Introduction to finite fields and their applications
Introduction to finite fields and their applications
On functions of linear shift register sequences
Proc. of a workshop on the theory and application of cryptographic techniques on Advances in cryptology---EUROCRYPT '85
Products of linear recurring sequences with maximum complexity
IEEE Transactions on Information Theory
A generalization of a congruential property of Lucas
American Mathematical Monthly
On the linear complexity of products of shift-register sequences
EUROCRYPT '93 Workshop on the theory and application of cryptographic techniques on Advances in cryptology
Sequences with almost perfect linear complexity profile
EUROCRYPT'87 Proceedings of the 6th annual international conference on Theory and application of cryptographic techniques
On the linear complexity of functions of periodic GF(q) sequences
IEEE Transactions on Information Theory
Root Counting, the DFT and the Linear Complexity of Nonlinear Filtering
Designs, Codes and Cryptography
Designs, Codes and Cryptography
Improved Bounds on the Linear Complexity of Keystreams Obtained by Filter Generators
Information Security and Cryptology
SETA'06 Proceedings of the 4th international conference on Sequences and Their Applications
Lower bounds on sequence complexity via generalised vandermonde determinants
SETA'06 Proceedings of the 4th international conference on Sequences and Their Applications
Efficient Linear Feedback Shift Registers with Maximal Period
Finite Fields and Their Applications
A Remark on the Minimal Polynomial of the Product of Linear Recurring Sequences
Finite Fields and Their Applications
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The determination of the minimal polynomial, and thus of the linear complexity, of the product of two linear recurring sequences is a basic problem in the theory of stream ciphers in cryptology. We establish results on the minimal polynomial of such a product which yield, in particular, a general lower bound on the linear complexity of the product sequence. The problem is mainly of interest for finite fields, but our methods work for arbitrary fields.