管的底部塌陷到杆上,并且通过在动态真空和最低可能温度下密封顶部以避免烟灰形成而不破裂玻璃。 在制造第二次密封之前,空间被真空排气。 以这种方式制造的预成型体制成的硫族化物纤维表现出非常低的传输损耗。
    • 20. 发明申请
    • Gas filled hollow core chalcogenide photonic bandgap fiber raman device and method
    • 充气中空核素硫族化物光子带隙光纤拉曼装置及方法
    • US20060251369A1
    • 2006-11-09
    • US11122203
    • 2005-05-03
    • L. ShawJasbinder SangheraIshwar AggarwalPeter Thielen
    • L. ShawJasbinder SangheraIshwar AggarwalPeter Thielen
    • G02B6/032
    • G02B6/02328C03B2201/86C03B2203/16C03B2203/42G02B6/02347G02B6/032H01S3/06741H01S3/302
    • This invention pertains to a glass fiber, a Raman device and a method. The fiber is a hollow core photonic bandgap chalcogenide glass fiber that includes a hollow core for passing light therethrough, a Raman active gas disposed in said core, a microstructured region disposed around said core, and a solid region disposed around said microstructured region for providing structural integrity to said microstructured region. The device includes a coupler for introducing at least one light signal into a hollow core of a chalcogenide photonic bandgap fiber; a hollow core chalcogenide photonic bandgap glass fiber; a microstructured fiber region disposed around said core; a solid fiber region disposed around said microstructured region for providing structural integrity to said microstructured region; and a Raman active gas disposed in the hollow core. The method includes the steps of introducing a light beam into a hollow core chalcogenide photonic bandgap glass fiber filled with a Raman active gas disposed in the core, conveying the beam through the core while it interacts with the gas to form a Stokes beam of a typically higher wavelength, and removing the Stokes beam from the core of the fiber.
    • 本发明涉及玻璃纤维,拉曼装置和方法。 纤维是中空核光子带隙硫族化物玻璃纤维,其包括用于使光通过的中空芯,布置在所述芯中的拉曼活性气体,围绕所述芯设置的微结构化区域,以及设置在所述微结构区域周围的固体区域,用于提供结构 对所述微结构区域的完整性。 该装置包括耦合器,用于将至少一个光信号引入到硫族化物光子带隙光纤的中空芯中; 空心核硫属元素光子带隙玻璃纤维; 设置在所述芯周围的微结构化纤维区域; 设置在所述微结构区域周围的固体纤维区域,用于向所述微结构化区域提供结构完整性; 和设置在中空芯中的拉曼活性气体。 该方法包括以下步骤:将光束引入填充有设置在芯中的拉曼活性气体的中空核心硫族化物光子带隙玻璃纤维中,在与气体相互作用的同时将光束输送通过芯体,以形成典型的斯托克斯光束 更高的波长,并从纤芯的核心去除斯托克斯光束。