“…We obtained the Cassini identity for bi-periodic Fibonacci polynomials [14]. Using the determinant of F n (a, b, x) in Theorem 2.2, again we get…”
Section: The Bi-periodic Fibonacci Matrix Polynomialmentioning
confidence: 97%
“…Also, the polynomials have attracted the attention of some mathematicians [6,7,14]. In [14], the authors gave the bi-periodic Fibonacci polynomial as q n (a, b, x) = axq n−1 (a, b, x) + q n−2 (a, b, x) , if n is even bxq n−1 (a, b, x) + q n−2 (a, b, x) , if n is odd (1.4) which q 0 (a, b, x) = 0, q 1 (a, b, x) = 1 and a, b are nonzero real numbers and they obtained some properties of this polynomial. Hoggatt and Bicknell, in [7], defined the Fibonacci, Tribonacci, Quadranacci, r-bonacci polynomials.…”
In this paper, we consider the matrix polynomial obtained by using bi-periodic Fibonacci matrix polynomial. Then, we give some properties and binomial transforms of the new matrix polynomials.
“…We obtained the Cassini identity for bi-periodic Fibonacci polynomials [14]. Using the determinant of F n (a, b, x) in Theorem 2.2, again we get…”
Section: The Bi-periodic Fibonacci Matrix Polynomialmentioning
confidence: 97%
“…Also, the polynomials have attracted the attention of some mathematicians [6,7,14]. In [14], the authors gave the bi-periodic Fibonacci polynomial as q n (a, b, x) = axq n−1 (a, b, x) + q n−2 (a, b, x) , if n is even bxq n−1 (a, b, x) + q n−2 (a, b, x) , if n is odd (1.4) which q 0 (a, b, x) = 0, q 1 (a, b, x) = 1 and a, b are nonzero real numbers and they obtained some properties of this polynomial. Hoggatt and Bicknell, in [7], defined the Fibonacci, Tribonacci, Quadranacci, r-bonacci polynomials.…”
In this paper, we consider the matrix polynomial obtained by using bi-periodic Fibonacci matrix polynomial. Then, we give some properties and binomial transforms of the new matrix polynomials.
“…The special sequences and their properties have been investigated in many articles and books (see, for example [1,3,5,6,8,9], [14]- [17] and the references cited therein). The Fibonacci and Lucas numbers have attracted the attention of mathematicians because of their intrinsic theory and applications.…”
Section: Introductionmentioning
confidence: 99%
“…Many authors have generalized Fibonacci sequence in different ways. In the one of those generalizations, in [17], we define the bi-periodic Fibonacci {q n (x)} n∈N polynomial as in the form…”
Section: Introductionmentioning
confidence: 99%
“…The Binet formula for bi-periodic Fibonacci polynomial, given in [17], can also be obtained by using Q q matrix. Theorem 2.4 Let n be any integer.…”
In this paper, firstly, we define the Q q -generating matrix for bi-periodic Fibonacci polynomial. And we give nth power, determinant and some properties of the bi-periodic Fibonacci polynomial by considering this matrix representation. Also, we introduce the Hadamard products for bi-periodic Fibonacci Q n q generating matrix and bi-periodic Lucas Q n l generating matrix of which entries is bi-periodic Fibonacci and Lucas numbers. Then, we investigate some properties of these products.
In the paper, the authors find closed formulas and recurrent relations for bi-periodic Fibonacci polynomials and for bi-periodic Lucas polynomials in terms of the Hessenberg determinants. Consequently, the authors derive closed formulas and recurrent relations for the Fibonacci, Lucas, bi-periodic Fibonacci, and bi-periodic Lucas numbers in terms of the Hessenberg determinants.
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