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
    • 1. 发明授权
    • Optical code division multiplexing communication method and system
    • 光码分复用通信方法及系统
    • US07424226B2
    • 2008-09-09
    • US11185935
    • 2005-07-21
    • Akihiko NishikiKensuke SasakiShuko KobayashiSatoko Kutsuzawa
    • Akihiko NishikiKensuke SasakiShuko KobayashiSatoko Kutsuzawa
    • H04J14/02H04B10/12H04B10/00
    • H04J14/005
    • An optical code division multiplexing communication method includes the steps of: producing a multi-wavelength optical pulse train from wavelength multiplexing pulse; transmitting the multi-wavelength optical pulse train through a transmission line using a time-spreading/wavelength-hopping method; decoding wavelength multiplexing pulse from the multi-wavelength optical pulse train transmitted through the transmission line; compensating delay time differences between individual optical pulses of the multi-wavelength optical pulse train, the delay time differences occurring in the step of transmitting the multi-wavelength optical pulse train through the transmission line; and compensating optical pulse spread in a time direction, which occurs in each of the optical pulses of the multi-wavelength optical pulse train in the step of transmitting the multi-wavelength optical pulse train through the transmission line.
    • 光码分复用通信方法包括以下步骤:从波长复用脉冲产生多波长光脉冲串; 使用时间扩展/波长跳跃方法通过传输线传输多波长光脉冲串; 解码通过传输线传输的多波长光脉冲串的波长复用脉冲; 补偿多波长光脉冲序列的各个光脉冲之间的延迟时间差,在通过传输线传输多波长光脉冲串的步骤中发生的延迟时间差; 以及在通过传输线传输多波长光脉冲串的步骤中补偿在多波长光脉冲串的每个光脉冲中发生的时间方向上的光脉冲扩展。
    • 3. 发明申请
    • Optical code division multiplexing communication method and system
    • 光码分复用通信方法及系统
    • US20060039701A1
    • 2006-02-23
    • US11185935
    • 2005-07-21
    • Akihiko NishikiKensuke SasakiShuko KobayashiSatoko Kutsuzawa
    • Akihiko NishikiKensuke SasakiShuko KobayashiSatoko Kutsuzawa
    • H04J14/00H04J4/00
    • H04J14/005
    • An optical code division multiplexing communication method includes the steps of: producing a multi-wavelength optical pulse train from wavelength multiplexing pulse; transmitting the multi-wavelength optical pulse train through a transmission line using a time-spreading/wavelength-hopping method; decoding wavelength multiplexing pulse from the multi-wavelength optical pulse train transmitted through the transmission line; compensating delay time differences between individual optical pulses of the multi-wavelength optical pulse train, the delay time differences occurring in the step of transmitting the multi-wavelength optical pulse train through the transmission line; and compensating optical pulse spread in a time direction, which occurs in each of the optical pulses of the multi-wavelength optical pulse train in the step of transmitting the multi-wavelength optical pulse train through the transmission line.
    • 光码分复用通信方法包括以下步骤:从波长复用脉冲产生多波长光脉冲串; 使用时间扩展/波长跳跃方法通过传输线传输多波长光脉冲串; 解码通过传输线传输的多波长光脉冲串的波长复用脉冲; 补偿多波长光脉冲序列的各个光脉冲之间的延迟时间差,在通过传输线传输多波长光脉冲串的步骤中发生的延迟时间差; 以及在通过传输线传输多波长光脉冲串的步骤中补偿在多波长光脉冲串的每个光脉冲中发生的时间方向上的光脉冲扩展。
    • 4. 发明授权
    • Optical pulse time spreading device
    • 光脉冲时间扩展装置
    • US07310465B2
    • 2007-12-18
    • US11520661
    • 2006-09-14
    • Akihiko NishikiKensuke SasakiShuko Kobayashi
    • Akihiko NishikiKensuke SasakiShuko Kobayashi
    • G02B6/34
    • G02B6/2932G02B6/02085H04J14/005
    • The present invention is an SSFBG with which there are few restrictions on the code that can be set and the overall length of which is short. This SSFBG has four unit FBGs the Bragg reflection wavelengths of which are λ1, λ2, λ3, and λ4 disposed with a part where the unit FBGs overlap one another in the waveguide direction of the optical fiber. The left end of the horizontal axis corresponds to the position of the I/O terminal of the SSFBG and the right end of the horizontal axis corresponds to the terminal on the opposite side from the I/O terminal of the SSFBG. The Bragg reflection wavelengths λ1, λ2, λ3, and λ4 of the four unit FBGs are λ1=1543.28 nm, λ2=1543.60 nm, λ3=1543.92 nm, and λ4=1544.24 nm respectively. Codes (λ1, λ2, λ3, and λ4) used in the time-spreading/wavelength hopping system are established for the SSFBG by disposing the four unit FBGs at equal intervals such that the interval therebetween is 12.8 mm.
    • 本发明是一种SSFBG,其对于可以设置的代码的限制很少,并且其总长度短。 该SSFBG具有四个单位FBG,其布拉格反射波长是λ1,λ2,λ3和λ4, / SUB>,其中单元FBG在光纤的波导方向上彼此重叠的部分。 水平轴的左端对应于SSFBG的I / O端子的位置,水平轴的右端对应于与SSFBG的I / O端子相反的端子。 四个单位FBG的布拉格反射波长λ1,λ2,λ3 3和λ4 4是 λ1 = 1543.28nm,λ2 = 1543.60nm,λ3 = 1543.92nm,λ4 = 1544.24 nm。 用于时间扩展/解码的码(λ1,λ2,λ3,λ3和λ4) 通过以相等的间隔布置四个单元FBG,使得它们之间的间隔为12.8mm,为SSFBG建立了波长跳变系统。
    • 5. 发明申请
    • Fiber Bragg grating device
    • 光纤布拉格光栅装置
    • US20060115195A1
    • 2006-06-01
    • US11287227
    • 2005-11-28
    • Shuko KobayashiAkihiko Nishiki
    • Shuko KobayashiAkihiko Nishiki
    • G02F1/01G02F1/295G02F1/035G02B6/34
    • G02B6/0218G02B6/022G02B6/02204G02F1/011G02F1/0147G02F2201/307
    • There is provided a fiber Bragg grating devise comprising an FBG mount that is constituted by sequentially stacking a temperature control plate, a base plate, and a mounting plate, and an SSFBG in which a plurality of FBG units of the same constitution and a plurality of phase modulation portions are alternately formed in the same optical fiber. The temperature control plate is constituted by a thermo module and a heat-insulating member. The base plate is fixed in contact with the upper face of the temperature control plate and the mounting plate is in contact with the upper face of the base plate in a state where the mounting plate is able to glide over the upper face of the base plate. The SSFBG is fixed to contact an FBG contact portion that is established on the upper face of the mounting plate. The phase modulation portions are formed to be capable of expanding and contracting and, as a result of the expansion and contraction of the phase modulation portions, the phase of the carrier wave of the optical pulse signal that is propagated by the phase modulation portions can be changed.
    • 提供了一种光纤布拉格光栅装置,其包括通过顺序堆叠温度控制板,基板和安装板而构成的FBG安装座,以及SSFBG,其中具有相同结构的多个FBG单元和多个 相位调制部分交替地形成在相同的光纤中。 温度控制板由热模块和绝热构件构成。 基板与温度控制板的上表面固定接触,并且安装板在安装板能够滑动到底板的上表面的状态下与基板的上表面接触 。 SSFBG被固定以接触建立在安装板的上表面上的FBG接触部分。 相位调制部分形成为能够扩展和缩小,并且由于相位调制部分的扩展和缩小,由相位调制部分传播的光脉冲信号的载波相位可以是 改变了
    • 6. 发明授权
    • Optical code division multiplex transmission method and optical code division multiplex transmission device
    • 光码分复用传输方法和光码分多址传输装置
    • US07324754B2
    • 2008-01-29
    • US10868918
    • 2004-06-17
    • Shuko KobayashiAkihiko NishikiSatoko Kutsuzawa
    • Shuko KobayashiAkihiko NishikiSatoko Kutsuzawa
    • H04J14/00
    • H04J14/005G02B6/022
    • An object of the present invention is to adjust the operating wavelength of a decoder, in order to coordinate the operating characteristics of an encoder and the decoder. To this end, an optical code division multiplex transmission device of the present invention comprises a second SSFBG in the decoder, and has a mechanism to perform adjustment (phase adjustment step) of the fixation portion interval L which is the interval between a first and second fixation portions fixing in place the second SSFBG, such that the extent of the eye opening of optical pulses output from the second SSFBG is maximum. The extent of the eye opening is measured using a correlation waveform monitor, and the measurement data is sent to the wavelength control portion. A signal is sent from the wavelength control portion to the movement control portion to set the fixation portion interval L, based on data relating to the extent of the eye opening sent from the correlation waveform monitor.
    • 本发明的目的是调整解码器的工作波长,以便协调编码器和解码器的操作特性。 为此,本发明的光码分复用传输装置包括解码器中的第二SSFBG,并且具有执行固定部分间隔L的调整(相位调整步骤)的机构,该固定部分间隔L是第一和第二 固定部固定第二SSFBG的位置,使得从第二SSFBG输出的光脉冲的眼睛打开的程度是最大的。 使用相关波形监视器测量开眼的程度,并将测量数据发送到波长控制部分。 基于从相关波形监视器发送的眼睛开度的数据,从波长控制部分向移动控制部分发送信号以设定固定部分间隔L.
    • 7. 发明授权
    • Fiber bragg grating device
    • 光纤布拉格光栅装置
    • US07127140B2
    • 2006-10-24
    • US11287227
    • 2005-11-28
    • Shuko KobayashiAkihiko Nishiki
    • Shuko KobayashiAkihiko Nishiki
    • G02B6/34H04J14/02
    • G02B6/0218G02B6/022G02B6/02204G02F1/011G02F1/0147G02F2201/307
    • There is provided a fiber Bragg grating devise comprising an FBG mount that is constituted by sequentially stacking a temperature control plate, a base plate, and a mounting plate, and an SSFBG in which a plurality of FBG units of the same constitution and a plurality of phase modulation portions are alternately formed in the same optical fiber. The temperature control plate is constituted by a thermo module and a heat-insulating member. The base plate is fixed in contact with the upper face of the temperature control plate and the mounting plate is in contact with the upper face of the base plate in a state where the mounting plate is able to glide over the upper face of the base plate. The SSFBG is fixed to contact an FBG contact portion that is established on the upper face of the mounting plate. The phase modulation portions are formed to be capable of expanding and contracting and, as a result of the expansion and contraction of the phase modulation portions, the phase of the carrier wave of the optical pulse signal that is propagated by the phase modulation portions can be changed.
    • 提供了一种光纤布拉格光栅装置,其包括通过顺序堆叠温度控制板,基板和安装板而构成的FBG安装座,以及SSFBG,其中具有相同结构的多个FBG单元和多个 相位调制部分交替地形成在相同的光纤中。 温度控制板由热模块和绝热构件构成。 基板与温度控制板的上表面固定接触,并且安装板在安装板能够滑动到底板的上表面的状态下与基板的上表面接触 。 SSFBG被固定以接触建立在安装板的上表面上的FBG接触部分。 相位调制部分形成为能够扩展和缩小,并且由于相位调制部分的扩展和缩小,由相位调制部分传播的光脉冲信号的载波相位可以是 改变了
    • 8. 发明申请
    • Fiber bragg grating system having a thermo module for supplying or absorbing heat to or from an FBG module
    • 具有用于向FBG模块供应或吸收热量的热模块的光纤布拉格光栅系统
    • US20080107379A1
    • 2008-05-08
    • US11806915
    • 2007-06-05
    • Shuko KobayashiKensuke Sasaki
    • Shuko KobayashiKensuke Sasaki
    • G02B6/34
    • G02B6/0218
    • An FBG system with lower power supplied to a temperature controller, while allowing for precise temperature control of an FBG grating. The FBG system includes a high temperature FBG-mounting structure and a low temperature FBG-mounting structure, and a housing containing them. The high temperature FBG-mounting structure includes an FBG module and a thermo module. The temperature of the FBG in the FBG module may be made higher than the environmental temperature by supplying heat from a heat-conducting portion to the thermo module. The low temperature FBG-mounting structure includes an FBG module and a thermo module. The temperature of the FBG in the latter FBG module may be made lower than the environmental temperature by supplying heat from the latter thermo module to the heat-conducting portion. The FBG-mounting structures are provided in parallel on the inner bottom surface of the heat-conducting portion, part of the housing.
    • 具有较低功率的FBG系统提供给温度控制器,同时允许对FBG光栅进行精确的温度控制。 FBG系统包括高温FBG安装结构和低温FBG安装结构,以及包含它们的外壳。 高温FBG安装结构包括一个FBG模块和一个热模块。 FBG模块中的FBG的温度可以通过从热传导部分向热模块供给热量而使其高于环境温度。 低温FBG安装结构包括一个FBG模块和一个热模块。 后者的FBG模块中的FBG的温度可以通过将热量从后一个热模块供给到导热部分而低于环境温度。 FBG安装结构平行设置在导热部分的内底面上,即壳体的一部分。
    • 10. 发明申请
    • Wavelength tuning device and wavelength tuning method
    • 波长调谐装置和波长调谐方法
    • US20070092182A1
    • 2007-04-26
    • US11543211
    • 2006-10-05
    • Shuko KobayashiKensuke Sasaki
    • Shuko KobayashiKensuke Sasaki
    • G02B6/34
    • G02B6/02209G02B6/02204
    • A wavelength tuning device of the invention tunes the reflected wavelength of a fiber Bragg grating, and includes: an optical fiber (102) in which a fiber Bragg grating (106) is formed; a base member (104) to which the optical fiber (102 is fixed; a first temperature sensor (112) that detects a temperature of the base member (104); a thermo-module (116) that adjust the temperature of the base member (104) such that the temperature detected by the first temperature sensor (112) is maintained at a desired temperature; a second temperature sensor (126) that detects an external temperature of the wavelength tuning device; and a temperature controller (130) that controls the thermo-module (116) such that the temperature of the base member (104) is maintained at the desired temperature based on the external temperature detected by the second temperature sensor (126).
    • 本发明的波长调谐装置调谐光纤布拉格光栅的反射波长,并包括:形成光纤布拉格光栅(106)的光纤(102); 固定有光纤(102)的基座部件(104),检测基体部件(104)的温度的第一温度传感器(112);调节基体部件 (104),使得由第一温度传感器(112)检测的温度保持在期望温度;第二温度传感器(126),其检测波长调谐装置的外部温度;以及温度控制器(130),其控制 所述热模块(116)使得所述基座部件(104)的温度基于由所述第二温度传感器(126)检测到的外部温度而保持在所需温度。