| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 21 | HOLOGRAPHIC IMAGE RECORDING AND RECONSTRUCTING METHOD | US15114315 | 2014-12-29 | US20170003652A1 | 2017-01-05 | CHIH-HSIUNG LIN |
| A holographic image recording method is disclosed, that is realized through utilizing a holographic image fetching and recording device, including the following steps: using an image fetching device to fetch an image of a target object placed on a rotation table rotating at a fixed speed, the image thus obtained is transmitted to a display panel through a connection line; using a light emitting unit to emit coherent light to a first reflector; that reflects the coherent light to light splitter; and the light splitter splits the coherent light along a first light path and a second light path into an object light and a reference light, and transmits them onto a holographic film to interfere with each other, to form a holographic image. A holographic image reconstructing method is also disclosed, to reconstruct and form a 3D holographic image floating above the holographic film. | ||||||
| 22 | Display with observer tracking | US14373942 | 2013-01-25 | US09529430B2 | 2016-12-27 | Norbert Leister |
| The invention relates to a display, in particular an autostereoscopic or holographic display, for representing preferably three-dimensional information, wherein the stereo views or the reconstructions of the holographically encoded objects can be tracked to the movements of the associated eyes of one or more observers in a finely stepped manner within a plurality of zones of the movement region. In this case, the zones are selected by the activation of switchable polarization gratings. | ||||||
| 23 | DISPLAY DEVICE FOR HOLOGRAPHIC RECONSTRUCTION | US15109421 | 2015-01-05 | US20160327906A1 | 2016-11-10 | Gerald FUTTERER |
| The invention relates to a display device for holographic reconstruction. The display device comprises a spatial light modulator device having combined phase modulating pixels and amplitude modulating pixels, an illumination unit generating sufficiently coherent light and arranged to illuminate of the spatial light modulator device and a reflection plane. The device being arranged such that light enters the spatial light modulator device and passes both the phase modulating pixel and the amplitude modulating pixel of the spatial light modulator device. The light is reflected by the reflection plane in between. | ||||||
| 24 | BEAM DIVERGENCE AND VARIOUS COLLIMATORS FOR HOLOGRAPHIC OR STEREOSCOPIC DISPLAYS | US15191596 | 2016-06-24 | US20160313695A1 | 2016-10-27 | Gerald FUTTERER |
| A holographic display with an illumination device, an enlarging unit and a light modulator. The illumination device includes at least one light source and a light collimation unit, the light collimation unit collimates the light of the at least one light source and generates a light wave field of the light that is emitted by the light source with a specifiable angular spectrum of plane waves, the enlarging unit is disposed downstream of the light collimation unit, seen in the direction of light propagation, where the enlarging unit includes a transmissive volume hologram realising an anamorphic broadening of the light wave field due to a transmissive interaction of the light wave field with the volume hologram, and the light modulator is disposed upstream or downstream of the anamorphic enlarging unit, seen in the direction of light propagation. | ||||||
| 25 | DISPLAY WITH OBSERVER TRACKING | US14373942 | 2013-01-25 | US20140361990A1 | 2014-12-11 | Norbert Leister |
| The invention relates to a display, in particular an autostereoscopic or holographic display, for representing preferably three-dimensional information, wherein the stereo views or the reconstructions of the holographically encoded objects can be tracked to the movements of the associated eyes of one or more observers in a finely stepped manner within a plurality of zones of the movement region. In this case, the zones are selected by the activation of switchable polarization gratings. | ||||||
| 26 | OPTICAL SYSTEM FOR A HOLOGRAPHIC MICROSCOPE | US13538185 | 2012-06-29 | US20130003073A1 | 2013-01-03 | Chung-Chieh Yu; Isao Matsubara; Yasuyuki Unno |
| An optical system for a holographic microscope includes: a light source configured to emit a light beam; a grating configured to split the light beam into a reference beam and an object beam; a lens unit configured to irradiate a sample by the reference and object beams split by the grating; a spatial filter including a first region for the reference beam and a second region for the object beam; and a detector configured to detect an interference pattern caused by the reference and object beams. | ||||||
| 27 | Adjustable scanned beam projector | US15344130 | 2016-11-04 | US10120337B2 | 2018-11-06 | Andrew Maimone; Joel S. Kollin; Joshua Owen Miller |
| Examples are disclosed herein relating to an adjustable scanning system configured to adjust light from an illumination source on a per-pixel basis. One example provides an optical system including an array of light sources, a holographic light processing stage comprising, for each light source in the array, one or more holograms configured to receive light from the light source and diffract the light, the one or more holograms being selective for a property of the light that varies based upon the light source from which the light is received, and a scanning optical element configured to receive and scan the light from the holographic light processing stage. | ||||||
| 28 | Digital holography device and digital holography play method | US14424524 | 2013-08-28 | US10108145B2 | 2018-10-23 | Yasuhiro Awatsuji; Ryosuke Yonesaka; Tatsuki Tahara |
| A digital holography device of an embodiment of the present invention includes: an image sensing device which records, in an image sensor and on the basis of an object, a plurality of holograms that correspond to respective different photographic exposure values; and a computer which (i) generates a high dynamic range hologram, which includes pieces of information ranging from low luminance information to high luminance information, by synthesizing the plurality of holograms recorded and (ii) generates a reconstructed image of the object by performing arithmetic processing of phase-shift interferometry, diffraction calculation, and/or the like on the basis of the high dynamic range hologram. | ||||||
| 29 | APPARATUS, OPTICAL SYSTEM, AND METHOD FOR DIGITAL Holographic microscopy | US15947801 | 2018-04-07 | US20180292784A1 | 2018-10-11 | Thanh Nguyen; George Nehmetallah; Vy Bui |
| A digital holography microscope, a method, and a system are provided. The digital holography microscope comprising two microscope objectives configured in a bi-telecentric configuration; a sample holder configured to receive a sample; a couple charged device configured to capture one or more images; a display; and a processor configured to retrieve a Convolutional Neural Network (CNN) model associated with a type of the sample, mitigate aberrations in the one or more images using at least the CNN model having as input an unwrapped phase associated with each of the one or more images, and output the mitigated one or more images via the display. | ||||||
| 30 | Holographic 3D recording device, reproducing device and display apparatus | US15122307 | 2015-08-28 | US09964924B2 | 2018-05-08 | Yingli Meng |
| A holographic 3D recording device includes: a photorefractive crystal and a microlens array. The microlens array includes an array face and a side face. The microlens array is provided in a light path from an object to be photographed to the photorefractive crystal such that first light of object emitted through a diffuse reflection of the object to be photographed passes through the array face of the microlens array and becomes second light of object that is emitted to the photorefractive crystal. The photorefractive crystal is configured to receive the second light of object emitted by the microlens array and reference light, respectively, and save therein an interference fringe formed by the reference light and the second light of object. The first light of object and the reference light are coherent light. | ||||||
| 31 | DYNAMIC DISPLAY USING HOLOGRAPHIC RECORDED PIXELS | US15299836 | 2016-10-21 | US20180113419A1 | 2018-04-26 | Jeffrey R. Stafford |
| A holographic film is encoded on a pixel-by-pixel basis by sequentially irradiating each pixel using a movable laser that directs light against a suitable object that in turn deflects the light toward the film. The film can then be used as a display for playing back demanded images using a laser or in some cases LEDs to irradiate each pixel on a pixel-by-pixel basis according to the demanded image. | ||||||
| 32 | Incoherent fluorescence digital holographic microscopy using transmission liquid crystal lens | US15026785 | 2014-09-29 | US09891585B2 | 2018-02-13 | Gary Brooker; Nisan Siegel; Joseph Rosen |
| A new optical arrangement that creates high efficiency, high quality Fresnel Incoherent Correlation Holography (FINCH) holograms using transmission liquid crystal GRIN (TLCGRIN) diffractive lenses has been invented. This is in contrast to the universal practice in the field of using a reflective spatial light modulator (SLM) to separate sample and reference beams. Polarization sensitive TLCGRIN lenses enable a straight optical path, have 95% transmission efficiency, are analog devices without pixels and are free of many limitations of reflective SLM devices. An additional advantage is that they create an incoherent holographic system that is achromatic over a wide bandwidth. Two spherical beams created by the combination of a glass and a polarization sensitive TLCGRIN lenses interfere and a hologram is recorded by a digital camera. FINCH configurations which increase signal to noise ratios and imaging speed are also described. | ||||||
| 33 | Holographic 3D Recording Device, Reproducing Device and Display Apparatus | US15122307 | 2015-08-28 | US20170075303A1 | 2017-03-16 | Yingli Meng |
| A holographic 3D recording device includes: a photorefractive crystal and a microlens array. The microlens array includes an array face and a side face. The microlens array is provided in a light path from an object to be photographed to the photorefractive crystal such that first light of object emitted through a diffuse reflection of the object to be photographed passes through the array face of the microlens array and becomes second light of object that is emitted to the photorefractive crystal. The photorefractive crystal is configured to receive the second light of object emitted by the microlens array and reference light, respectively, and save therein an interference fringe formed by the reference light and the second light of object. The first light of object and the reference light are coherent light. | ||||||
| 34 | BEAM MODULATOR AND DISPLAY APPARATUS USING THE SAME | US15102400 | 2014-12-10 | US20160320640A1 | 2016-11-03 | Seunghoon HAN; Kanghee WON; Hongseok LEE; Jaeeun JUNG |
| Disclosed are a beam combining/splitting modulator, a display apparatus including the same, and a spatial light modulation method. The beam combining/splitting modulator includes a light modulator including first and second modulation regions for modulating light, a polarization converter disposed at a side of an emitting surface of the light modulator and including a first transmissive region for polarizing and converting light incident from the first modulation region to have a first polarization and a second transmissive region for polarizing and converting light incident from the second modulation region to have a second polarization, a birefringence modulator disposed at the side of an emitting surface of the polarization converter and switching between a first state in which birefringence occurs and a second state in which birefringence does not occur, and a polarizer disposed at the side of an emitting surface of the birefringence modulator. | ||||||
| 35 | INCOHERENT FLUORESCENCE DIGITAL HOLOGRAPHIC MICROSCOPY USING TRANSMISSION LIQUID CRYSTAL LENS | US15026785 | 2014-09-29 | US20160246255A1 | 2016-08-25 | Gary BROOKER; Nisan SIEGEL; Joseph ROSEN |
| A new optical arrangement that creates high efficiency, high quality Fresnel Incoherent Correlation Holography (FINCH) holograms using transmission liquid crystal GRIN (TLCGRIN) diffractive lenses has been invented. This is in contrast to the universal practice in the field of using a reflective spatial light modulator (SLM) to separate sample and reference beams. Polarization sensitive TLCGRIN lenses enable a straight optical path, have 95% transmission efficiency, are analog devices without pixels and are free of many limitations of reflective SLM devices. An additional advantage is that they create an incoherent holographic system that is achromatic over a wide bandwidth. Two spherical beams created by the combination of a glass and a polarization sensitive TLCGRIN lenses interfere and a hologram is recorded by a digital camera. FINCH configurations which increase signal to noise ratios and imaging speed are also described. | ||||||
| 36 | Optical system for a holographic microscope including a spatial filter | US13538185 | 2012-06-29 | US09360423B2 | 2016-06-07 | Chung-Chieh Yu; Isao Matsubara; Yasuyuki Unno |
| An optical system for a holographic microscope includes: a light source configured to emit a light beam; a grating configured to split the light beam into a reference beam and an object beam; a lens unit configured to irradiate a sample by the reference and object beams split by the grating; a spatial filter including a first region for the reference beam and a second region for the object beam; and a detector configured to detect an interference pattern caused by the reference and object beams. | ||||||
| 37 | DIGITAL HOLOGRAPHY DEVICE AND DIGITAL HOLOGRAPHY PLAY METHOD | US14424524 | 2013-08-28 | US20150205260A1 | 2015-07-23 | Yasuhiro Awatsuji; Ryosuke Yonesaka; Tatsuki Tahara |
| A digital holography device of an embodiment of the present invention includes: an image sensing device which records, in an image sensor and on the basis of an object, a plurality of holograms that correspond to respective different photographic exposure values; and a computer which (i) generates a high dynamic range hologram, which includes pieces of information ranging from low luminance information to high luminance information, by synthesizing the plurality of holograms recorded and (ii) generates a reconstructed image of the object by performing arithmetic processing of phase-shift interferometry, diffraction calculation, and/or the like on the basis of the high dynamic range hologram. | ||||||
| 38 | フルイメージの記録およびフルイメージの再建方法 | JP2017534722 | 2014-12-29 | JP2018508028A | 2018-03-22 | リン,チーシウン |
| 【課題】フルイメージの記録およびフルイメージの再建方法を提供するものである。【解決手段】フルイメージの撮影および記録装置によって行われるフルイメージの記録方法であって、イメージ取得装置を使用して所定の速度で回転される回転ステージにおける目標物体に対して撮影を行うとともに、撮影したイメージを表示パネルに伝送するステップと、発光ユニットを使用してコヒーレント光を第1反射ミラーに発射するステップと、第1反射ミラーがコヒーレント光を接収するとともに、コヒーレント光をスペクトロスコピーに反射するステップと、スペクトロスコピーにてコヒーレント光を第2オプティカル経路に沿って第2偏光シートに反射してレファレンスライトになるステップと、第2偏光シートにてコヒーレント光を偏光して第3反射ミラーに伝送するステップと、第3反射ミラーにて偏光したコヒーレント光を第2オプティカル経路に沿ってフルイメージフィルムに反射するステップと、スペクトロスコピーにてコヒーレント光を第1オプティカル経路に沿って第1偏光シートに伝送してオブジェクトライトになるステップと、第1偏光シートにてコヒーレント光を偏光して第2反射ミラーに伝送するステップと、第2反射ミラーにて偏光したコヒーレント光を第1オプティカル経路に沿って表示パネルに反射するとともに、表示パネルにてそのイメージ情報を偏光したコヒーレント光と共にフルイメージフィルムに伝送するステップと、第1オプティカル経路からのオブジェクトライトと、第2オプティカル経路からのレファレンスライトとが互いに干渉することにより、フルイメージフイルムにフルイメージを形成するステップと、を有することを特徴とする。【選択図】図3 | ||||||
| 39 | 透過型液晶レンズを使用するインコヒーレント蛍光デジタルホログラフィック顕微鏡法 | JP2016546747 | 2014-09-29 | JP2016533542A | 2016-10-27 | ブルッカー・ゲーリー; シーゲル・ニッサン; ローゼン・ジョセフ |
| 透過型液晶GRIN(TLCGRIN)回折レンズを使用する、高性能で高品質なフレネルインコヒーレント自己相関ホログラフィ(FINCH)ホログラムを生成する新しい光学的配列を発明した。これは、サンプルビームと参照ビームとを分離するために、反射性空間光変調器(SLM)を使用する分野の普遍的な実施とは対照的である。偏光感応性TLCGRINレンズは、直線光路を可能にし、95%の伝送効率を有し、ピクセルのないアナログ素子であり、反射型SLMデバイスの多くの制限がない。さらなる利点は、それらが、広帯域幅を通じてアクロマティックであるインコヒーレントホログラフィックシステムを生成するということである。ガラスと偏光感応性TLCGRINレンズとの組合せにより生成される2つの球状ビームは干渉し、ホログラムは、デジタルカメラにより記録される。信号対雑音比およびイメージング速度を増大させるFINCH構成もまた記載されている。【選択図】図1 | ||||||
| 40 | デジタルホログラフィ装置 | JP2014539666 | 2013-09-20 | JPWO2014054446A1 | 2016-08-25 | 安浩 粟辻; 樹 田原; 安軌 伊藤 |
| 本発明に係るデジタルホログラフィ装置(1)の撮像装置(14)は、互いに通過させる光の偏光方向が異なる4つの偏光領域を有する偏光子アレイ(16)を備える。デジタルホログラフィ装置(1)は、互いに反対方向に回転する円偏光である物体光および参照光とを偏光子アレイ(16)に入射させ、4種類の位相シフト量の差を補正するミラー(M2)と、撮像装置(14)が撮像した干渉縞に並列2段階位相シフト法を適用して再生像を生成する再生装置(12)とを備える。 | ||||||
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