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21.发明授权公开(公告)号：US10578882B2
公开(公告)日：2020-03-03
申请号：US15391583
申请日：2016-12-27
Applicant: Ostendo Technologies, Inc.
Inventor： Hussein S. El-Ghoroury , Mahesh Pitchumani , Zahir Y. Alpaslan , Chih-Li Chuang , Dale A. McNeill
Abstract: Emissive micro-pixel spatial light modulators with non-telecentric emission are introduced. The individual light emission from each multi-color micro-scale emissive pixel is directionally modulated in a unique direction to enable application-specific non-telecentric emission pattern from the micro-pixel array of the emissive spatial light modulator. Design methods for directionally modulating the light emission of the individual micro-pixels using micro-pixel level optics are described. Monolithic wafer level optics methods for fabricating the micro-pixel level optics are also described. An emissive multi-color micro-pixel spatial light modulator with non-telecentric emission is used to exemplify the methods and possible applications of the present invention: ultra-compact image projector, minimal cross-talk 3D light field display, multi-view 2D display, and directionally modulated waveguide optics for see-through near-eye displays.
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公开(公告)号：US20180323340A1
公开(公告)日：2018-11-08
申请号：US15990494
申请日：2018-05-25
Applicant: Ostendo Technologies, Inc.
Inventor： Hussein S. El-Ghoroury , Mikhail V. Kisin , Yea-Chuan Milton Yeh , Chih-Li Chuang , Jyh-Chia Chen
IPC: H01L33/08 , H01L33/32 , H01S5/042 , H01S5/343 , H01L33/06 , H01S5/10 , H01S5/34 , H01S5/40 , H01S5/20
CPC classification number: H01L33/08 , H01L33/06 , H01L33/32 , H01S5/0421 , H01S5/1096 , H01S5/2009 , H01S5/3407 , H01S5/34333 , H01S5/4043 , H01S5/4093
Abstract: Disclosed herein are multi-layered optically active regions for semiconductor light-emitting devices (LEDs) that incorporate intermediate carrier blocking layers, the intermediate carrier blocking layers having design parameters for compositions and doping levels selected to provide efficient control over the carrier injection distribution across the active regions to achieve desired device injection characteristics. Examples of embodiments discussed herein include, among others: a multiple-quantum-well variable-color LED operating in visible optical range with full coverage of RGB gamut, a multiple-quantum-well variable-color LED operating in visible optical range with an extended color gamut beyond standard RGB gamut, a multiple-quantum-well light-white emitting LED with variable color temperature, and a multiple-quantum-well LED with uniformly populated active layers.
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23.发明申请公开(公告)号：US20170184776A1
公开(公告)日：2017-06-29
申请号：US15391583
申请日：2016-12-27
Applicant: Ostendo Technologies, Inc.
Inventor： Hussein S. El-Ghoroury , Mahesh Pitchumani , Zahir Y. Alpaslan , Chih-Li Chuang , Dale A. McNeill
Abstract: Emissive micro-pixel spatial light modulators with non-telecentric emission are introduced. The individual light emission from each multi-color micro-scale emissive pixel is directionally modulated in a unique direction to enable application-specific non-telecentric emission pattern from the micro-pixel array of the emissive spatial light modulator. Design methods for directionally modulating the light emission of the individual micro-pixels using micro-pixel level optics are described. Monolithic wafer level optics methods for fabricating the micro-pixel level optics are also described. An emissive multi-color micro-pixel spatial light modulator with non-telecentric emission is used to exemplify the methods and possible applications of the present invention: ultra-compact image projector, minimal cross-talk 3D light field display, multi-view 2D display, and directionally modulated waveguide optics for see-through near-eye displays.
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公开(公告)号：US20170176755A1
公开(公告)日：2017-06-22
申请号：US15381459
申请日：2016-12-16
Applicant: Ostendo Technologies, Inc.
Inventor： Jingbo Cai , Hussein S. El-Ghoroury , Reginald Jonker , Marty Maiers , Chih-Li Chuang
CPC classification number: G02B27/0172 , G02B5/1842 , G02B27/0093 , G02B27/0179 , G02B27/4205 , G02B2027/0123 , G02B2027/0138 , G02B2027/0174 , G02B2027/0178 , G02B2027/0187 , G06T19/006
Abstract: Wearable augmented reality display systems are provided. One or a plurality of emissive display elements are embedded in the bridge area of an eyeglass frame. The lenses are provided with a set of transmissive diffractive optical elements and partially reflective diffractive optical elements. The display outputs are directed toward the lens elements whereby the diffractive elements in turn direct the outputs toward the eye-boxes of the viewer.
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公开(公告)号：US20170163911A1
公开(公告)日：2017-06-08
申请号：US15350559
申请日：2016-11-14
Applicant: Ostendo Technologies, Inc.
Inventor： Hussein S. El-Ghoroury , Jingbo Cai , Chih-Li Chuang , Marty Maiers
IPC: G09G5/02
CPC classification number: G02B27/0101 , G02B5/10 , G02B27/0081 , G02B27/1066 , G02B2027/011 , G02B2027/0112 , G02B2027/0123 , G02B2027/0125 , G02B2027/014 , G02B2027/0147 , G06T3/0012 , G06T3/0093 , G09G3/2003 , G09G3/2096 , G09G3/3406 , G09G3/3413 , G09G2320/0626 , G09G2360/14 , G09G2360/144 , G09G2380/10
Abstract: Split exit pupil (or split eye-box) heads-up display (HUD) systems and methods are described. The described HUD system methods make use of a split exit pupil design method that enables a modular HUD system and allows the HUD system viewing eye-box size to be tailored while reducing the overall HUD volumetric aspects. A HUD module utilizes a high brightness small size micro-pixel imager to generate a HUD virtual image with a given viewing eye-box segment size. When integrated together into a HUD system, a multiplicity of such HUD modules displaying the same image would enable such an integrated HUD system to have an eye-box size that is substantially larger than the eye-box size of a HUD module. The resultant integrated HUD system volume is substantially volumetrically smaller than a HUD system that uses a single larger imager. Furthermore, the integrated HUD system can be comprised of a multiplicity of HUD modules to scale the eye-box size to match the intended application while maintaining a given desired overall HUD system brightness.
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Patent Agency Ranking
26.发明申请公开(公告)号：US20160359084A1
公开(公告)日：2016-12-08
申请号：US15173511
申请日：2016-06-03
Applicant: Ostendo Technologies, Inc.
Inventor： Hussein S. El-Ghoroury , Mikhail V. Kisin , Yea-Chuan Milton Yeh , Chih-Li Chuang , Jyh-Chia Chen
CPC classification number: H01L33/08 , H01L33/06 , H01L33/32 , H01S5/0421 , H01S5/1096 , H01S5/2009 , H01S5/3407 , H01S5/34333 , H01S5/4043 , H01S5/4093
Abstract: Disclosed herein are multi-layered optically active regions for semiconductor light-emitting devices (LEDs) that incorporate intermediate carrier blocking layers, the intermediate carrier blocking layers having design parameters for compositions and doping levels selected to provide efficient control over the carrier injection distribution across the active regions to achieve desired device injection characteristics. Examples of embodiments discussed herein include, among others: a multiple-quantum-well variable-color LED operating in visible optical range with full coverage of RGB gamut, a multiple-quantum-well variable-color LED operating in visible optical range with an extended color gamut beyond standard RGB gamut, a multiple-quantum-well light-white emitting LED with variable color temperature, and a multiple-quantum-well LED with uniformly populated active layers.
Abstract translation: 本文公开了用于掺入中间载体阻挡层的半导体发光器件（LED）的多层光学活性区域，所述中间载体阻挡层具有用于组合物和掺杂水平的设计参数，以提供对横跨载流子阻挡层的载流子注入分布的有效控制 活性区域以实现期望的器件注入特性。 本文中讨论的实施例的示例包括：在可见光范围内操作的全部覆盖RGB色域的多量子阱可变颜色LED，在可见光范围内工作的多量子阱可变颜色LED，具有扩展 超出标准RGB色域的色域，具有可变色温的多量子阱发光白光LED，以及具有均匀填充的有源层的多量子阱LED。
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27.发明授权公开(公告)号：US09306116B2
公开(公告)日：2016-04-05
申请号：US14537627
申请日：2014-11-10
Applicant: Ostendo Technologies, Inc.
Inventor： Hussein S. El-Ghoroury , Chih-Li Chuang , Kameshwar Yadavalli , Qian Fan
IPC: H01L21/00 , H01L33/00 , H01L27/146 , H01L21/18
CPC classification number: H01L33/0079 , H01L21/187 , H01L27/14618 , H01L27/14683 , H01L33/0066 , H01L33/0095 , H01L2924/0002 , H01L2924/351 , H01L2933/0066 , H01L2924/00
Abstract: Methods for bonding semiconductor wafers requiring the transfer of electrical and optical signals between the bonded wafers and across the bonding interface by interfusing optical interconnects on one wafer with optical interconnects on a second wafer, interfusing electrical interconnects on one wafer with electrical interconnects on the second wafer, and interfusing a dielectric intermediary bonding layer on one wafer with the dielectric intermediary bonding layer on the second wafer to bond the wafers together with electrical interconnections and optical interconnections between the wafers. The methods are also applicable to the bonding of semiconductor wafers to provide a high density of electrical interconnects between wafers.
Abstract translation: 通过将一个晶片上的光学互连件与第二晶片上的光学互连件连接在一起，将在一个晶片上的电互连与第二晶片上的电互连相连接的半导体晶片的接合需要在接合的晶片之间和结合界面之间传送电和光信号的方法 并且将一个晶片上的电介质中间键合层与第二晶片上的电介质中间键合层进行接合，以将晶片与晶片之间的电互连和光学互连结合在一起。 这些方法也适用于半导体晶片的结合，以在晶片之间提供高密度的电互连。
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28.发明申请公开(公告)号：US20150072450A1
公开(公告)日：2015-03-12
申请号：US14537627
申请日：2014-11-10
Applicant: Ostendo Technologies, Inc.
Inventor： Hussein S. El-Ghoroury , Chih-Li Chuang , Kameshwar Yadavalli , Qian Fan
IPC: H01L33/00
CPC classification number: H01L33/0079 , H01L21/187 , H01L27/14618 , H01L27/14683 , H01L33/0066 , H01L33/0095 , H01L2924/0002 , H01L2924/351 , H01L2933/0066 , H01L2924/00
Abstract: Methods for bonding semiconductor wafers requiring the transfer of electrical and optical signals between the bonded wafers and across the bonding interface. The methods for bonding of semiconductor wafers incorporate the formation of both electrical and optical interconnect vias within the wafer bonding interface to transfer electrical and optical signals between the bonded wafers. The electrical vias are formed across the bonding surface using multiplicity of metal posts each comprised of multiple layers of metal that are interfused across the bonding surface. The optical vias are formed across the bonding surface using multiplicity of optical waveguides each comprised of a dielectric material that interfuses across the bonding interface and having an index of refraction that is higher than the index of refraction of the dielectric intermediary bonding layer between the bonded wafers. The electrical and optical vias are interspersed across the bonding surface between the bonded wafers to enable uniform transfer of both electrical and optical signals between the bonded wafers.
Abstract translation: 用于接合半导体晶片的方法，其需要在接合的晶片之间并且跨接合界面传输电和光信号。 用于接合半导体晶片的方法包括在晶片接合界面内形成电和光互连通孔，以在接合的晶片之间转移电和光信号。 通过结合表面形成电通孔，使用多个金属柱，每个金属柱由跨接合表面的多层金属组成。 通过使用多个光波导形成光通孔，每个光波导由电介质材料构成，该电介质材料在接合界面之间相互连接并且具有高于接合晶片之间的电介质中间结合层的折射率的折射率 。 电通孔和光通孔穿过接合的晶片之间的结合表面，以使得能够在结合的晶片之间均匀地传递电信号和光信号。
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公开(公告)号：US11609427B2
公开(公告)日：2023-03-21
申请号：US15294447
申请日：2016-10-14
Applicant: Ostendo Technologies, Inc.
Inventor： Hussein S. El-Ghoroury , Chih-Li Chuang , Biagio Agostinelli
IPC: G02B27/01 , G06F3/01 , G09G3/00 , G02B27/00 , G02B6/10 , G06F3/0354 , G06T11/60 , G09G5/02 , G09G5/10 , G02B5/18
Abstract: A dual-mode augmented/virtual reality near-eye wearable display for use with a curved lens element. The lenses are provided with one or more transparent waveguide elements that are disposed within the thickness of the lenses. The waveguide elements are configured to couple display images directly from image sources such as emissive display imagers to an exit aperture or plurality of exit aperture sub-regions within a viewer's field of view. In a preferred embodiment, a plurality of image sources are disposed on the peripheral surface of the lenses whereby each image source has a dedicated input image aperture and exit aperture sub-region that are each “piecewise flat” and have matched areas and angles of divergence whereby a viewer is presented with the output of the plurality of image source images within the viewer's field of view.
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公开(公告)号：US11335829B2
公开(公告)日：2022-05-17
申请号：US17523825
申请日：2021-11-10
Applicant: Ostendo Technologies, Inc.
Inventor： Hussein S. El-Ghoroury , Mikhail V. Kisin , Yea-Chuan Milton Yeh , Chih-Li Chuang , Jyh-Chia Chen
IPC: H01S5/34 , H01L33/08 , H01L33/06 , H01L33/32 , H01S5/042 , H01S5/343 , H01S5/062 , H01S5/20 , H01S5/40 , H01S5/10
Abstract: Disclosed herein are multi-layered optically active regions for semiconductor light-emitting devices (LEDs) that incorporate intermediate carrier blocking layers, the intermediate carrier blocking layers having design parameters for compositions and doping levels selected to provide efficient control over the carrier injection distribution across the active regions to achieve desired device injection characteristics. Examples of embodiments discussed herein include, among others: a multiple-quantum-well variable-color LED operating in visible optical range with full coverage of RGB gamut, a multiple-quantum-well variable-color LED operating in visible optical range with an extended color gamut beyond standard RGB gamut, a multiple-quantum-well light-white emitting LED with variable color temperature, and a multiple-quantum-well LED with uniformly populated active layers.
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