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
    • 2. 发明申请
    • Refined optical system
    • 精密光学系统
    • US20100314534A1
    • 2010-12-16
    • US12456504
    • 2009-06-16
    • David CampionDavid M. KaneNicholas DworkMatthew PohlmanRandall Potter
    • David CampionDavid M. KaneNicholas DworkMatthew PohlmanRandall Potter
    • G01D18/00
    • G01D1/00G01D15/00
    • Selected scene regions are imaged. IMAGING CHANNEL: mirrors (preferably MEMS) address an imaging sensor to regions. CALIBRATION CHANNEL: the mirrors direct radiation from a source to a calibration sensor, along an imaging-channel segment. Beam splitter(s) let the channels share optical path at the mirrors. To minimize imaging-channel diffractive blur, the calibration channel modifies wavefront angle and smoothness at the mirrors—measuring (and setting mirrors to optimize) PSF sharpness, then applying these measurements (and settings) to optimize imaging-channel settings by iterative multidimensional gradient search. An afocal lens receives scene radiation, magnifying deflection at the scene. An FOR is imaged on the imaging sensor; the mirrors address the sensor to a narrow FOV within the FOR; the lens enlarges deflections to cover the FOR. Plural diffraction-grating orders communicate between calibration source and sensor when the selected region is in plural scene portions, regardless which FOV is addressed.
    • 所选场景区域被成像。 成像通道:镜子(优选MEMS)将成像传感器寻址到区域。 校准通道:镜头沿成像通道段直接将辐射源从校准传感器传送到校准传感器。 光束分离器使通道在镜子处共享光路。 为了最小化成像通道衍射模糊,校准通道修改反射镜测量(并设置镜子以优化)PSF清晰度的波前角度和平滑度,然后应用这些测量(和设置)通过迭代多维梯度搜索优化成像通道设置 。 无焦距镜头接收场景辐射,在现场放大偏转。 在成像传感器上成像一个FOR; 镜子将传感器寻址到FOR内的窄FOV; 镜头放大偏转以覆盖FOR。 当所选择的区域在多个场景部分中时,多个衍射光栅命令在校准源和传感器之间通信,而不管哪个FOV被寻址。
    • 4. 发明授权
    • Refined optical system
    • 精密光学系统
    • US08624177B2
    • 2014-01-07
    • US12456504
    • 2009-06-16
    • David CampionDavid M. KaneNicholas DworkMatthew PohlmanRandall Potter
    • David CampionDavid M. KaneNicholas DworkMatthew PohlmanRandall Potter
    • G01D18/00
    • G01D1/00G01D15/00
    • Selected scene regions are imaged. IMAGING CHANNEL: mirrors (preferably MEMS) address an imaging sensor to regions. CALIBRATION CHANNEL: the mirrors direct radiation from a source to a calibration sensor, along an imaging-channel segment. Beam splitter(s) let the channels share optical path at the mirrors. To minimize imaging-channel diffractive blur, the calibration channel modifies wavefront angle and smoothness at the mirrors—measuring (and setting mirrors to optimize) PSF sharpness, then applying these measurements (and settings) to optimize imaging-channel settings by iterative multidimensional gradient search. An afocal lens receives scene radiation, magnifying deflection at the scene. An FOR is imaged on the imaging sensor; the mirrors address the sensor to a narrow FOV within the FOR; the lens enlarges deflections to cover the FOR. Plural diffraction-grating orders communicate between calibration source and sensor when the selected region is in plural scene portions, regardless which FOV is addressed.
    • 所选场景区域被成像。 成像通道:镜子(优选MEMS)将成像传感器寻址到区域。 校准通道:镜头沿成像通道段直接将辐射源从校准传感器传送到校准传感器。 光束分离器使通道在镜子处共享光路。 为了最小化成像通道衍射模糊,校准通道修改反射镜测量(并设置镜子以优化)PSF清晰度的波前角度和平滑度,然后应用这些测量(和设置)通过迭代多维梯度搜索来优化成像通道设置 。 无焦距镜头接收场景辐射,在现场放大偏转。 在成像传感器上成像一个FOR; 镜子将传感器寻址到FOR内的窄FOV; 镜头放大偏转以覆盖FOR。 当所选择的区域在多个场景部分中时,多个衍射光栅命令在校准源和传感器之间通信,而不管哪个FOV被寻址。
    • 5. 发明申请
    • REFINED OPTICAL SYSTEM
    • 精制光学系统
    • US20130313418A9
    • 2013-11-28
    • US12456504
    • 2009-06-16
    • David CampionDavid M. KaneNicholas DworkMatthew PohlmanRandall Potter
    • David CampionDavid M. KaneNicholas DworkMatthew PohlmanRandall Potter
    • G01D18/00
    • G01D1/00G01D15/00
    • Selected scene regions are imaged. IMAGING CHANNEL: mirrors (preferably MEMS) address an imaging sensor to regions. CALIBRATION CHANNEL: the mirrors direct radiation from a source to a calibration sensor, along an imaging-channel segment. Beam splitter(s) let the channels share optical path at the mirrors. To minimize imaging-channel diffractive blur, the calibration channel modifies wavefront angle and smoothness at the mirrors—measuring (and setting mirrors to optimize) PSF sharpness, then applying these measurements (and settings) to optimize imaging-channel settings by iterative multidimensional gradient search. An afocal lens receives scene radiation, magnifying deflection at the scene. An FOR is imaged on the imaging sensor; the mirrors address the sensor to a narrow FOV within the FOR; the lens enlarges deflections to cover the FOR. Plural diffraction-grating orders communicate between calibration source and sensor when the selected region is in plural scene portions, regardless which FOV is addressed.
    • 所选场景区域被成像。 成像通道:镜子(优选MEMS)将成像传感器寻址到区域。 校准通道:镜头沿成像通道段直接将辐射源从校准传感器传送到校准传感器。 光束分离器使通道在镜子处共享光路。 为了最小化成像通道衍射模糊,校准通道修改反射镜测量(并设置镜子以优化)PSF清晰度的波前角度和平滑度,然后应用这些测量(和设置)通过迭代多维梯度搜索优化成像通道设置 。 无焦距镜头接收场景辐射,在现场放大偏转。 在成像传感器上成像一个FOR; 镜子将传感器寻址到FOR内的窄FOV; 镜头放大偏转以覆盖FOR。 当所选择的区域在多个场景部分中时,多个衍射光栅命令在校准源和传感器之间通信,而不管哪个FOV被寻址。
    • 6. 发明授权
    • Low cost brazes for titanium
    • 低成本的钛合金钎焊
    • US07559454B2
    • 2009-07-14
    • US11343604
    • 2006-01-31
    • Derek RaybouldPaul ChipkoMatthew Pohlman
    • Derek RaybouldPaul ChipkoMatthew Pohlman
    • B23K31/02B23K35/24
    • B23K35/325B23K35/005B23K35/0205B23K35/0222B23K35/0244B23K35/0255B23K35/32
    • A braze material and method of brazing titanium metals. The material may consist of Ti, Ni, Cu Zr, PM and M where PM is a precious metal and M may be Fe, V, Cr, Co, Mo, Nb, Mn, Si, Sn, Al, B, Gd, Ge or combinations thereof, with the (Cu+PM)/Ni ratio around 0.9. Optionally, a second brazing may be performed to rebraze any braze joint that did not braze successfully. The second brazing material has a lower braze temperature than the first and may consist of a mixture of Ti, Ni, Cu, Zr PM and M with from 1-20 wt % more Zr, PM, M or combinations thereof than the first braze. The braze material may be placed on a base material, in a vacuum furnace, and heated to form a braze joint between the braze and base material. The heating step may occur from about 800-975° C. and over 3 to 15 minutes.
    • 钎焊材料和钎焊钛金属的方法。 该材料可由Ti,Ni,CuZr,PM和M组成,其中PM是贵金属,M可以是Fe,V,Cr,Co,Mo,Nb,Mn,Si,Sn,Al,B,Gd,Ge 或其组合,(Cu + PM)/ Ni比约为0.9。 可选地,可以进行第二次钎焊以重新焊接未成功钎焊的任何钎焊接头。 第二钎焊材料具有比第一钎料温度低的第一钎焊温度,并且可以由Ti,Ni,Cu,Zr PM和M的混合物组成,与第一钎焊相比,具有1-20重量%以上的Zr,PM,M或其组合。 钎焊材料可以放置在基材上,在真空炉中,并被加热以在钎焊和基材之间形成钎焊接头。 加热步骤可以在约800-975℃和3至15分钟内进行。
    • 7. 发明授权
    • Low cost brazes for titanium
    • 低成本的钛合金钎焊
    • US07465423B2
    • 2008-12-16
    • US11342123
    • 2006-01-26
    • Derek RaybouldPaul ChipkoMatthew Pohlman
    • Derek RaybouldPaul ChipkoMatthew Pohlman
    • B23K35/24
    • B23K35/325B23K35/005B23K35/0205B23K35/0222B23K35/0244B23K35/0255B23K35/32
    • A braze material and method of brazing titanium metals. The material may consist of Ti, Ni, Cu Zr, PM and M where PM is a precious metal and M may be Fe, V, Cr, Co, Mo, Nb, Mn, Si, Sn, Al, B, Gd, Ge or combinations thereof, with the (Cu+PM)/Ni ratio around 0.9. Optionally, a second brazing may be performed to rebraze any braze joint that did not braze successfully. The second brazing material has a lower braze temperature than the first and may consist of a mixture of Ti, Ni, Cu, Zr PM and M with from 1-20 wt % more Zr, PM, M or combinations thereof than the first braze. The braze material may be placed on a base material, in a vacuum furnace, and heated to form a braze joint between the braze and base material. The heating step may occur from about 800-975° C. and over 3 to 15 minutes.
    • 钎焊材料和钎焊钛金属的方法。 该材料可由Ti,Ni,CuZr,PM和M组成,其中PM是贵金属,M可以是Fe,V,Cr,Co,Mo,Nb,Mn,Si,Sn,Al,B,Gd,Ge 或其组合,(Cu + PM)/ Ni比约为0.9。 可选地,可以进行第二次钎焊以重新焊接未成功钎焊的任何钎焊接头。 第二钎焊材料具有比第一钎料温度低的第一钎焊温度,并且可以由Ti,Ni,Cu,Zr PM和M的混合物组成,与第一钎焊相比,具有1-20重量%以上的Zr,PM,M或其组合。 钎焊材料可以放置在基材上,在真空炉中,并被加热以在钎焊和基材之间形成钎焊接头。 加热步骤可以在约800-975℃和3至15分钟内进行。
    • 9. 发明申请
    • Low cost brazes for titanium
    • 低成本的钛合金钎焊
    • US20050011936A1
    • 2005-01-20
    • US10621071
    • 2003-07-14
    • Derek RaybouldPaul ChipkoMatthew Pohlman
    • Derek RaybouldPaul ChipkoMatthew Pohlman
    • B23K35/00B23K35/02B23K35/32B23K31/02
    • B23K35/325B23K35/005B23K35/0205B23K35/0222B23K35/0244B23K35/0255B23K35/32
    • A braze material and method of brazing titanium metals. The material may consist of Ti, Ni, Cu Zr, PM and M where PM is a precious metal and M may be Fe, V, Cr, Co, Mo, Nb, Mn, Si, Sn, Al, B, Gd, Ge or combinations thereof, with the (Cu+PM)/Ni ratio around 0.9. Optionally, a second brazing may be performed to rebraze any braze joint that did not braze successfully. The second brazing material has a lower braze temperature than the first and may consist of a mixture of Ti, Ni, Cu, Zr PM and M with from 1-20 wt% more Zr, PM, M or combinations thereof than the first braze. The braze material may be placed on a base material, in a vacuum furnace, and heated to form a braze joint between the braze and base material. The heating step may occur from about 800-975° C. and over 3 to 15 minutes.
    • 钎焊材料和钎焊钛金属的方法。 该材料可由Ti,Ni,CuZr,PM和M组成,其中PM是贵金属,M可以是Fe,V,Cr,Co,Mo,Nb,Mn,Si,Sn,Al,B,Gd,Ge 或其组合,(Cu + PM)/ Ni比约为0.9。 可选地,可以进行第二次钎焊以重新焊接未成功钎焊的任何钎焊接头。 第二钎焊材料具有比第一钎料温度低的第一钎焊温度,并且可以由Ti,Ni,Cu,Zr PM和M的混合物组成,与第一钎焊相比,具有1-20重量%以上的Zr,PM,M或其组合。 钎焊材料可以放置在基材上,在真空炉中,并被加热以在钎焊和基材之间形成钎焊接头。 加热步骤可以在约800-975℃和3至15分钟内进行。