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    • 3. 发明授权
    • Planar microlens array and method of manufacturing same
    • 平面微透镜阵列及其制造方法
    • US06366406B1
    • 2002-04-02
    • US09233319
    • 1999-01-20
    • Kenjiro HamanakaKenji Morio
    • Kenjiro HamanakaKenji Morio
    • G02B2710
    • G02B3/0037B29D11/00278C03C17/32G02B3/0012
    • A planar microlens array includes an array of convex microlenses made of an ultraviolet-curable synthetic resin having a high refractive index and disposed on a surface of a base glass plate. A cover glass plate is bonded to the array of convex microlenses by an adhesive layer made of an ultraviolet-curable synthetic resin having a low refractive index. A film made of an ultraviolet-curable synthetic resin is applied to a surface of the base glass plate remote from the array of convex microlenses. The film serves to prevent the planar microlens array from being warped when the ultraviolet-curable synthetic resin of the array of convex microlenses and the adhesive layer are cured.
    • 平面微透镜阵列包括由具有高折射率的紫外线固化性合成树脂制成的凸状微透镜阵列,并且设置在基底玻璃板的表面上。 通过由具有低折射率的紫外线固化性合成树脂制成的粘合层将盖玻璃板结合到凸状微透镜阵列上。 将由紫外线固化性合成树脂制成的膜施加到远离凸出的微透镜阵列的基底玻璃板的表面上。 当凸状微透镜阵列的可紫外线固化的合成树脂和粘合剂层固化时,该膜用于防止平面微透镜阵列翘曲。
    • 4. 发明授权
    • Method of manufacturing flat plate microlens and flat plate microlens
    • 制造平板微透镜和平板微透镜的方法
    • US06437918B1
    • 2002-08-20
    • US09600525
    • 2000-10-17
    • Kenjiro HamanakaAtsunori MatsudaSatoshi TaniguchiDaisuke AraiTakashi KishimotoNaoto Hirayama
    • Kenjiro HamanakaAtsunori MatsudaSatoshi TaniguchiDaisuke AraiTakashi KishimotoNaoto Hirayama
    • G02B2710
    • C08F20/38B29D11/00278B29D11/00365B29D11/0073C08F28/02G02B1/041G02B3/0012G02B3/0025G02B3/0031G02B3/0056G02B3/0068
    • A large number of microscopic recess portions are formed on a surface of a glass substrate in a single dimension or two dimensions by conducting a wet etching through a mask. The large number of microscopic recess portions are aligned densely by again conducting the wet etching but not through the mask. A separating agent is applied upon the surface of the glass substrate and a light-curable or heat-curable resin material of high refractive index is applied thereon. The high refractive index resin material is cured, after piling a first glass substrate upon the high refractive index resin material so as to extend the high refractive index resin material thereon. The high refractive index resin material which is cured and the first glass substrate are separated from the glass substrate, and a low refractive index resin material is applied on the high refractive index resin material which is cured on the first glass substrate. The low refractive index resin material is cured, after piling a second glass substrate on the low refractive index resin material so as to extend the low refractive index resin material thereon.
    • 通过通过掩模进行湿式蚀刻,在一维或二维的玻璃基板的表面上形成大量微观凹部。 通过再次进行湿蚀刻而不是通过掩模,大量微观凹陷部分密集地对准。 在玻璃基板的表面上涂布分离剂,在其上涂布高折射率的光固化型或热固化性树脂材料。 高折射率树脂材料在将第一玻璃基板堆叠在高折射率树脂材料上之后固化,以便在其上延伸高折射率树脂材料。 将固化的高折射率树脂材料和第一玻璃基板与玻璃基板分离,并将低折射率树脂材料施加到在第一玻璃基板上固化的高折射率树脂材料上。 在低折射率树脂材料上堆叠第二玻璃基板以便在其上延伸低折射率树脂材料之后,使低折射率树脂材料固化。
    • 5. 发明授权
    • Method of designing collimator array device and collimator array device manufactured thereby
    • 设计准直仪阵列器件和准直器阵列器件的方法
    • US06912091B2
    • 2005-06-28
    • US09784483
    • 2001-02-15
    • Kenjiro HamanakaSatoshi Taniguchi
    • Kenjiro HamanakaSatoshi Taniguchi
    • G02B6/26G02B6/35G02B26/08G02B27/30G02B6/32G02B6/42G02B7/02
    • G02B6/3582G02B6/3512G02B6/3546
    • According to the present invention, there is provided a method of designing a collimator array device which enables reduction of the insertion loss because of the variation of the optical length. When the beam waist is positioned at the intermediate position between the emitting side planar microlens and the receiving side planar microlens (d1=L/2), the distance d0 between the emitting side fiber array and the emitting side planar microlens can be used as the distance between the receiving side fiber array and the receiving side planar microlens, and thereby the design of the collimator array device can be simplified. The distance d0 for satisfying d1=L/2 is calculated and two values d0-2 and d0-4 are obtained. By selecting the smaller value d0-2, it is possible to reduce the insertion loss because of the shift at the time of coupling.
    • 根据本发明,提供了一种设计准直仪阵列器件的方法,该器件能够由于光学长度的变化而降低插入损耗。 当束腰位于发射侧平面微透镜和接收侧平面微透镜之间的中间位置(d 1 = L / 2)时,发射侧光纤阵列和发射侧平面微透镜之间的距离d0可以用作 可以简化接收侧光纤阵列与接收侧平面微透镜之间的距离,从而简化准直器阵列器件的设计。 计算满足d 1 = L / 2的距离d0,并获得两个值d0-2和d0-4。 通过选择较小的值d0-2,由于耦合时的偏移,可以减小插入损耗。
    • 6. 发明授权
    • Planar microlens array having high converging efficiency
    • 具有高收敛效率的平面微透镜阵列
    • US5982552A
    • 1999-11-09
    • US141473
    • 1998-08-28
    • Kenichi NakamaSatoshi TaniguchiKenjiro HamanakaHiroshi Hamada
    • Kenichi NakamaSatoshi TaniguchiKenjiro HamanakaHiroshi Hamada
    • G02B3/00G02B27/10G09F9/00
    • G02B3/0087G02B3/0012G02B3/0056Y10S359/90
    • A microlens array of high converging efficiency is provided, independently of the array and lens filling rate of microlens arrays, with a method of manufacturing microlens arrays using the diffusion process. A multitude of refractive-index distribution type microlenses formed by diffusing in a planar transparent substrate a substance contributing to increasing the refractive index of the substrate are two-dimensionally and regularly arranged on the surface of the substrate. The microlenses are densely arranged on the surface of the substrate, and diffusion fronts of the microlenses form regions where the diffusion fronts are fused with those of the adjoining microlenses. The length of a region where certain two adjoining microlenses are fused together, in the direction of a straight line connecting the centers of the two microlenses is less than 20% of the array pitch of the microlenses in the above-mentioned direction.
    • 提供了与微透镜阵列的阵列和透镜填充速率无关的高收敛效率的微透镜阵列,其具有使用扩散过程制造微透镜阵列的方法。 通过在平面透明基板中漫射形成的多个折射率分布型微透镜,有助于提高基板的折射率的物质被二维规则地布置在基板的表面上。 微透镜密集地布置在衬底的表面上,并且微透镜的扩散前沿形成区域,其中扩散前沿与邻接的微透镜的那些熔融。 在连接两个微透镜的中心的直线的方向上将某些两个相邻的微透镜熔合在一起的区域的长度小于上述方向上的微透镜的阵列间距的20%。
    • 7. 发明授权
    • Planar microlens array and method of making same
    • 平面微透镜阵列及其制作方法
    • US5867321A
    • 1999-02-02
    • US700397
    • 1996-12-13
    • Kenichi NakamaSatoshi TaniguchiKenjiro HamanakaHiroshi Hamada
    • Kenichi NakamaSatoshi TaniguchiKenjiro HamanakaHiroshi Hamada
    • G02B3/00G02B27/10G09F9/00
    • G02B3/0087G02B3/0012G02B3/0056Y10S359/90
    • A microlens array of high converging efficiency is provided, independently of the array and lens filling rate of microlens arrays, with a method of manufacturing microlens arrays using the diffusion process. A multitude of refractive-index distribution type microlenses formed by diffusing in a planar transparent substrate a substance contributing to increasing the refractive index of the substrate are two-dimensionally and regularly arranged on the surface of the substrate. The microlenses are densely arranged on the surface of the substrate, and diffusion fronts of the microlenses form regions where the diffusion fronts are fused with those of the adjoining microlenses. The length of a region where certain two adjoining microlenses are fused together, in the direction of a straight line connecting the centers of the two microlenses is less than 20% of the array pitch of the microlenses in the above-mentioned direction.
    • PCT No.PCT / JP95 / 02681 Sec。 371日期1996年12月13日第 102(e)日期1996年12月13日PCT 1995年12月26日PCT PCT。 公开号WO96 / 21169 日期1996年7月11日提供了一种高收敛效率的微透镜阵列,与微透镜阵列的阵列和透镜填充率无关,具有使用扩散过程制造微透镜阵列的方法。 通过在平面透明基板中漫射形成的多个折射率分布型微透镜,有助于提高基板的折射率的物质被二维规则地布置在基板的表面上。 微透镜密集地布置在衬底的表面上,并且微透镜的扩散前沿形成区域,其中扩散前沿与邻接的微透镜的那些熔融。 在连接两个微透镜的中心的直线的方向上将某些两个相邻的微透镜熔合在一起的区域的长度小于上述方向上的微透镜的阵列间距的20%。
    • 9. 发明申请
    • Light detection device
    • 光检测装置
    • US20060065817A1
    • 2006-03-30
    • US11234748
    • 2005-09-23
    • Kenichi AsadaKenjiro HamanakaMasahiro OikawaKenichi Nakama
    • Kenichi AsadaKenjiro HamanakaMasahiro OikawaKenichi Nakama
    • G06M7/00G01J1/04
    • G01J1/58G01J1/0271G01J1/0403G01J1/0407G01J1/0425
    • A light detection device for detecting an optical path position of invisible light. The detection device includes a main body and a light guide. The light guide includes a distal end functioning as a light incident portion through which the detected light enters and a light radiation portion from which visible light is emitted. A drive mechanism reciprocates the light guide in an X-direction while vibrating the light guide in a perpendicular Y-direction. The distal end of the light guide rod moves within a light detection area in an XY plane. A visible light-emitting unit radiates visible light from the distal end when the detected light enters the distal end. The visible light-emitting unit includes a photo-detector for detecting the detected light and a light-emitting element for generating the visible light when the photo-detector detects the detected light.
    • 一种用于检测不可见光的光路位置的光检测装置。 检测装置包括主体和光导。 光导包括用作被检测光入射的光入射部分的远端和从其发射可见光的光辐射部分。 驱动机构使光导沿X方向往复运动,同时在垂直的Y方向振动导光体。 导光杆的远端在XY平面内的光检测区域内移动。 当检测到的光进入远端时,可见光发射单元从远端辐射可见光。 可见光发射单元包括用于检测检测到的光的光检测器和当光检测器检测到检测到的光时产生可见光的发光元件。