| L. R. Welch and R. A. Scholtz, "Continued fractions and Berlekamp's algorithm", IEEE Trans. Inform. Theory 25, 1979, 19 -- 27. |
.... A decoding procedure based on continued fractions for separable Goppa codes was presented by Goppa in [34] and later for general Goppa codes in [35] The relation of Berlekamp s algorithm to continued fraction techniques was pointed out by Mills [49] and thoroughly studied by Welch and Scholtz [79]. Cheng [20] analysed that the sequence j provides the information when Berlekamp s algorithm completes one iterative step of the continued fraction, which happens when j j 1 2 and when j 6= j 1 . This means that if this latter condition is ful lled, the polynomials q j (x) and u j ....
L. R. Welch and R. A. Scholtz, \Continued fractions and Berlekamp's algorithm", IEEE Trans. Inform. Theory 25, 1979, 19 - 27.
.... A decoding procedure based on continued fractions for separable Goppa codes was presented by Goppa in [34] and later for general Goppa codes in [35] The relation of Berlekamp s algorithm to continued fraction techniques was pointed out by Mills [49] and thoroughly studied by Welch and Scholtz [79]. Cheng [20] analysed that the sequence # j provides the information when Berlekamp s algorithm completes one iterative step of the continued fraction, which happens when # j j 1 2 and when # j #= # j 1 . This means that if this latter condition is fulfilled, the polynomials q j (x)andu j ....
L. R. Welch and R. A. Scholtz, "Continued fractions and Berlekamp's algorithm", IEEE Trans. Inform. Theory 25, 1979, 19 -- 27.
....previously determined LFSR. Thus the number of available bits does not need to be known ahead of time. The Berlekamp Massey algorithm is equivalent to finding the continued fraction expansion in the field Z= 2) X] of formal power series, of the element A(X) P 1 i=0 a i X i 2 Z= 2) X] [7, 9, 40, 48]. One might hope that the continued fraction expansion in the field Q 2 of 2 adic numbers of the element ff = P 1 i=0 a i 2 i would exhibit similar optimality properties, but this is false. In fact, the continued fraction expansion may fail to converge properly (cf. 47] There are a number ....
L. R. Welch and R. A. Scholtz, Continued fractions and Berlekamp's algorithm. IEEE Trans. Info. Theory vol. 25, 1979 pp. 19-27. 41
.... the shortest linear recurrence (or linear feedback shift register) that will generate the sequence ( 1, Chapter 7] 21] The algorithm can be used to decode other codes ( 18] 20] 23] 27] 32] is related to the Euclidean algorithm and the computation of Pade approximations ( 6] 7] 22] [34]) and has been extensively studied ( 2] 8] 10] 13] 26] 33] 35] W. F. Lunnon, in an unpublished manuscript [17] has pointed out that a version of the quotient difference algorithm ( 12] 14] 15] can be used to find the shortest linear recurrence which generates a given sequence of ....
L. R. Welch and R. A. Scholtz, Continued fractions and Berlekamp's algorithm, IEEE Trans. Information Theory, IT-25 (1979), 19-27.
No context found.
L. R. Welch and R. A. Scholtz, "Continued fractions and Berlekamp's algorithm", IEEE Trans. Inform. Theory 25, 1979, 19 -- 27.
No context found.
L. R. Welch and R. A. Scholtz, Continued fractions and Berlekamp's algorithm, IEEE Trans. Inform. Theory, vol. 25, 1979 pp. 19--27.
No context found.
L. R. Welch and R. A. Scholtz, "Continued fractions and Berlekamp's algorithm", IEEE Trans. Inform. Theory 25, 1979, 19 -- 27.
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