Abstract:In this paper, we compute the spectral norms of r− circulant matrices with the hyper-Fibonacci and hyper-Lucas numbers of the forms) and their Hadamard and Kronecker products. For this, we firstly compute the spectral and Euclidean norms of circulant matrices of the forms. Moreover, we give some examples related to special cases of our results.
“…Some combinatorial identities of a new generalization of the hyper-Lucas numbers are obtained in [3]. In [5], the authors considered 𝑟-circulant matrices with the hyper-Fibonacci and the hyper-Lucas numbers and calculated the spectral norms of these matrices.…”
Different number systems have been studied lately. Recently, many researchers have considered the hybrid numbers which are generalization of the complex, hyperbolic and dual number systems. In this paper, we define the hybrid hyper-Fibonacci and hyper-Lucas numbers. Furthermore, we obtain some algebraic properties of these numbers such as the recurrence relations, the generating functions, the Binet’s formulas, the summation formulas, the Catalan’s identity, the Cassini’s identity and the d’Ocagne’s identity.
“…Some combinatorial identities of a new generalization of the hyper-Lucas numbers are obtained in [3]. In [5], the authors considered 𝑟-circulant matrices with the hyper-Fibonacci and the hyper-Lucas numbers and calculated the spectral norms of these matrices.…”
Different number systems have been studied lately. Recently, many researchers have considered the hybrid numbers which are generalization of the complex, hyperbolic and dual number systems. In this paper, we define the hybrid hyper-Fibonacci and hyper-Lucas numbers. Furthermore, we obtain some algebraic properties of these numbers such as the recurrence relations, the generating functions, the Binet’s formulas, the summation formulas, the Catalan’s identity, the Cassini’s identity and the d’Ocagne’s identity.
“…For instance, Kocer et al (Kocer et al, 2007) have studied the norms of circulant matrices which terms are Horadam numbers. In (Shen and Cen, 2010), Shen and Cen have obtained the bounds for the norms of −circulant matrices Bahsi in (Bahşi, 2015) has computed norms of circulant matrices with the generalized Fibonacci and Lucas numbers.…”
Section: Introductionmentioning
confidence: 99%
“…In (Tuglu and Kızılateş, 2015a;Kızılateş and Tuglu, 2016;Kızılateş and Tuglu, 2018), Tuglu and Kızılateş have given some matrix norms of circulant, −circulant and geometric circulant matrices with the special Fibonacci numbers. Also, Bahşi calculated the matrix norms of circulant matrices with Tribonacci sequence (Bahşi, 2015).…”
Let the sequence ( ) ∈ℕ be the generalized tetranacci sequence. Define the × circulant matrix C( ) by, j < for , j = 1, 2, … , . In this paper, the eigenvalue of ( ) is studied. By using this value, the determinant value of this matrix is delivered.
Let a, b, p, q be integers and (h n ) defined by h 0 = a, h 1 = b, h n = ph n−1 +qh n−2 , n = 2, 3, . . . . Complementing to certain previously known results, we study the spectral norm of the circulant matrix corresponding to h 0 , . . . , h n−1 .
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