关于一般阿贝尔群码的控制

J. Arpasi, S. Bortolin
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引用次数: 0

摘要

群码是众所周知的二进制卷积码的一种推广。因此,群码也被称为广义卷积码。具有速率k/n k2, Zn2和Zm2的经典二进制卷积编码器,并且在Zk2⊕Zm2上定义了足够的下一态和编码器同态。那么二进制卷积码就是由二进制卷积编码器产生的双无穷数列族。由于群的直接积U⊕S可以推广为扩展U⊗S,则群码的编码器是一个FSM M = (U, S, Y, ν, ω),其中U为输入群,S为状态群,Y为输出群。在U⊗s上定义了下一态同态ν和编码器同态ω, FSM产生的群码的元素是双无穷序列y = {yk}kϵZ,其中有yk λ y,则每个y都可以解释为一个动力系统的轨迹,因此群码就是一个动力系统。因此,当一组代码作为一个动力系统是可控的时候,它就是可控的。本文给出了控制一般阿贝尔扩展U⊗S上定义的fsm产生的群码的必要条件,其中Zp ={0,1,…, p - 1}, p阶的环群。
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On the control of generic abelian group codes
Group Codes are a generalization of the well known Binary Convolutional Codes. For this reason Group Codes are also called Generalized Convolutional Codes. A classical binary convolutional encoder with rate k/n <; 1 and m memory registers can be described as a Finite State Machine (FSM) in terms of the binary groups Zk2, Zn2 and Zm2, and adequate next-state and encoder homomorphisms defined over the direct product Zk2⊕Zm2. Then the binary convolutional code is the family of bi-infinite sequences produced by the binary convolutional encoder. Since the direct product of groups U ⊕ S can be generalized as an extension U ⊗ S, then the encoder of a group code is a FSM M = (U, S, Y, ν, ω) where U is the inputs group, S is the states group, Y is the outputs group. The next-state homomorphism ν and the encoder homomorphism ω are defined over U ⊗ S. The elements of the group code produced by the FSM are bi-infinite sequences y = {yk}kϵZ with yk ϵ Y. Then, each y can be interpreted as a trajectory of a Dynamical System, hence a group code is a Dynamical System. Therefore a group code will be controllable when it is controllable as a Dynamical System. In this work we present some necessary conditions for the control of group codes produced by FSMs defined on generic abelian extensions U ⊗ S with Zp = {0, 1, ..., p - 1}, the cyclic group of order p.
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