Arrays composed from the extended rational cycle

Domingo Gomez-Perez; Ana-Isabel Gomez; Andrew Tirkel

doi:10.3934/amc.2017024

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May 2017, 11(2): 313-327. doi: 10.3934/amc.2017024

Arrays composed from the extended rational cycle

Domingo Gomez-Perez ^1,, , Ana-Isabel Gomez ^2, and Andrew Tirkel ^3,

1.	Universidad de Cantabria, Avd. Los Castros, s/n. Facultad de Ciencias, Santander, Spain
2.	Universidad de Cantabria, Avd. Los Castros, s/n. EIIT, Santander, Spain
3.	Scientific Technology, 8 Cecil St., East Brighton, Vic, 3187, Australia

* Corresponding author

Received February 2016 Revised March 2016 Published May 2017

Fund Project: The first author is partially supported by project MTM2014-55421-P from the Ministerio de Economia y Competitividad

We present a 3D array construction with application to video watermarking. This new construction uses two main ingredients: an extended rational cycle (ERC) as a shift sequence and a Legendre array as a base. This produces a family of 3D arrays with good auto and cross-correlation. We calculate exactly the values of the auto correlation and the cross-correlation function and their frequency. We present a unified method of obtaining multivariate recursion polynomials and their footprints for all finite multidimensional arrays. Also, we describe new results for arbitrary arrays and enunciate a result for arrays constructed using the method of composition. We also show that the size of the footprint is invariant under dimensional transformations based on the Chinese Remainder Theorem.

Keywords: Watermark, multidimensional array, Groebner basis, recursion polynomial, linear complexity, Chinese Remainder Theorem.

Mathematics Subject Classification: Primary: 58F15, 58F17; Secondary: 53C35.

Citation: Domingo Gomez-Perez, Ana-Isabel Gomez, Andrew Tirkel. Arrays composed from the extended rational cycle. Advances in Mathematics of Communications, 2017, 11 (2) : 313-327. doi: 10.3934/amc.2017024

References:

[1]	E. Berlekamp and O. Moreno, Extended double-error-correcting binary Goppa codes are cyclic (Corresp.), IEEE Trans. Inf. Theory, 19 (1973), 817-818. Google Scholar
[2]	S. T. Blake, O. Moreno and A. Z. Tirkel, Families of 3d arrays for video watermarking, in Sequences and Their Applications, 2014,134-145. doi: 10.1007/978-3-319-12325-7_12. Google Scholar
[3]	S. T. Blake and A. Z. Tirkel, A construction for perfect periodic autocorrelation sequences, in Int. Conf. Seq. Their Appl. -SETA 2014, Springer, 2014, 104-108. doi: 10.1007/978-3-319-12325-7_9. Google Scholar
[4]	L. Bömer and M. Antweiler, Construction of a new class of higher-dimensional Legendre-and pseudonoise-arrays, IEEE Symposium on IT, 90 (1990), p.76. Google Scholar
[5]	I. J. Cox, J. Kilian, F. T. Leighton and T. Shamoon, Secure spread spectrum watermarking for multimedia, IEEE Trans. Image Proc., 6 (1997), 1673-1687. Google Scholar
[6]	J.-C. Faugere, P. Gianni, D. Lazard and T. Mora, Efficient computation of zero-dimensional Gröbner bases by change of ordering, J. Symb. Comput., 16 (1993), 329-344. doi: 10.1006/jsco.1993.1051. Google Scholar
[7]	D. Gomez-Perez, T. Høholdt, O. Moreno and I. Rubio, Linear complexity for multidimensional arrays-a numerical invariant, in Proc. IEEE Int. Symp. Inf. Theory (ISIT), 2015,2697-2701. Google Scholar
[8]	J. K. Holmes, Coherent spread spectrum systems, New York Wiley-Interscience, 1 (1982), p. 636. Google Scholar
[9]	S. Katzenbeisser and F. Petitcolas, Information Hiding Techniques for Steganography and Digital Watermarking, Artech house, 2000. Google Scholar
[10]	E. I. Krengel, A. Z. Tirkel and T. E. Hall, New sets of binary and ternary sequences with low correlation, in Int. Conf. Seq. Their Appl., Springer, 2004,220-235. doi: 10.1109/TIT.2003.818399. Google Scholar
[11]	F. J. MacWilliams and N. J. A. Sloane, The Theory of Error Correcting Codes, Elsevier, 1977. Google Scholar
[12]	J. Massey, Shift-register synthesis and BCH decoding, IEEE Trans. Inf. Theory, 15 (1969), 122-127. Google Scholar
[13]	O. Moreno and S. Maric, A New Family of Frequency-Hop Codes, IEEE Trans. Commun., 48 (2000), 1241-1244. Google Scholar
[14]	O. Moreno and A. Z. Tirkel, Multi-dimensional arrays for watermarking, in Proc. IEEE Int. Symp. Inf. Theory (ISIT), 2011,2691-2695. Google Scholar
[15]	O. Moreno and A. Z. Tirkel, New optimal low correlation sequences for wireless communications, in International Conference on Sequences and Their Applications, Springer, 2012, 212-223. doi: 10.1007/978-3-642-30615-0_20. Google Scholar
[16]	H. Niederreiter and J. Rivat, On the correlation of pseudorandom numbers generated by inversive methods, Monatsh. Math., 153 (2008), 251-264. doi: 10.1007/s00605-007-0503-3. Google Scholar
[17]	H. Niederreiter and I. E. Shparlinski, Recent advances in the theory of nonlinear pseudorandom number generators, in Monte Carlo and Quasi-Monte Carlo Methods 2000, Springer, 2002, 86-102. Google Scholar
[18]	H. Qi, Stream Ciphers and Linear Complexity, Ph. D thesis, National Univ. Singapore, 2008. Google Scholar
[19]	I. M. Rubio, M. Sweedler and C. Heegard, Finding a Gröbner basis for the ideal of recurrence relations on m-dimensional periodic arrays, in Contemporary Developments in Finite Fields and Applications, World Scientific, 2016,296-320. Google Scholar
[20]	S. Sakata, Extension of the Berlekamp-Massey algorithm to N dimensions, Inf. Comput., 84 (1990), 207-239. doi: 10.1016/0890-5401(90)90039-K. Google Scholar
[21]	W. M. Schmidt, Linear recurrence sequences, in Diophantine Approximation, Springer, 2003, 171-247. doi: 10.1007/3-540-44979-5_4. Google Scholar
[22]	A. Z. Tirkel and T. Hall, New matrices with good auto and cross-correlation, IEICE Trans. Fundam. Electr. Commun. Comp. Sci., 89 (2006), 2315-2321. Google Scholar
[23]	A. Z. Tirkel, T. E. Hall and C. F. Osborne, Steganography applications of coding theory, in IEEE Information Theory Workshop, Svalbard, 1997, 57-59. Google Scholar
[24]	A. Z. Tirkel, T. E. Hall, C. F. Osborne, N. Meinhold and O. Moreno, Collusion resistant fingerprinting of digital audio, in Proc. 4th Int. Conf. Sec. Inf. Networks, 2011, 5-12. Google Scholar
[25]	A. Z. Tirkel, R. G. van Schyndel and C. F. Osborne, A two-dimensional digital watermark, DICTA, 95 (1995), 5-8. Google Scholar
[26]	L.-J. Weng, Decomposition of M-sequences and its applications, IEEE Trans. Inf. Theory, 17 (1971), 457-463. Google Scholar

show all references

References:

[1]	E. Berlekamp and O. Moreno, Extended double-error-correcting binary Goppa codes are cyclic (Corresp.), IEEE Trans. Inf. Theory, 19 (1973), 817-818. Google Scholar
[2]	S. T. Blake, O. Moreno and A. Z. Tirkel, Families of 3d arrays for video watermarking, in Sequences and Their Applications, 2014,134-145. doi: 10.1007/978-3-319-12325-7_12. Google Scholar
[3]	S. T. Blake and A. Z. Tirkel, A construction for perfect periodic autocorrelation sequences, in Int. Conf. Seq. Their Appl. -SETA 2014, Springer, 2014, 104-108. doi: 10.1007/978-3-319-12325-7_9. Google Scholar
[4]	L. Bömer and M. Antweiler, Construction of a new class of higher-dimensional Legendre-and pseudonoise-arrays, IEEE Symposium on IT, 90 (1990), p.76. Google Scholar
[5]	I. J. Cox, J. Kilian, F. T. Leighton and T. Shamoon, Secure spread spectrum watermarking for multimedia, IEEE Trans. Image Proc., 6 (1997), 1673-1687. Google Scholar
[6]	J.-C. Faugere, P. Gianni, D. Lazard and T. Mora, Efficient computation of zero-dimensional Gröbner bases by change of ordering, J. Symb. Comput., 16 (1993), 329-344. doi: 10.1006/jsco.1993.1051. Google Scholar
[7]	D. Gomez-Perez, T. Høholdt, O. Moreno and I. Rubio, Linear complexity for multidimensional arrays-a numerical invariant, in Proc. IEEE Int. Symp. Inf. Theory (ISIT), 2015,2697-2701. Google Scholar
[8]	J. K. Holmes, Coherent spread spectrum systems, New York Wiley-Interscience, 1 (1982), p. 636. Google Scholar
[9]	S. Katzenbeisser and F. Petitcolas, Information Hiding Techniques for Steganography and Digital Watermarking, Artech house, 2000. Google Scholar
[10]	E. I. Krengel, A. Z. Tirkel and T. E. Hall, New sets of binary and ternary sequences with low correlation, in Int. Conf. Seq. Their Appl., Springer, 2004,220-235. doi: 10.1109/TIT.2003.818399. Google Scholar
[11]	F. J. MacWilliams and N. J. A. Sloane, The Theory of Error Correcting Codes, Elsevier, 1977. Google Scholar
[12]	J. Massey, Shift-register synthesis and BCH decoding, IEEE Trans. Inf. Theory, 15 (1969), 122-127. Google Scholar
[13]	O. Moreno and S. Maric, A New Family of Frequency-Hop Codes, IEEE Trans. Commun., 48 (2000), 1241-1244. Google Scholar
[14]	O. Moreno and A. Z. Tirkel, Multi-dimensional arrays for watermarking, in Proc. IEEE Int. Symp. Inf. Theory (ISIT), 2011,2691-2695. Google Scholar
[15]	O. Moreno and A. Z. Tirkel, New optimal low correlation sequences for wireless communications, in International Conference on Sequences and Their Applications, Springer, 2012, 212-223. doi: 10.1007/978-3-642-30615-0_20. Google Scholar
[16]	H. Niederreiter and J. Rivat, On the correlation of pseudorandom numbers generated by inversive methods, Monatsh. Math., 153 (2008), 251-264. doi: 10.1007/s00605-007-0503-3. Google Scholar
[17]	H. Niederreiter and I. E. Shparlinski, Recent advances in the theory of nonlinear pseudorandom number generators, in Monte Carlo and Quasi-Monte Carlo Methods 2000, Springer, 2002, 86-102. Google Scholar
[18]	H. Qi, Stream Ciphers and Linear Complexity, Ph. D thesis, National Univ. Singapore, 2008. Google Scholar
[19]	I. M. Rubio, M. Sweedler and C. Heegard, Finding a Gröbner basis for the ideal of recurrence relations on m-dimensional periodic arrays, in Contemporary Developments in Finite Fields and Applications, World Scientific, 2016,296-320. Google Scholar
[20]	S. Sakata, Extension of the Berlekamp-Massey algorithm to N dimensions, Inf. Comput., 84 (1990), 207-239. doi: 10.1016/0890-5401(90)90039-K. Google Scholar
[21]	W. M. Schmidt, Linear recurrence sequences, in Diophantine Approximation, Springer, 2003, 171-247. doi: 10.1007/3-540-44979-5_4. Google Scholar
[22]	A. Z. Tirkel and T. Hall, New matrices with good auto and cross-correlation, IEICE Trans. Fundam. Electr. Commun. Comp. Sci., 89 (2006), 2315-2321. Google Scholar
[23]	A. Z. Tirkel, T. E. Hall and C. F. Osborne, Steganography applications of coding theory, in IEEE Information Theory Workshop, Svalbard, 1997, 57-59. Google Scholar
[24]	A. Z. Tirkel, T. E. Hall, C. F. Osborne, N. Meinhold and O. Moreno, Collusion resistant fingerprinting of digital audio, in Proc. 4th Int. Conf. Sec. Inf. Networks, 2011, 5-12. Google Scholar
[25]	A. Z. Tirkel, R. G. van Schyndel and C. F. Osborne, A two-dimensional digital watermark, DICTA, 95 (1995), 5-8. Google Scholar
[26]	L.-J. Weng, Decomposition of M-sequences and its applications, IEEE Trans. Inf. Theory, 17 (1971), 457-463. Google Scholar

Figure 1. Legendre array defined for $\alpha\in\mathbb{F}_9$, where $\alpha$ is the root of the polynomial $x^2+x+2$. The graphical representation uses the calculation in Table 1. The color of the cube in the row $n_1$ and column $n_2$ is: red if $n_1=n_2=0$, pink if $L(n_1,n_2) =-1$ and black in the other case

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Figure 2. Graphic representation of a 3D array with the shift sequence given in Table 2. For reasons of space, we have flatten the cubes. The first 2D array starting from the left is just a copy of the Legendre array (reference array) without shifts. In the third array, the rows of the initial array have been shifted once and the columns twice. The shifts are above each plane, except for the last one which coincides with $\infty$. In that case, we added a constant array

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Figure 3. One dimensional linear feedback shift register implementation of a two dimensional array

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Figure 4. Two frames corresponding to a unmarked and a marked version of the same media file. The left one shows a unmarked frame whereas the right one corresponds to a marked frame. The differences in colour balance are a result of pushing the contrast to make the mark and video compression artifacts visible.

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Table 1. 2D array given by the logarithm map together with the Legendre array for $\mathbb{F}_9$. The second column shows the digits of number $n$ in base $3$, which coincides with the coefficients of $\xi_n$ using the basis $\{1,\alpha\}$, where $\alpha$ is the root of the polynomial $x^2+x+2$. The corresponding element is in the third column. The logarithm in base $\alpha$ and the value of the Legendre array are in the fourth and fifth column

$n$	$(n_1,n_2)$	$\xi_n$	$\log_{\alpha}(\xi_n)$	$L(n_1,n_2)$
0	$(0,0)$	0	$-$	0
1	$(1,0)$	$1$	$0$	1
2	$(2,0)$	2	$4$	1
3	$(0,1)$	$\alpha$	$1$	-1
4	$(1,1)$	$\alpha+1$	$7$	-1
5	$(2,1)$	$\alpha+2$	$6$	1
6	$(0,2)$	$2\alpha$	$5$	-1
7	$(1,2)$	$2\alpha+1$	2	1
8	$(2,2)$	$2\alpha+2$	$3$	-1

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$n$	$(n_1,n_2)$	$\xi_n$	$\log_{\alpha}(\xi_n)$	$L(n_1,n_2)$
0	$(0,0)$	0	$-$	0
1	$(1,0)$	$1$	$0$	1
2	$(2,0)$	2	$4$	1
3	$(0,1)$	$\alpha$	$1$	-1
4	$(1,1)$	$\alpha+1$	$7$	-1
5	$(2,1)$	$\alpha+2$	$6$	1
6	$(0,2)$	$2\alpha$	$5$	-1
7	$(1,2)$	$2\alpha+1$	2	1
8	$(2,2)$	$2\alpha+2$	$3$	-1

Table 2. Extended rational cycle defined by $u_{n}=\alpha/(u_{n-1}+1)$, where $\alpha$ is the root of the polynomial $x^2+x+2$. The rational cycle has always length equal to $q+1$, in this case 10

$u_0$	$u_1$	$u_2$	$u_3$	$u_4$	$u_5$	$u_6$	$u_7$	$u_8$	$u_9$
0	$\alpha$	$2\alpha+1$	$\alpha+2$	$1$	$2\alpha$	$\alpha+1$	$2\alpha+2$	2	$\infty$
(0, 0)	(0, 1)	(1, 2)	(2, 1)	(1, 0)	(0, 2)	(1, 1)	(2, 2)	(2, 0)	$\infty$

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$u_0$	$u_1$	$u_2$	$u_3$	$u_4$	$u_5$	$u_6$	$u_7$	$u_8$	$u_9$
0	$\alpha$	$2\alpha+1$	$\alpha+2$	$1$	$2\alpha$	$\alpha+1$	$2\alpha+2$	2	$\infty$
(0, 0)	(0, 1)	(1, 2)	(2, 1)	(1, 0)	(0, 2)	(1, 1)	(2, 2)	(2, 0)	$\infty$

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