Abstract:Sequences have been fascinating topic for mathematicians for centuries. The Fibonacci sequences are a source of many nice and interesting identities. A similar interpretation exists for Lucas sequence. The Fibonacci number, Lucas numbers and their generalization have many interesting properties and applications to almost every field. Fibonacci sequence is defined by the recurrence formula F
“…Bob first choose an integer D is such that 1 < D < φ(37) = 36, say D = 10. The set of primitive roots of 37 is given by X= {2, 5, 13,15,17,18,19,20,22,24,32,35 }. Now Bob selects a primitive root α = 17 of p from X.…”
Section: Examplementioning
confidence: 99%
“…E. Özkan, et.al [14] obtained the terms of n-step Lucas polynomials by using matrices & generalizing the concept and then establishing the relationship between Lucas polynomials and Fibonacci polynomials. In [17] Singh, et.al presented a generalization of Fibonacci-Lucas sequences, constructed matrix of order three and established some identities but they followed it for second order sequences, which can be further extended to higher order sequences and matrix construction.…”
In this article, we have proposed a generalized Lucas matrix (recursive matrix of higher order) having relation with generalized Fibonacci sequences and established many special properties in addition to that usual matrix algebra. Further, we have proposed a modified public key cryptography using these matrices as keys in Affine cipher and key agreement for encryption-decryption with the combination of terms of generalized Lucas sequences under residue operations. In this scheme, instead of exchanging the whole key matrix, only a pair of numbers(parameters) need to be exchanged, which reduces the time complexity as well as space complexity of the key transmission and has a large key-space.
“…Bob first choose an integer D is such that 1 < D < φ(37) = 36, say D = 10. The set of primitive roots of 37 is given by X= {2, 5, 13,15,17,18,19,20,22,24,32,35 }. Now Bob selects a primitive root α = 17 of p from X.…”
Section: Examplementioning
confidence: 99%
“…E. Özkan, et.al [14] obtained the terms of n-step Lucas polynomials by using matrices & generalizing the concept and then establishing the relationship between Lucas polynomials and Fibonacci polynomials. In [17] Singh, et.al presented a generalization of Fibonacci-Lucas sequences, constructed matrix of order three and established some identities but they followed it for second order sequences, which can be further extended to higher order sequences and matrix construction.…”
In this article, we have proposed a generalized Lucas matrix (recursive matrix of higher order) having relation with generalized Fibonacci sequences and established many special properties in addition to that usual matrix algebra. Further, we have proposed a modified public key cryptography using these matrices as keys in Affine cipher and key agreement for encryption-decryption with the combination of terms of generalized Lucas sequences under residue operations. In this scheme, instead of exchanging the whole key matrix, only a pair of numbers(parameters) need to be exchanged, which reduces the time complexity as well as space complexity of the key transmission and has a large key-space.
“…T. Koshy [13] explained two chapters on the use of matrices and determinants. Many determinant identities of generalized Fibonacci sequence are discussed in [4], [6] and [11]. In this section some determinant identities of Generalized Fibonacci-Like sequence are presented.…”
“…with the initial values W 0 , W 1 , W 2 , W 3 are arbitrary complex (or real) numbers not all being zero and r, s, t, u are complex numbers. This sequence has been studied by many authors and more detail can be found in the extensive literature dedicated to these sequences, see for example [1][2][3][4][5][6].…”
In this paper, closed forms of the sum formulas \(\sum_{k=0}^{n}kx^{k}W_{k}\) and \(\sum_{k=1}^{n}kx^{k}W_{-k}\) for generalized Tetranacci numbers are presented. As special cases, we give summation formulas of Tetranacci, Tetranacci-Lucas, and other fourth-order recurrence sequences.
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