BLOCK CODING FOR DISCRETE STATIONARY DBAR-CONTINUOUS NOISY CHANNELS

被引:30
作者
GRAY, RM [1 ]
ORNSTEIN, DS [1 ]
机构
[1] STANFORD UNIV, DEPT MATH, STANFORD, CA 94305 USA
关键词
D O I
10.1109/TIT.1979.1056045
中图分类号
TP [自动化技术、计算机技术];
学科分类号
0812 ;
摘要
A new class of discrete stationary noisy channels with memory and anticipation termed d-continuous channels is introduced and is shown to include all stationary discrete channels for which coding theorems exist Roughly speaking, in a d-continuous channel the effect of the “past” and “future” inputs on n successive outputs dies out asymptotically with n as measured in a d or average Hamming distance sense. This is weaker than the corresponding notions of Pfaffelhuber, Kadota, and Wyner, who require that probabilities of all n-tuples be close; that is, closeness in a variational or distribution sense. General block channel coding and block Joint source and channel coding theorems are proved for stationary d-continuous channels, and various definitions of channel capacity are compared. © 1979 IEEE
引用
收藏
页码:292 / 306
页数:15
相关论文
共 53 条
[1]  
Adler R. L., 1961, P AM MATH SOC, V12, P924
[2]   WEAK CAPACITY OF AVERAGED CHANNELS [J].
AHLSWEDE, R .
ZEITSCHRIFT FUR WAHRSCHEINLICHKEITSTHEORIE UND VERWANDTE GEBIETE, 1968, 11 (01) :61-&
[3]  
Ahlswede R., 1977, Topics in Information Theory, P17
[4]  
AHLSWEDE R, 1967, P BOLYAI C INFORM TH, P35
[5]  
ASH R, 1965, INFORMATION THEORY
[6]  
Ash R. B., 2014, REAL ANAL PROBABILIT
[7]  
Berger T., 1971, RATE DISTORTION THEO
[8]  
Billingsley P., 1965, ERGODIC THEORY INFOR
[9]  
BRIEMAN L, 1957, ILLINOIS J MATH, V4, P246
[10]  
Dobrushin R. L., 1967, PROBL PEREDACHI INF, V3, P18