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    • 2. 发明申请
    • HIGH CONNECTIVITY MULTIPLE DIMENSION OPTICAL NETWORK IN GLASS
    • 高连通度玻璃中的多尺寸光学网络
    • WO2015019292A1
    • 2015-02-12
    • PCT/IB2014/063716
    • 2014-08-05
    • TELEFONAKTIEBOLAGET L M ERICSSON (PUBL)
    • XU, QingBRUNNER, RobertLESSARD, Stephane
    • G02B6/44G02B6/12G02B6/125
    • H04Q11/0005B23K26/0054G02B6/12002G02B6/125G02B2006/12171H04L49/1515H04Q2011/0035H04Q2011/0041
    • An optical communications system includes a first plurality of optical components (102) having optical ports (104), a second plurality of optical components (106) having optical ports (108) and an optical cross-connect (100). The optical cross-connect (100) includes a block (110) of a single continuous construction and material having a first side (112) adjacent the first optical components (102) and a second side (114) adjacent the second optical components (106), and a plurality of non-intersecting, continuous waveguides (116) formed within the block (110) and extending from the first side (112) of the block (110) to the second side (114) of the block (110). The refractive index of each waveguide (116) is different than the surrounding material of the block (110), and each waveguide (116) changes direction at least once within the block (110). The waveguides (116) are optically aligned with the optical ports (104) of the first optical components (102) at the first side (112) of the block (110) and with the optical ports (108) of the second optical components (106) at the second side (114) of the block (110).
    • 光通信系统包括具有光端口(104)的第一多个光学部件(102),具有光端口(108)和光交叉连接(100)的第二多个光学部件(106)。 光学交叉连接器(100)包括单个连续结构的块(110)和具有与第一光学部件(102)相邻的第一侧(112)和邻近第二光学部件(106)的第二侧(114)的材料 )和形成在块(110)内并且从块(110)的第一侧(112)延伸到块(110)的第二侧(114)的多个不相交的连续波导(116) 。 每个波导(116)的折射率不同于块(110)的周围材料,并且每个波导(116)在块(110)内至少改变一次方向。 波导(116)与块(110)的第一侧(112)处的第一光学部件(102)的光学端口(104)和第二光学部件(110)的光学端口(108) 106)在块(110)的第二侧(114)处。
    • 3. 发明申请
    • METHOD AND APPARATUS FOR COUPLING TO AN OPTICAL WAVEGUIDE IN A SILICON PHOTONICS DIE
    • 在硅光电子管中耦合到光波导的方法和装置
    • WO2014087346A1
    • 2014-06-12
    • PCT/IB2013/060636
    • 2013-12-04
    • TELEFONAKTIEBOLAGET L M ERICSSON (PUBL)
    • BRUNNER, RobertLESSARD, StephaneXU, Qing
    • G02B6/30G02B6/42
    • G02B6/122B23K26/364G02B6/13G02B6/136G02B6/4228G02B6/4278
    • This disclosure teaches an optical transposer that provides "passive" alignment between optical waveguides in a silicon photonics die (10) seated within a receptacle (24) that is formed in a body member (22) of the optical transposer and corresponding optical waveguides (28) that are precisely dimensioned and located within the body member via laser scribing. The manufacturing method and optical transposer configuration taught herein allow for essentially automated placement (e.g., seating and gluing) of silicon photonics dies within corresponding optical transposer receptacles, without need for controlling final die alignment/placement as a function of measured optical insertion loss. In particular, such passive alignment is obtained via accurate dimensioning of the receptacles relative to the dies and by precise positioning of the entry points into the receptacles of the optical waveguides that are laser scribed into the body member of the optical transposer.
    • 该公开内容教导了一种光学转换器,其在位于光学转换器的主体部件(22)中的硅光子管芯(10)中的光学波导之间提供“无源”对准,所述插座(24)形成在光学转换器的主体部件(22)中并且对应的光波导(28 ),其通过激光划线精确地定尺寸并位于身体构件内。 本文中教导的制造方法和光学转换器配置允许在相应的光学转换器插座内基本自动地放置(例如,将硅光子管芯放置和粘贴),而不需要根据测量的光插入损耗来控制最终的芯片对准/放置。 特别地,这种无源对准是通过插座相对于管芯的精确尺寸以及通过将入射点精确地定位在激光划分到光学转换器的主体部件中的光波导的插座中而获得的。
    • 4. 发明申请
    • RADIATION SCRIBED WAVEGUIDE COUPLING FOR PHOTONIC CIRCUITS
    • 用于光电路的辐射斩波波形耦合
    • WO2014030122A1
    • 2014-02-27
    • PCT/IB2013/056762
    • 2013-08-20
    • TELEFONAKTIEBOLAGET L M ERICSSON (PUBL)
    • BRUNNER, RobertXU, QingLESSARD, Stephane
    • G02B6/13
    • G02B6/13G02B6/1221G02B6/125G02B6/29331
    • Optical waveguide coupling ratios can be modified for a package by providing a substrate (104) with a photonic circuit (108) disposed on a first section (103) of the substrate (104) and a plurality of optical waveguides (100) formed in glass (110) disposed on a second section (105) of the substrate (104), the waveguides (100) being connected to the photonic circuit (108), adjacent ones of the waveguides (100) having a fixed coupling ratio. A three-dimensional region of the glass (110) abutting an end of one or more of the waveguides (100) is lased (112) to change a refractive index of the glass (110) in each three-dimensional region, and thereby extend a length of each waveguide (100) abutting one of the three-dimensional regions so that the coupling ratio between that waveguide (100) and an adjacent waveguide (100) is changed as a function of the extended length. The lasing (112) is controlled based on feedback (118) so that each coupling ratio changed by the lasing (112) varies by less than a target amount.
    • 通过提供具有设置在衬底(104)的第一部分(103)上的光子电路(108)的衬底(104)和形成在玻璃中的多个光波导(100),可以修改封装的光波导耦合比 (110),布置在所述衬底(104)的第二部分(105)上,所述波导(100)连接到所述光子电路(108),相邻的具有固定耦合比的所述波导(100)。 邻接一个或多个波导(100)的端部的玻璃(110)的三维区域被加热(112)以改变每个三维区域中的玻璃(110)的折射率,从而延伸 每个波导(100)的长度邻接所述三维区域之一,使得所述波导(100)和相邻波导(100)之间的耦合比随着所述延伸长度而变化。 基于反馈(118)控制激光(112),使得由激光(112)改变的每个耦合比率变化小于目标量。
    • 7. 发明申请
    • PARALLEL AND WDM SILICON PHOTONICS INTEGRATION IN INFORMATION AND COMMUNICATIONS TECHNOLOGY SYSTEMS
    • 信息和通信技术系统中的并行和WDM硅光子集成
    • WO2015087261A1
    • 2015-06-18
    • PCT/IB2014/066768
    • 2014-12-10
    • TELEFONAKTIEBOLAGET L M ERICSSON (PUBL)
    • XU, QingBRUNNER, RobertLESSARD, Stephane
    • G02F2/00G02B6/12H04J14/02
    • G02F1/353G02B6/12007G02F1/365G02F2/004G02F2002/006H04J14/0212H04Q11/0005H04Q2011/0011H04Q2011/0035
    • A wavelength converter includes first silicon waveguides (102) and second silicon waveguides (104) intersecting the first silicon waveguides (102) to form an arrayed waveguide (100). The arrayed waveguide (100) receives optical data signals at the same wavelength at a first input (106) and optical pump signals at different wavelengths at a second input (108). Microring resonators (114, 116) evanescently couple different ones of the first silicon waveguides (102) to different ones of the second silicon waveguides (104). Each microring resonator (114, 116) is tuned to the wavelength of the optical data signals or one of the wavelengths of the optical pump signals, so that different combinations of the optical data signals and the optical pump signals are provided at an output (120) of the arrayed waveguide (100). A non-linear optical media (200) converts the wavelength of each combined optical signal at the output (120) of the arrayed waveguide (100) to yield wavelength converted signals each having a new dedicated wavelength.
    • 波长转换器包括与第一硅波导(102)相交以形成阵列波导(100)的第一硅波导(102)和第二硅波导(104)。 阵列波导(100)在第一输入(106)处接收相同波长的光数据信号,并且在第二输入端(108)处以不同波长的光泵浦信号。 微环谐振器(114,116)逐渐将不同的第一硅波导(102)耦合到不同的第二硅波导(104)。 每个微环谐振器(114,116)被调谐到光数据信号的波长或光泵信号的一个波长,从而在输出端120提供光数据信号和光泵信号的不同组合 )阵列波导(100)。 非线性光学介质(200)在阵列波导(100)的输出(120)处转换每个组合光信号的波长,以产生每个具有新的专用波长的波长转换信号。