光交叉连接器OXC是实现全光网络的核心器件。
光交换技术是未来全光网络(AON)中的关键技术。
Photonic switching is a key technology in the future All Optical Network (AON).
该类器件在未来全光网络和集成光路中具有良好的应用前景。
This device has exciting applications in future all optical networks and integrated optical circuits.
因此基于MOEMS技术的光开关将成为下一代全光通信网络的关键光器件。
So optical switch based on MOEMS technology will be a key optical device in the next generation optical communication system.
这些研究将为未来的全光通信和全光器件的设计、制作和应用提供一定的理论基础。
These studies will provide some theoretical basis for the future practical application of optical communication and optical devices.
研究了所制备的聚合物的全光开关效应。
Furthermore, the all-optical switching effect of the polymer was investigated experimentally.
提出并实现了一种新型全光型压强传感器。
This paper proposed and realized a novel all optical pressure sensor.
介绍了半导体全光开关的种类、特点和应用。
The paper presents the sorts, features and applications of semiconductor all optical switches.
介绍一种新颖的全光型硅微机械流量传感器。
A novel silicon micro mechanical sensor of all optical type is proposed.
本发明公开了一种试管苗全光喷雾炼苗技术。
The invention discloses full light spray seedling hardening technology for test-tube seedling.
全光逻辑以及波长变换也是OPS网络的关键技术。
All-optical logic operation and wavelength conversion are the key technologies in the OPS network.
本文提出一种用于联想识别的全光型多值神经网络系统。
In this paper, a design of an all-optical multi-value neural network system for implementation of associative memory is presented.
此方法适用于所有基于半导体光放大器的环路型全光缓存器。
This method can be applied in all recircular all-optical buffer based on SOA.
本文研究了基于SOA的四波混频效应的全光信号处理技术。
In this dissertation, all-optical signal processing based on FWM effects of SOAs is systematically investigated.
描述了该全光前缀树加法器的原理，说明了其实现的可能性。
We also describe the principle and possibilities of the all-optical prefix tree adder.
码型转换是实现非归零(NRZ)信号全光时钟恢复的关键技术。
Pattern conversion is the key technology for all-optical clock recovery from non-return-to-zero (NRZ) signal.
全光3r再生是克服超长距离传输中光信号恶化的一种有效的方法。
All optical 3r regeneration is an effective method to overcome the optical signal degradation in the long haul transmission systems.
作为全光交换网的关键技术，全光缓存技术正成为当前的研究热点。
As a key technology of all-optical Switching, all-optical buffer technology becomes a focus of current research.
本文主要研究应用于光分组交换网络的全光时钟恢复(提取)技术。
This dissertation focuses on the optical clock recovery techniques in optical packet switching (OPS) network.
利用高非线性光纤的四波混频效应，提出了实现高速全光与门的新方案。
With the FWM effect in nonlinear fibers, a novel high speed all-optical AND gate scheme is proposed.
通过输入飞秒量级的控制光，该双向全光开关的速度可以达到飞秒量级。
The speed of this bidirectional optical switch can reach to femtosecond if a femtosecond laser is used as the control light.
为了实现真正意义上的全光分组交换，全光信号处理技术的研究迫在眉睫。
For realizing the all-optical packet switch in deed, the research of all-optical signal processing is quite urgent.
折射率、色散和吸收系数是用于超高速全光开关的光学材料的重要品质指数。
Refractive index, chromatic dispersion and absorption coefficient are material figures of merit for ultrafast all optical switch.
为减少全光时钟提取中的码型效应，设计了混码器对注入数据脉冲进行预处理。
To reduce the pattern effect in all-optical clock recovery, a novel device termed as code mixer was designed to preprocess the injected data signals.
光开关可实现在全光层的路由选择、波长选择、光交叉连接以及自愈保护等功能。
It is used in routing switch wavelength choice optical cross connection natural repair protection and so on.
基于全内反射原理和光生载流子注入效应，研究了一种Y分叉全内反射型全光开关。
Based on the theory of total internal reflection (TIR) and injection effect of photo-induced carriers, a Y-branching TIR all-optical switch is fabricated.
用数值方法研究了在具有光致异构非线性的聚合物中光学空间孤子的垂直全光调控。
In the photoisomerized polymer, the perpendicular and all-optical control of optical spatial soliton is simulated by numerical method.
三阶非线性光学(nlo)响应对全光开关、光信号处理和超快光通讯具有重要意义。
The third-order nonlinear optical (NLO) response is important in all-optical switching, signal processing, ultrafast optical communications and etc.
该研究为所有基于SOA和失谐滤波器组合模型的全光信号处理技术提供了理论依据。
These research results become the theory foundation of all-optical signal processing technologies based on the combination of SOA and detuning filter.
光开关是光网络中完成全光交换的核心器件，它的研究日益成为全光通信领域关注的焦点。
In all optical networks, as the kernel part of instruments used to accomplish all optical interchange, optical switch is being a focus of research in all optical communication.
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