会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 31. 发明申请
    • LOW ORDER SHAPE CONTROL OF PRIMARY AND SECONDARY MIRROR MODULES
    • 初级和次级镜像模块的低阶形状控制
    • WO2013155629A1
    • 2013-10-24
    • PCT/CA2013/050296
    • 2013-04-17
    • THE HARLINGTEN CENTER FOR INNOVATIVE OPTICS LTD.
    • HARLINGTEN, CaiseyKUHN, Jeff
    • G02B23/02G02B7/185
    • G02B7/185G02B5/09G02B5/10G02B23/06
    • The present invention provides a system and method of optical imaging a nearly filled aperture interferometric imaging system having the following components/steps: receiving optical data from at least one of an at least one primary mirror module and an at least one secondary mirror module, assessing the optical data to generate an assessment; generating adjustment data for at least one the at least one primary mirror module and the at least one secondary mirror module based on the assessment; sending the adjustment data to at least one of the at least one primary mirror module and the at least one secondary mirror module; and manipulating the at least one of the at least one primary mirror module and the at least one secondary mirror module based on the adjustment data.
    • 本发明提供一种用于光学成像近似填充的孔径干涉成像系统的系统和方法,其具有以下组件/步骤:从至少一个主镜模块和至少一个次镜模块中的至少一个接收光学数据,评估 光学数据产生评估; 基于所述评估,生成所述至少一个主镜模块和所述至少一个次镜模块中的至少一个的调整数据; 将所述调整数据发送到所述至少一个主镜模块和所述至少一个次镜模块中的至少一个; 以及基于所述调整数据来操纵所述至少一个主镜模块和所述至少一个次镜模块中的所述至少一个。
    • 34. 发明申请
    • TELESCOPIC CONTACT LENS
    • 电话联系镜头
    • WO2012051223A3
    • 2012-07-12
    • PCT/US2011055850
    • 2011-10-11
    • UNIV CALIFORNIAFORD JOSEPH ETREMBLAY ERIC
    • FORD JOSEPH ETREMBLAY ERIC
    • G02C7/04G02B3/10G02C7/06
    • G02C7/044G02B17/0808G02B23/06G02C7/04G02C7/088G02C7/101
    • Techniques, systems and apparatus are described for implementing a telescopic contact lens. In one aspect, a telescopic contact lens includes an inner lens including optical apertures and aspheric reflectors, an outer lens of a biocompatible material, and a switching device that rapidly switches between normal and telescopic vision. The optical apertures of the inner lens includes a center aperture that allows light to pass through for normal vision and an annular aperture located on the periphery of the inner lens that allows light to enter for telescopic vision, The aspheric reflectors are configured between the annular aperture and the center aperture to reflect the light and magnify a visual image for telescopic vision.
    • 描述了用于实现伸缩式隐形眼镜的技术,系统和装置。 一方面,伸缩式隐形眼镜包括内透镜,其包括光学孔和非球面反射器,生物相容性材料的外透镜以及在正常和望远视觉之间快速切换的开关装置。 内透镜的光学孔径包括允许光通过以用于正常视觉的中心孔,以及位于允许光进入望远镜的内透镜的周边上的环形孔。非球面反射器被配置在环形孔 以及中心孔径以反射光线并放大视觉图像以实现望远镜的视觉。
    • 39. 发明申请
    • WIDE FIELD FOUR MIRROR TELESCOPE USING OFF-AXIS ASPHERICAL MIRRORS
    • 使用离轴平面镜的宽屏四镜直径
    • WO2006063605A1
    • 2006-06-22
    • PCT/EP2004/014255
    • 2004-12-15
    • EUROPEAN SPACE AGENCYWOLFGANG, HolotaBERND, HarnischVOLKER, Kirschner
    • WOLFGANG, HolotaBERND, HarnischVOLKER, Kirschner
    • G02B17/06
    • G02B17/0657G02B23/06
    • A telescope comprising: an entrance pupil region; a first concave mirror (M1) belonging to a first rotationally symmetric aspheric surface (1) and reflecting light passing through the entrance pupil region; a second convey mirror (M2) belonging to a second rotationally symmetric aspheric surface (2) and reflecting light reflected by the first mirror; a third convex mirror (M3) belonging to a third rotationally symmetric aspheric surface (4) and reflecting light reflected by the second mirror to an exit pupil (6); the first, second third and fourth rotationally symmetric aspheric surfaces being centered on the symmetry axis (Oz) of the third mirror, the first second and fourth mirrors being centered along a first direction (x) perpendicular to the optical axis and off-centered in a second direction (y) perpendicular to the symmetry axis and to the first direction.
    • 一种望远镜,包括:入射瞳孔区域; 属于第一旋转对称非球面(1)的第一凹面镜(M1)并且反射通过入射光瞳区域的光; 属于第二旋转对称非球面(2)并反射由第一反射镜反射的光的第二传送镜(M2) 属于第三旋转对称非球面(4)的第三凸面镜(M3),并将由第二镜反射的光反射到出射光瞳(6); 所述第一,第二第三和第四旋转对称非球面以所述第三反射镜的对称轴线(Oz)为中心,所述第一和第四反射镜沿垂直于所述光轴的第一方向(x)居中并且位于 垂直于对称轴和第一方向的第二方向(y)。
    • 40. 发明申请
    • SCANNING SENSOR SYSTEM WITH MULTIPLE ROTATING TELESCOPE SUBASSEMBLIES
    • 扫描传感器系统的多旋转伸缩分组
    • WO03023485A3
    • 2003-06-26
    • PCT/US0119460
    • 2001-09-07
    • RAYTHEON CO
    • WHALEN MICHAEL RGAMBLE MITCHELL D
    • G02B23/02G01C11/02G02B23/04G02B23/06G02B23/16G02B26/10G02B27/64H04N3/08H04N5/33
    • G01C11/025G02B23/06G02B27/642H04N3/08H04N5/33
    • A scanning sensor system comprising a light sensor and a scanning telescope. The scanning telescope includes at least two primary telescope mirrors supported (preferably symmetrically) about a primary-mirror rotation axis. Each of the primary telescope mirrors is oriented to receive incident light along an incident ray path that is not parallel to the primary-mirror rotation axis. The scanning telescope includes at least one additional telescope mirror positioned to alternately receive a first reflected light beam from a first one of the primary telescope mirrors and thereafter a second reflected light beam from a second one of the primary telescope mirrors, and to direct the reflected light beam into the light sensor along an optical path. A primary mirror drive rotates that at least two primary mirrors about the primary mirror rotation axis at a primary mirror angular instantaneous rate rotation. A half-angle derotation mirror is positioned to reflect a light beam in the optical path, and a derotation mirror drive rotates the derotation mirror about a derotation-mirror axis parallel to the primary mirror rotation axis at a derotation angular rate of rotation that is one-half of the primary mirror angular instantaneous rate of rotation during the active scan period. The primary telescope mirrors are preferably mounted in a housing.
    • 扫描传感器系统包括光传感器和扫描望远镜。 扫描望远镜包括至少两个围绕主镜旋转轴支撑(优选对称)的主望远镜。 每个主望远镜被定向为接收沿着不平行于主镜旋转轴线的入射光路的入射光。 该扫描望远镜包括至少一个附加望远镜镜,该附加望远镜镜定位成交替地接收来自第一个望远镜反射镜的第一反射光束,然后从第一个望远镜反射镜反射第二反射光束, 光束沿着光路进入光传感器。 主反射镜驱动器以主反射镜角度瞬时速率旋转使至少两个主反射镜围绕主反射镜旋转轴旋转。 半角反转镜被定位成将光束反射在光路中,并且反转驱动器使旋转反射镜围绕平行于主反射镜旋转轴的反旋转镜轴旋转,旋转的旋转角速率为一 - 在主动扫描周期内主镜的角度瞬时转速的一半。 主望远镜反射镜优选地安装在壳体中。