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    • 3. 发明授权
    • Display device and display unit using the same
    • 显示设备和使用其的显示单元
    • US07602117B2
    • 2009-10-13
    • US11693906
    • 2007-03-30
    • Jiro YamadaNobutoshi AsaiShinichiro Tamura
    • Jiro YamadaNobutoshi AsaiShinichiro Tamura
    • H01L51/00G02B5/28
    • H01L51/5265H01L27/3211H01L27/322
    • Provided are a display device and a display unit having higher light extraction efficiency. An optical distance L1 between a maximum light-emitting position of a light-emitting layer and a first end portion satisfies L1=tL1+a1 and (2tL1)/λ=−Φ1/(2π)+m1. An optical distance L2 between the maximum light-emitting position and a second end portion satisfies L2=tL2+a2 and (2tL2)/λ=−Φ2/(2π)+m2. In the formulas, tL1 and tL2 represent a theoretical optical distance between the first end portion and the maximum light-emitting position and a theoretical optical distance between the second end portion and the maximum light-emitting position, respectively, a1 and a2 represent correction amounts based upon a light-emitting distribution in the light-emitting layer, λ represents a peak wavelength of the spectrum of light desired to be extracted, Φ1 and Φ2 represent a phase shift of reflected light generated in the first end portion and a phase shift of reflected light generated in the second end portion, respectively, and each of m1 and m2 is 0 or an integer.
    • 提供了具有较高光提取效率的显示装置和显示单元。 发光层的最大发光位置和第一端部之间的光学距离L1满足L1 = tL1 + a1和(2tL1)/λ= -Phi1 /(2pi)+ m1。 最大发光位置和第二端部之间的光学距离L2满足L2 = tL2 + a2和(2tL2)/λ= -Phi2 /(2pi)+ m2。 在公式中,tL1和tL2分别表示第一端部和最大发光位置之间的理论光学距离以及第二端部与最大发光位置之间的理论光学距离,a1和a2表示校正量 基于发光层中的发光分布,λ表示期望提取的光谱的峰值波长,Phi1和Phi2表示在第一端部中产生的反射光的相移和相移 在第二端部产生的反射光分别为m1和m2,为0或整数。
    • 4. 发明申请
    • DISPLAY DEVICE AND DISPLAY UNIT USING THE SAME
    • 显示设备和使用该显示设备的显示单元
    • US20070170852A1
    • 2007-07-26
    • US11693906
    • 2007-03-30
    • Jiro YamadaNobutoshi AsaiShinichiro Tamura
    • Jiro YamadaNobutoshi AsaiShinichiro Tamura
    • H01J1/62
    • H01L51/5265H01L27/3211H01L27/322
    • Provided are a display device and a display unit having higher light extraction efficiency. An optical distance L1 between a maximum light-emitting position of a light-emitting layer and a first end portion satisfies L1=tL1+a1 and (2tL1)/λ=−Φ1/(2π)+m1. An optical distance L2 between the maximum light-emitting position and a second end portion satisfies L2=tL2+a2 and (2tL2)/λ=Φ2/(2π)+m2. In the formulas, tL1 and tL2 represent a theoretical optical distance between the first end portion and the maximum light-emitting position and a theoretical optical distance between the second end portion and the maximum light-emitting position, respectively, a1 and a2 represent correction amounts based upon a light-emitting distribution in the light-emitting layer, λ represents a peak wavelength of the spectrum of light desired to be extracted, Φ1 and Φ2 represent a phase shift of reflected light generated in the first end portion and a phase shift of reflected light generated in the second end portion, respectively, and each of m1 and m2 is 0 or an integer.
    • 提供了具有较高光提取效率的显示装置和显示单元。 在发光层的最大发光位置和第一端部之间的光学距离L 1> 1 1满足L 1 = t L 1< 1& + 1< 1>和(2tL 1/1)/λ= -P 1/2(2pi)+ m 1。 在最大发光位置和第二端部之间的光学距离L 2 2满足L 2 + 2 2 + 2 + 2< 2> 和(2tL 2 2)/λ= Phi 2 /(2pi)+ m 2 2。 在公式中,t L 1和t L 2表示第一端部和最大发光位置之间的理论光学距离,以及第二端部之间的理论光学距离 并且最大发光位置分别表示基于发光层中的发光分布的校正量,λ表示峰值 期望提取的光的光谱的波长,Phi1和Φ2表示在第一端部中产生的反射光的相移和反射光的相移 分别在第二端部产生,并且m 1和m 2 2中的每一个为0或整数。
    • 5. 发明授权
    • Display device and display unit using the same
    • 显示设备和使用其的显示单元
    • US07224114B2
    • 2007-05-29
    • US10672962
    • 2003-09-26
    • Jiro YamadaNobutoshi AsaiShinichiro Tamura
    • Jiro YamadaNobutoshi AsaiShinichiro Tamura
    • H01L51/00G02B5/28
    • H01L51/5265H01L27/3211H01L27/322
    • Provided are a display device and a display unit having higher light extraction efficiency. An optical distance L1 between a maximum light-emitting position of a light-emitting layer and a first end portion satisfies L1=tL1+a1 and (2tL1)/λ=−Φ1/(2π)+m1. An optical distance L2 between the maximum light-emitting position and a second end portion satisfies L2=tL2+a2 and (2tL2)/λ=−Φ2/(2π)+m2. In the formulas, tL1 and tL2 represent a theoretical optical distance between the first end portion and the maximum light-emitting position and a theoretical optical distance between the second end portion and the maximum light-emitting position, respectively, a1 and a2 represent correction amounts based upon a light-emitting distribution in the light-emitting layer, λ represents a peak wavelength of the spectrum of light desired to be extracted, Φ1 and Φ2 represent a phase shift of reflected light generated in the first end portion and a phase shift of reflected light generated in the second end portion, respectively, and each of m1 and m2 is 0 or an integer.
    • 提供了具有较高光提取效率的显示装置和显示单元。 在发光层的最大发光位置和第一端部之间的光学距离L 1> 1 1满足L 1 = t L 1< 1& + 1< 1>和(2tL 1/1)/λ= -P 1/2(2pi)+ m 1。 在最大发光位置和第二端部之间的光学距离L 2 2满足L 2 + 2 2 + 2 + 2< 2> 和(2tL 2 2)/λ= -Phi 2 /(2pi)+ m 2。 在公式中,t L 1和t L 2表示第一端部和最大发光位置之间的理论光学距离,以及第二端部之间的理论光学距离 并且最大发光位置分别表示基于发光层中的发光分布的校正量,λ表示峰值 期望提取的光的光谱的波长,Phi1和Φ2表示在第一端部中产生的反射光的相移和反射光的相移 分别在第二端部产生,并且m 1和m 2 2中的每一个为0或整数。
    • 7. 发明授权
    • Display unit and its manufacturing method
    • 显示单元及其制造方法
    • US07009340B2
    • 2006-03-07
    • US10691406
    • 2003-10-22
    • Nobutoshi AsaiTetsuo UrabeYuichi Iwase
    • Nobutoshi AsaiTetsuo UrabeYuichi Iwase
    • H01J1/62
    • H01L51/5275H01L27/322H01L51/5265
    • The invention provides a display unit which can improve emission efficiency of lights for image display, and assure luminance of display images. The display unit comprises micro prisms which are arranged in the positions corresponding to organic EL devices, and which have a high refraction index to refract a light, and auxiliary prisms with a low refraction index which are embedded in voids between each micro prism. A light volume of the light viewed as an image in the direction facing an organic EL display (facing direction) is a total of a light volume of a light essentially emitted from the organic EL device in the facing direction, and lights which are directed in the facing direction by utilizing refraction phenomenon based on differences of refraction index between the micro prism and the auxiliary prism. Compared to the case wherein the micro prisms and the auxiliary prisms are not provided, an emission volume of the light in the facing direction is increased by the light volumes of the lights.
    • 本发明提供一种显示单元,其可以提高用于图像显示的光的发射效率,并且确保显示图像的亮度。 显示单元包括布置在与有机EL器件相对应的位置并且具有高折射率以折射光的微棱镜以及嵌入每个微棱镜之间的空隙中的具有低折射率的辅助棱镜。 在面向有机EL显示器(朝向方向)的方向上作为图像观看的光的光体积是从有机EL器件沿相对方向基本发射的光的总体积,以及指向 基于微棱镜和辅助棱镜之间的折射率差异的利用折射现象的面向方向。 与未设置微型棱镜和辅助棱镜的情况相比,通过光的光量增大了朝向方向的光的发射体积。
    • 8. 发明授权
    • Optical recording medium
    • 光记录介质
    • US5474874A
    • 1995-12-12
    • US196470
    • 1994-02-15
    • Nobutoshi AsaiKouichi Yasuda
    • Nobutoshi AsaiKouichi Yasuda
    • G11B7/24G11B7/244G11B7/245G11B7/248G11B7/258
    • G11B7/248G11B7/24G11B7/244G11B7/245G11B7/258Y10S428/913Y10S428/914Y10S430/146
    • An optical recording medium has a transparent substrate with a recorded pattern formed thereon and a saturable absorption dye containing layer disposed on the recorded pattern and containing at least a saturable absorption dye. The saturable absorption dye has a molecular extinction coefficient .epsilon. of 10.sup.4 or greater at the wavelength of reproducing light, and a relaxation time .tau. in the range of 1 ns.ltoreq..tau..ltoreq. 100 ns. A reflecting layer having a reflectivity of 70% or higher on an air boundary thereof may be disposed on the saturable absorption dye containing layer. The saturable absorption dye containing layer may have such a thickness that substantially minimizes the intensity of reflected light due to interference with respect to the intensity of the reproducing light. The saturable absorption dye may comprise a naphthalocyanine-based dye.
    • 光学记录介质具有形成在其上的记录图案的透明基板和设置在记录图案上并且至少包含可饱和吸收染料的可饱和吸收染料含有层。 可饱和吸收染料在再现光波长下的分子消光系数ε为104或更大,弛豫时间τ在1ns≤100ns的范围内。 在可饱和的吸收染料含有层上可以设置在其空气边界具有70%以上的反射率的反射层。 可饱和吸收染料含有层可以具有使得由于相对于再现光的强度的干涉而使反射光的强度基本上最小化的厚度。 可饱和吸收染料可以包含萘酞菁染料。
    • 10. 发明申请
    • Display panel and display device
    • 显示面板和显示设备
    • US20100245216A1
    • 2010-09-30
    • US12661248
    • 2010-03-12
    • Kazuo NakamuraKatsuhide UchinoNobutoshi AsaiHiroshi Sagawa
    • Kazuo NakamuraKatsuhide UchinoNobutoshi AsaiHiroshi Sagawa
    • G09G3/30
    • H01L27/3269G09G3/20G09G3/3208G09G2300/0421H01L27/322H01L51/5284H01L2227/32
    • A display panel includes: a plurality of pixel circuits formed in a matrix on a substrate; an insulating layer covering the plurality of pixel circuits; a plurality of light emitting elements connected to the plurality of pixel circuits, and arranged in a matrix on the insulating layer; a filtering layer including a light transmitting section at least in a part of a region facing the light emitting element and a light shielding section formed in a same plane as the light transmitting section, and formed on an opposite side from the pixel circuit in relation to the light emitting element; a light reflecting section formed in a region facing the light shielding section, and between the light emitting element and the filtering layer; and a light receiving element formed in a region facing the light shielding section, and on the pixel circuit side in relation to the light emitting element.
    • 显示面板包括:在基板上以矩阵形成的多个像素电路; 覆盖所述多个像素电路的绝缘层; 连接到所述多个像素电路的多个发光元件,并且以矩阵形式布置在所述绝缘层上; 滤光层,其至少在面向发光元件的区域的一部分中具有透光部,以及形成在与透光部相同的平面中的遮光部,并且形成在与像素电路相反的一侧 发光元件; 在与所述遮光部对置的区域中形成的光反射部以及所述发光元件与所述滤光层之间的光反射部; 以及形成在面对遮光部的区域中的光接收元件,并且在像素电路侧相对于发光元件形成。