编码

A general communication system, channel coding theorem and source-channel coding theorem.

通信系统的一般模型，信道编码定理和信源信道编码定理。

The performance boundaries are acquired through coding and coding theorem.

通过编码和编码定理得到一些重要的性能界限。

The channel coding theorem, the source coding theorem.

信道编码理论和信源编码理论。

Our research is completed on the H.263 framework. In this paper, the theory of image coding and the recommendation H.263 are introduced.

本文的研究工作是在H.263标准的框架下进行的，首先介绍了图像编码的原理，然后对甚低码率图像编码技术进行了深入细致的研究。

Introducing the present technology of speech coding and theory of speech coding on Recommendation G.729a.

综述了现有的语音编码技术以及G.729a语音编码算法的原理。

The theory of correlative coding was discussed and the application of it in cabled telemetry seismic instrument was analyzed in this artical.

文章还讨论了相关编码的理论和方法，对相关编码在有线遥测地震仪中的应用进行了分析。

Results and conclusion: the mathematics mechanism theory of Nervous system about their basic data and interconnection may be expressed by the neural information encoding formulation: x1=m1a/b and y1=n1c/d、x2=m2b/a and y2=n2d/c The neural information encoding formulation have novenary and undecimal and many other scales. All Periphery Nervous- Cerebral Cortex- Sympathetic Nervous have obvious and invisible encoding data in 2 kinds: yin and yang ,2kinds:ambulatory and static state, 3 grades: Max Med and Min. they all exist in obvious or invisible type. Just like a cogwheel system and there is a inter-meory function among the data.

结果与结论：神经系统基本数据及其相互关系的数学机制可用神经信息编码计算公式：x1=m1a/b与y1=n1c/d、x2= m2b/a与y2=n2d/c表达；神经信息编码计算有9与11等多种进位制；周围神经-大脑皮质-交感神经皆以隐性或显性型式存在阴阳两种静动两类大中小三级编组数据，犹如齿轮系统，数据之间起着互记功能；45对周围神经-54对大脑皮质分区-15对交感神经、脊神经前根与后根神经小束数之比3/5等神经系统基本数据皆是由数学计算机制决定形成。

This design which is based on the WindowsXp platform, using Graphic editor and text editor of MAX+PLUS II, to design Linear block code through VHDL and Combinational logic. both of these realization are simulated.

本设计基于windows xp平台，采用MAX + Plus II软件中的图形编辑模块和文本编辑模块，运用VHDL对线性分组编码器的编码功能，进行组合逻辑电路设计以及VHDL设计，并对两种设计进行波形仿真。

It showed: 1. The encoding segments of DQA and DRA genes located on the same strand, while those of DQB and DRB genes on the complemental strand.

DQA和DRA的编码基因位于一条DNA单链上，而DQB和DRB的编码基因则位于互补链上。

Analysis of complex transform domain is important method for signal processing.

提出了适于矢量表示的伪彩色编码显示的理论和方法，并根据不同类型的信号变换，实现了相应复变换域的编码显示。

The split between the two groups can hardly be papered over.

这两个团体间的分歧难以掩饰。

This approach not only encourages a greater number of responses, but minimizes the likelihood of stale groupthink.

这种做法不仅鼓励了更多的反应，而且减少跟风的可能性。