The binomial transforms of the generalized (s, t )-Jacobsthal matrix sequence

Similar documents
arxiv: v1 [math.co] 12 Sep 2014

Binomial transforms of the modified k-fibonacci-like sequence

THE GENERALIZED (s, t)-fibonacci AND FIBONACCI MATRIX SEQUENCES

The Jacobsthal and Jacobsthal-Lucas Numbers via Square Roots of Matrices

A new Approach for Solving Linear Ordinary Differential Equations

h-analogue of Fibonacci Numbers

Determinants Containing Powers of Generalized Fibonacci Numbers

Some congruences related to harmonic numbers and the terms of the second order sequences

On the spectral norm of r-circulant matrices with the Pell and Pell-Lucas numbers

arxiv: v1 [math.ho] 18 May 2008

The Order Relation and Trace Inequalities for. Hermitian Operators

FORMULAS FOR BINOMIAL SUMS INCLUDING POWERS OF FIBONACCI AND LUCAS NUMBERS

Randić Energy and Randić Estrada Index of a Graph

Applied Mathematics Letters

The lower and upper bounds on Perron root of nonnegative irreducible matrices

Projective change between two Special (α, β)- Finsler Metrics

VARIATION OF CONSTANT SUM CONSTRAINT FOR INTEGER MODEL WITH NON UNIFORM VARIABLES

A combinatorial proof of multiple angle formulas involving Fibonacci and Lucas numbers

General viscosity iterative method for a sequence of quasi-nonexpansive mappings

A summation on Bernoulli numbers

A Hybrid Variational Iteration Method for Blasius Equation

THE ADJACENCY-PELL-HURWITZ NUMBERS. Josh Hiller Department of Mathematics and Computer Science, Adelpi University, New York

COMPARISON OF SOME RELIABILITY CHARACTERISTICS BETWEEN REDUNDANT SYSTEMS REQUIRING SUPPORTING UNITS FOR THEIR OPERATIONS

Hyper-Sums of Powers of Integers and the Akiyama-Tanigawa Matrix

arxiv: v1 [math.co] 1 Mar 2014

Solving Fractional Nonlinear Fredholm Integro-differential Equations via Hybrid of Rationalized Haar Functions

A FORMULA FOR COMPUTING INTEGER POWERS FOR ONE TYPE OF TRIDIAGONAL MATRIX

Power law and dimension of the maximum value for belief distribution with the max Deng entropy

Combinatorial Identities for Incomplete Tribonacci Polynomials

Solution of Linear System of Equations and Matrix Inversion Gauss Seidel Iteration Method

Restricted divisor sums

On Finite Rank Perturbation of Diagonalizable Operators

ON A DETERMINATION OF THE INITIAL FUNCTIONS FROM THE OBSERVED VALUES OF THE BOUNDARY FUNCTIONS FOR THE SECOND-ORDER HYPERBOLIC EQUATION

Transfer Functions. Convenient representation of a linear, dynamic model. A transfer function (TF) relates one input and one output: ( ) system

On the Binomial Interpolated Triangles

Beyond Zudilin s Conjectured q-analog of Schmidt s problem

Asymptotics of the Solution of a Boundary Value. Problem for One-Characteristic Differential. Equation Degenerating into a Parabolic Equation

FACTORIZATION IN KRULL MONOIDS WITH INFINITE CLASS GROUP

Amusing Properties of Odd Numbers Derived From Valuated Binary Tree

A property of the elementary symmetric functions

Soft Neutrosophic Bi-LA-semigroup and Soft Neutrosophic N-LA-seigroup

Self-complementing permutations of k-uniform hypergraphs

Difference Equations

An (almost) unbiased estimator for the S-Gini index

DETERMINATION OF TEMPERATURE DISTRIBUTION FOR ANNULAR FINS WITH TEMPERATURE DEPENDENT THERMAL CONDUCTIVITY BY HPM

A New Refinement of Jacobi Method for Solution of Linear System Equations AX=b

CHAPTER-5 INFORMATION MEASURE OF FUZZY MATRIX AND FUZZY BINARY RELATION

Perfect Fluid Cosmological Model in the Frame Work Lyra s Manifold

On quasiperfect numbers

Sharp integral inequalities involving high-order partial derivatives. Journal Of Inequalities And Applications, 2008, v. 2008, article no.

2E Pattern Recognition Solutions to Introduction to Pattern Recognition, Chapter 2: Bayesian pattern classification

Appendix for Causal Interaction in Factorial Experiments: Application to Conjoint Analysis

Yong Joon Ryang. 1. Introduction Consider the multicommodity transportation problem with convex quadratic cost function. 1 2 (x x0 ) T Q(x x 0 )

Valuated Binary Tree: A New Approach in Study of Integers

Remarks on the Properties of a Quasi-Fibonacci-like Polynomial Sequence

ON A DIOPHANTINE EQUATION ON TRIANGULAR NUMBERS

A CHARACTERIZATION OF ADDITIVE DERIVATIONS ON VON NEUMANN ALGEBRAS

(Online First)A Lattice Boltzmann Scheme for Diffusion Equation in Spherical Coordinate

Foundations of Arithmetic

The Quadratic Trigonometric Bézier Curve with Single Shape Parameter

DEGREE REDUCTION OF BÉZIER CURVES USING CONSTRAINED CHEBYSHEV POLYNOMIALS OF THE SECOND KIND

The Degrees of Nilpotency of Nilpotent Derivations on the Ring of Matrices

Neutrosophic Bi-LA-Semigroup and Neutrosophic N-LA- Semigroup

Existence of Two Conjugate Classes of A 5 within S 6. by Use of Character Table of S 6

On the set of natural numbers

CCO Commun. Comb. Optim.

Modulo Magic Labeling in Digraphs

COMBINATORIAL IDENTITIES DERIVING FROM THE n-th POWER OF A 2 2 MATRIX

A Note on Bound for Jensen-Shannon Divergence by Jeffreys

COMPLEX NUMBERS AND QUADRATIC EQUATIONS

A P PL I CA TIONS OF FRACTIONAL EXTERIOR DI F F ER EN TIAL IN THR EE- DI M ENSIONAL S PAC E Ξ

On the size of quotient of two subsets of positive integers.

The exponential map of GL(N)

Convexity preserving interpolation by splines of arbitrary degree

PHASED TILINGS AND GENERALIZED FIBONACCI IDENTITIES

The probability that a pair of group elements is autoconjugate

Numerical Solutions of a Generalized Nth Order Boundary Value Problems Using Power Series Approximation Method

Double Layered Fuzzy Planar Graph

Section 8.3 Polar Form of Complex Numbers

3.1 Expectation of Functions of Several Random Variables. )' be a k-dimensional discrete or continuous random vector, with joint PMF p (, E X E X1 E X

The Two-scale Finite Element Errors Analysis for One Class of Thermoelastic Problem in Periodic Composites

PAijpam.eu ON THE BOUNDS FOR THE NORMS OF R-CIRCULANT MATRICES WITH THE JACOBSTHAL AND JACOBSTHAL LUCAS NUMBERS Ş. Uygun 1, S.

Another converse of Jensen s inequality

On a direct solver for linear least squares problems

Anti-van der Waerden numbers of 3-term arithmetic progressions.

ON SEPARATING SETS OF WORDS IV

An application of generalized Tsalli s-havrda-charvat entropy in coding theory through a generalization of Kraft inequality

arxiv: v1 [quant-ph] 6 Sep 2007

BIVARIATE JACOBSTHAL AND BIVARIATE JACOBSTHAL-LUCAS MATRIX POLYNOMIAL SEQUENCES SUKRAN UYGUN, AYDAN ZORCELIK

One-sided finite-difference approximations suitable for use with Richardson extrapolation

Non-Ideality Through Fugacity and Activity

Research Article Relative Smooth Topological Spaces

STATIC ANALYSIS OF TWO-LAYERED PIEZOELECTRIC BEAMS WITH IMPERFECT SHEAR CONNECTION

Some Concepts on Constant Interval Valued Intuitionistic Fuzzy Graphs

Ballot Paths Avoiding Depth Zero Patterns

Discrete Mathematics. Laplacian spectral characterization of some graphs obtained by product operation

SOME RESULTS ON TRANSFORMATIONS GROUPS OF N-LINEAR CONNECTIONS IN THE 2-TANGENT BUNDLE

PAijpam.eu SOME NEW SUM PERFECT SQUARE GRAPHS S.G. Sonchhatra 1, G.V. Ghodasara 2

Lecture 13 APPROXIMATION OF SECOMD ORDER DERIVATIVES

SINGLE OUTPUT DEPENDENT QUADRATIC OBSERVABILITY NORMAL FORM

Transcription:

Int. J. Adv. Appl. Math. and Mech. 6(3 (2019 14 20 (ISSN: 2347-2529 Journal homepage: www.jaamm.com IJAAMM Internatonal Journal of Advances n Appled Mathematcs and Mechancs The bnomal transforms of the generalzed (s, t -Jacobsthal matr sequence Sukran UYGUN Mathematcs Department, Scence and Art Faculty, Gazantep Unversty, Turkey esearch Artcle eceved 11 November 2018; accepted (n revsed verson 11 January 2019 Abstract: In ths paper, we study the bnomal transforms of the generalzed (s, tjacobsthal matr sequence n+1 (s, t n N ; (s, t Jacobsthal J n+1 (s, t n N and, (s, t Jacobsthal Lucas C n+1 (s, t n N matr sequences. After thatby usng recurrence relatons of them, the generatng functons have beenfounded for these transforms. Fnally the relatons among these transforms have been demonstrated wth dervng new equaltes. MSC: 15A24 11B39 15B36 Keywords: Generalzed (s, t sequence Generalzed (s, t matr sequence (s, t Jacobsthal matr sequence (s, t Jacobsthal Lucas matr sequence. 2019 The Author(s. Ths s an open access artcle under the CC BY-NC-ND lcense (https://creatvecommons.org/lcenses/by-nc-nd/3.0/. 1. Introducton and prelmnary There are so many studes n the lterature that are concern about specal nteger sequences such as Fbonacc, Lucas, Pell, Jacobsthal, Padovan. You can encounter the generalzatons of these sequences n all of the references. In [1 the author wrote a book about these nteger sequences You can see the generalzed number and matr sequences for Fbonacc and Lucas sequences n [3, 5, 6. Smlarly the author defned number and matr sequences whch generalzes Jacobsthal and Jacobsthal Lucas sequences n [7, 8. Some authors ntroduced matr based transforms for these specal sequences. Bnomal transform s one of most popular transforms. You can have detaled nformaton about bnomal transform n [9, 10. Falcon defned dfferent bnomal transforms of thek Fbonacc sequence such as fallng, rsng bnomal transforms n [4. The authors gave bnomal transform for generalzed (s, t matr sequences n [11.The authors ntroduced bnomal transforms for the Padovan and Perrn numbers n [12. And n [13 bnomal transforms of the k Jacobsthal sequence a rentroduced. In [14 the authors gave some propertes of Lucas numbers wth bnomal coeffcents.the goal of ths paper s to apply the bnomal transforms to the generalzed Jacobsthal and Jacobsthal Lucas matr sequences. Also, the generatng functon of ths transform s found by recurrence relatons. Fnally the relatons among these transforms have been demonstrated wth dervng new equaltes. In [2, the author defned the Jacobsthal and Jacobsthal Lucas sequence as follows respectvely j n+1 = j n + 2j n 1 n 1, (j 0 = 0, j 1 = 1 c n+1 = c n + 2c n 1 n 1, (c 0 = 0, c 1 = 1 Now we gve some prelmnares related to our study. For a gven nteger sequence X = { 1, 2,..., n,...} the bnomal transform Y of the sequence X;Y (X = { } y n s defned by y n = =0 E-mal address: suygun@gantep.edu.tr. 14

Sukran UYGUN / Int. J. Adv. Appl. Math. and Mech. 6(3 (2019 14 20 15 Defnton 1.1. Assume that a,b, s > 0, t 0 s 2 + 8t > 0. The(s, t Jacobsthal sequence {ĵ n (s, t} n N s defned by the followng recurrence relaton: ĵ n+1 (s, t = s ĵ n (s, t + 2t ĵ n 1 (s, t, (ĵ 0 (s, t = 0, ĵ 1 (s, t = 1 and, the (s, t Jacobsthal Lucas {ĉ n (s, t} n N s defned by the followng recurrence relaton ĉ n+1 (s, t = sĉ n (s, t + 2tĉ n 1 (s, t, (ĉ 0 (s, t = 2, ĉ 1 (s, t = s And the generalzed (s, tjacobsthal sequence {G n (s, t} n N s defned by the followng recurrence relaton G n+1 (s, t = sg n (s, t + 2tG n 1 (s, t, (G 0 (s, t = a, ĉ 1 (s, t = bs n [7. By choosng sutable values on a; b, we wll obtan (s, t Jacobsthal sequence;the (s, t Jacobsthal Lucas sequence by the generalzed (s, t Jacobsthal sequence: a = b = 1 { G n (s, t = ĵ n+1 (s, t a = 2, b = 1 {G n (s, t = ĉ n (s, t Defnton 1.2. Assume that a,b, s > 0, t 0 s 2 + 8t > 0. Generalzed (s, tjacobsthal matr sequence n+1 (s, t n N ; (s, t Jacobsthal J n+1 (s, t n N and, (s, t Jacobsthal Lucas C n+1 (s, t n N matr sequences are defned by the followng recurrence relatons n [8 : n+1 (s, t = s n (s, t + 2t n 1 (s, t (1 J n+1 (s, t = s J n (s, t + 2t J n 1 (s, t (2 C n+1 (s, t = sc n (s, t + 2tC n 1 (s, t (3 wth ntal condtons [ [ bs 2a bs 2 + 2at 2bs 0 = and at (b as 1 = bst 2at [ [ 1 0 s 2 J 0 (s, t = and J 0 1 1 (s, t = t 0 [ [ s 4 s 2 + 4t 2s C 0 (s, t = and C 2t s 1 (s, t = st 4t By choosng sutable values on a; b, we wll obtan (s, t Jacobsthal matr sequence;the (s, t Jacobsthal Lucas matr sequence by the generalzed (s, tjacobsthal matr sequence: a = b = 1 { n (s, t = J n+1 (s, t a = 2, b = 1 { n (s, t = C n (s, t In the rest of ths paper, for convenence we wll use the symbols ĵ n, ĉ n,g n, J n, C n, n nstead of ĵ n (s, t,ĉ n (s, t, G n (s, t, J n (s, t, C n (s, t, n (s, t respectvely. Proposton 1.1. The relatons between the number sequences and ther matr sequences are gven as [ [ [ ĵn+1 2ĵ n ĉn+1 2ĉ n Gn+1 2G n J n =,C n = and t ĵ n 2t ĵ n 1 tĉ n 2tĉ n =. n 1 tg n 2tG n 1

16 The bnomal transforms of the generalzed (s, t -Jacobsthal matr sequence 2. Bnomal transform of the (s, t Generalzed and (s, t Jacobsthal, (s, t Jacobsthal Lucas matr sequences In ths secton, the bnomal transforms of the generalzed (s, t matr sequence, (s, t Jacobsthal and (s, t Jacobsthal Lucas matr sequences wll be ntroduced. Defnton 2.1. Let n, J n and C n be the (s, t generalzed,(s, t Jacobsthal and (s, t Jacobsthal Lucas matr sequences, respectvely. The bnomal transforms of these matr sequences can be epressed as follows: The bnomal transform of the generalzed (s, t matr sequence s B n = =0 The bnomal transforms of (s, t Jacobsthal matr sequence s Ĵ n = J =0 The bnomal transforms of (s, t Jacobsthal Lucas matr sequence s Ĉ n = C =0 Lemma 2.1. For n 0, the followng equaltes are hold: B n+1 = n n ( + +1 =0 Ĵ n+1 = n =0 Ĉ n+1 = n =0 =1 (J + J +1 (C +C +1 Proof. Frstly, n here we wll just prove (, snce ( and ( can be proved ( by usng ( the same ( method.by ( usng the n + 1 n n n defnton of bnomal transform and the well-known bnomal equalty = + and = 0 t 1 n + 1 s obtaned that B n+1 = n+1 n + 1 =0 = 0 + n+1 [ n n + =1 1 = 0 + n+1 n + n n +1 = n =0 ( + +1 =0 whch s the desred result. Note that B n+1 s also wrtten as B n+1 = B n + n =0 +1 Theorem 2.1. For n 0, the sequences {B n }, { Ĵ n }, {Ĉn } are verfed the followng recurrence relatons a B n+2 = (s + 2B n+1 (s + 1 2tB n wth ntal condtons [ bs 2a B 0 = at (b as [ bs 2 + bs + 2at 2bs + 2a, B 1 = bst + at (b as + 2at

Sukran UYGUN / Int. J. Adv. Appl. Math. and Mech. 6(3 (2019 14 20 17 b Ĵ n+2 = (s + 2Ĵ n+1 (s + 1 tĵ n [ [ 1 0 s + 1 2 Ĵ 0 = andĵ 0 1 1 = t 1 c Ĉ n+2 = (s + 2Ĉ n+1 (s + 1 tĉ n [ [ s 4 s 2 + 4t 2s Ĉ 0 = andĉ 2t s 1 = st 4t Proof. have We only prove the frst case because the other cases can be proved wth the same way. From Lemma 2.1, we n =0 = 0 + 1 + n B n+1 = n ( + +1 n ( =1 + +1 = 0 + 1 + (s + 1 n =1 =1 + 2t n =1 1 ± (s + 1 0 From Defnton 2.1, t s obtaned that B n+1 = (s + 1B n + 2t 1 + 1 s 0 (4 puttng n 1 nstead of n n (4 we have B n = (s + 1B n 1 + 2t n 1 n 1 =1 1 + 1 s 0 = sb n 1 + n 1 n 1 =0 + 2t n 1 n 1 =1 1 + 1 s 0 = sb n 1 + n [ n 1 n 1 + 2t =1 1 1 + 1 s 0 = sb n 1 + n [ n 1 n 1 n 1 + 2t ± 2t =1 1 1 1 + 1 s 0 = sb n 1 + n [ n 1 n (1 2t + 2t =1 1 1 + 1 s 0 = (s + 1 2tB n 1 + 2t n n 1 + 1 s 0 =1 =1 From ths equalty we have 2t 1 + 1 s 0 = B n (s + 1 2tB n 1 By substtutng ths epresson n (4, we obtan B n+1 = (s + 2B n (s + 1 2tB n 1 (5 whch completes the proof. The characterstc equaton of the bnomal transforms of the generalzed(s, t matr sequence B n s λ 2 (s+2λ+ (s 2t + 1 = 0.The roots of ths equaton are λ 1 = s + 2 + s 2 + 8t, λ 2 = s + 2 s 2 + 8t 2 2 Bnet formula are well known n the specal nteger sequences theory. Bnetformula allows us to epress the nth term n functon of the roots of λ 1 andλ 2 of the characterstc equaton, assocated the recurrence relaton (5. So the Bnet formula for B n can be epressed as B n = X λ 1 n Y λ 2 n λ 1 λ 2 [ bs 2 λ 2 bs + 2at 2bs 2aλ 2 X = bst λ 2 at 2at λ 2 (b as (6 [ bs 2 λ 1 bs + 2at 2bs 2aλ 1 Y = bst λ 1 at 2at λ 1 (b as (7 By choosng correspondng values on a and b n (6 and (7, we can obtan the Bnet formula of Ĵ n and Ĉ n. Namely,

18 The bnomal transforms of the generalzed (s, t -Jacobsthal matr sequence a For a = b = 1; we get the Bnet formula for the bnomal transforms of (s, t Jacobsthal matr sequence as Ĵ n+1 = Aλ 1 n n Bλ 2 where λ 1 λ 2 [ s 2 [ λ 2 s + 2t 2(s λ 2 bs 2 λ 1 s + 2t 2(s λ 1 A =, B = t(s λ 2 2t t(s λ 1 2t b For a =2, b = 1; we get the Bnet formula for the bnomal transforms of (s, t Jacobsthal Lucas matr sequence as Ĉ n = Cλ 1 n n Dλ 2 where λ 1 λ 2 [ s 2 [ λ 2 s + 4t 2(s 2λ 2 bs 2 λ 1 s + 4t 2(s 2λ 1 C =, D =. t(s 2λ 2 4t sλ 2 t(s 2λ 1 4t sλ 1 Theorem 2.2. The generatng functons of the bnomal transforms of generalzed (s, t matr sequence, (s, t Jacobsthal matr sequence, (s, t Jacobsthal Lucas matr sequence are B n (s, t, = = n=0 [ 1 1 (s+2+(s+1 t 2 J n (s, t, = = n=0 C n (s, t, = = B n n = 0+[ 1 (s+1 0 1 (s+2+(s+1 t 2 bs + (2at bs 2(a + (bs as a t(a + (bs as a (b as + (2at s 2 (b a s(b a ĵ n+1 n = J 0+[J 1 (s+1j 0 1 (s+2+(s+1 t 2 [ 1 s + (2t s 2(1 1 (s+2+(s+1 t 2 t(1 2t n=0 ĉ n n = C 0+[C 1 (s+1c 0 1 (s+2+(s+1 t 2 [ 1 s + (4t s 2(2 (s + 2 1 (s+2+(s+1 t 2 t(2 (s + 2 s + (4t + s 2 s Proof. We just prove the case ( and the others wll be omtted. Let B n (s, t, be generatng functon for the bnomal transform of generalzed (s, t Jacobsthal matr sequence. Then, B n (s, t, = B 0 + B 1 +... + n B n +... (8 If we multply (s + 2and (s + t 1 2 ; wth the both sdes of the equalty (8 respectvely, we obtan (s + 2 B n (s, t, = (s + 2 B 0 + (s + 2 2 B 1 +... + (s + 2 n+1 B n +... (9 (s + 1 2t 2 B n (s, t, = (s + 1 2t 2 B 0 + (s + 1 2t 3 B 1 +... + (s + 1 2t n+2 B n +... (10 Consderng (8, (9, (10 we get the followng equalty B n (s, t, ( 1 (s + 2 + (s + 1 t 2 = B 0 + (B 1 (s + 2B 0 (11 Fnally, from Theorem 2.1, Defnton 2.1, and (11 we have the desred result. We can get the followng relatons between the generalzed (s; t- matr sequence, (s, t Jacobsthal and (s, t Jacobsthal Lucas matr sequences and the generatng functons of the bnomal transforms of these sequences, respectvely. Let r ( = 0+[ 1 s 0 be the ordnary generatng functon of the sequence { 1 s t 2 n } : By usng the transformaton of 1 f 1 we have the generatng functon of the bnomal transform sequence {Bn } n Theorem 2.2-(. Let j ( = J 0+[J 1 s J 0 be the ordnary generatng functon of the sequence {J 1 s t 2 n }: By usng the transformaton of 1 j 1 we have the generatng functon of the bnomal transform sequence {Jn }n Theorem 2.2-(.

Sukran UYGUN / Int. J. Adv. Appl. Math. and Mech. 6(3 (2019 14 20 19 Let c ( = C 0+[C 1 sc 0 be the ordnary generatng functon of the sequence {C 1 s t 2 n }: By usng the transformaton of 1 c 1 we have the generatng functon of the bnomal transform sequence{cn } n Theorem 2.2-(. Theorem 2.3. Let m, n N; then Ĵ m+n = Ĵ m Ĵ n. Proof. We use the nducton method. Let n = 0, then we get Ĵ m+0 = Ĵ m Ĵ 0 = Ĵ m I.Assume that Ĵ m+n = Ĵ m Ĵ n for n N. Then we obtan Ĵ m+n+1 = (s + 2Ĵ m+n (s + 1 tĵ m+n 1 = (s + 2Ĵ m Ĵ N (s + 1 tĵ m Ĵ N 1 = Ĵ m [ (s + 2 ĴN (s + 1 tĵ N 1 = Ĵ m Ĵ N+1 Theorem 2.4. Let n N, then n+1 = 1 J n J n+1 = J 1 J n C n+1 = C 1 J n Proof. The proof s easly obtaned by usng mathematcal nducton method. Theorem 2.5. The relatons among the transforms B n, Ĵ n and Ĉ n can be demonstrated by the followng equaltes: B n+1 B n = 1 Ĵ n Ĵ n+1 Ĵ n = J 1 Ĵ n Ĉ n+1 Ĉ n = C 1 Ĵ n Proof. By consderng Defnton 2.1, Lemma 2.1, we get B n+1 = n =0 By Theorem 2.4, B n+1 B n = n ( + +1 = B n + n =0 n +1 = =0 =0 +1. ( 1 J n = 1 Ĵ n Ths completes the proof of : The others are made by usng the same method. eferences [1 T. Koshy, Fbonacc and Lucas Numbers wth Applcatons, John Wleyand Sons Inc., NY (2001. [2 A. F. Horadam, Jacobsthal representaton numbers, The Fbonacc Quarterly.,34(1, (1996, 40-54. [3 S. Falcon and A. Plaza, The k-fbonacc sequence and the Pascal 2-trangle,Chaos, Soltons Fractals,33(2007, 38-49. [4 S. Falcon and A. Plaza, Bnomal Transforms of the k-fbonacc sequence,internatonal Journal of Nonlnear Scences and Numercal Smulaton,10(11-12 (2009, 1527-1538. [5 H. Cvcv,. Turkmen, On the (s, t Fbonacc and Fbonacc matr sequences, AS Combnatora, 87 (2008 161-173. [6 H. Cvcv,. Turkmen, Notes on the(s, t- Lucas and Lucas matr sequences, AS Combnatora, 89 (2008 271-285. [7 S. Uygun, The (s, t-jacobsthal and (s, t-jacobsthal Lucas sequences, Appled Mathematcal Scences, 70(9, (2015, 3467-3476.

20 The bnomal transforms of the generalzed (s, t -Jacobsthal matr sequence [8 K. Uslu, ÂÿS. Uygun, The (s, t-jacobsthal and (s, t-jacobsthal-lucas Matr sequences, AS Combnatora, 108, (2013 13-22. [9 H. Prodnger, Some nformaton about the bnomal transform, The Fbonacc Quarterly, 32(5, 1994, 412-415. [10 K. W. Chen, Identtes from the bnomal transform, Journal of NumberTheory, 124, 2007, 142-150. [11 Y. YazlÄśk, N. YÄślmaz, N. Taskara, The Generalzed (s, t-matr Sequences Bnomal Transforms, Gen. Math. Notes, 24(1,(2014,127-136. [12 N. YÄślmaz, N. Taskara, Bnomal transforms of the Padovan and Perrnnumbers, Journal of Abstract and Appled Mathematcs, (2013 ArtcleID941673. [13 S. Uygun, A. ErdoÄ du, Bnomnal transforms of k-jacobsthal sequences,journal of Mathematcal and Computatonal Scence, 7(6, (2017, 1100-1114. [14 N. Taskara, K. Uslu, H.H. Gulec, On the propertes of Lucas numbers wth bnomal coeffcents, Appled Mathematcs Letters, 23(1, (2010 68-72. Submt your manuscrpt to IJAAMM and beneft from: gorous peer revew Immedate publcaton on acceptance Open access: Artcles freely avalable onlne Hgh vsblty wthn the feld etanng the copyrght to your artcle Submt your net manuscrpt at edtor.jaamm@gmal.com