Lucas Tipi $alpha$. Dereceden İstatistiksel Yakınsaklık

Bu çalışmada, Lucas sayıları yardımıyla yeni bir regüler matris ve yeni bir dizi uzayı oluşturuyoruz. Ayrıca, Lucas matrisinin terimleriyle elde edilen Lucas dizisini kullanarak $alpha$. dereceden istatistiksel yakınsaklık kavramını inceliyoruz. Bununla birlikte, bu iki kavramla ilgili bazı topolojik özellikler ve kapsama bağıntıları veriyoruz.Anahtar kelimeler: Lucas dizisi, Lucas sayıları, İstatistiksel yakınsaklık, Dizi uzayı.

Lucas Type Statistical Convergence of Order $alpha$

The main goal of the article is to establish a new regular matrix and new sequence space with the help of Lucas numbers. Also, we examine statistical convergence of order $alpha$ and its some properties by using Lucas sequence which is obtained from the terms of Lucas matrix. Also, we give some topological properties and inclusion relations about these two concepts.Keywords: Lucas sequence, Lucas numbers, Statistical Convergence, Sequence space.

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  • [1] Vajda S. 1989. Fibonacci and Lucas Numbers, and the Golden Section: Theory and Applications. Dover Publications Inc., New York, 1-190.
  • [2] Kalman D., Mena R. 2003. The Fibonacci Numbers: Exposed. Mathematics Magazine, 76 (3): 167-181.
  • [3] Candan M., Kara E.E. 2015. A Study on Topological and Geometrical Characteristics of new Banach Sequence Spaces. Gulf Journal of Mathematics, 3 (4): 67-84.
  • [4] Kılınç G., Candan M. 2017. Some Generalized Fibonacci Difference Spaces Defined by a Sequence of Modulus Functions. Facta Universitatis, Series: Mathematics and Informatics, 32 (1): 95-116.
  • [5] Candan M., Kılınç G. 2015. A Different Look for Paranormed Riesz Sequence Space Derived by Fibonacci Matrix. Konuralp Journal of Mathematics, 3 (2): 62-76.
  • [6] Kara E.E. 2013. Some Topological and Geometrical Properties of New Banach Sequence Spaces. Journal of Inequalities and Applications, 2013:38, 1-15.
  • [7] Kara E.E., Başarır M. 2012. An Application of Fibonacci Numbers into Infinite Toeplitz Matrices. Caspian Journal of Mathematics Sciences, 1 (1): 1-6.
  • [8] Karakaş M. 2015. A New Regular Matrix Defined by Fibonacci Numbers and Its Applications. BEU Journal of Science, 4 (2): 205-210.
  • [9] Karakaş M., Karakaş A.M. 2018. A Study on Lucas Difference Sequence Spaces $l_p(Ê(r,s))$ and $l_p(Ê(r,s))$. Maejo International Journal of Science and Technology, 12 (1): 70-78.
  • [10] Karakaş M., Akbaş T., Karakaş A.M. 2019. On the Lucas Difference Sequence Spaces Defined by Modulus Function. Applications and Applied Mathematics, 14 (1): 235-244.
  • [11] Candan M. 2014. A New Sequence Space Isomorphic to the Space $l_p$ and Compact Operators. Journal of Mathematical and Computational Science, 4 (2): 306-334.
  • [12] Candan M. 2014. Some New Sequence Spaces Derived from the Spaces of Bounded, Convergent and Null Sequences. International Journal of Modern Mathematical Sciences, 12 (2): 74-87.
  • [13] Candan M. 2015. A New Approach on the Spaces of Generalized Fibonacci Difference Null and Convergent Sequences. Mathematica Aeterna, 5 (1): 191-210.
  • [14] Candan M. 2014. Domain of the Double Sequential Band matrix in the Spaces of Convergent and Null Sequences. Advances in Difference Equations, 2014: 163, 1-18.
  • [15] Candan M. 2015. Vector Valued Orlicz Sequence Space Generalized with an Infinite Matrix and Some of Its Specific Characteristics. General Mathematics Notes, 29 (2): 1-16.
  • [16] Fast H. 1951. Sur La Convergence Statistique. Colloquium Mathematicum, 2: 241-244.
  • [17] Steinhaus H. 1951. Sur la Convergence Ordinaire et La Convergence Asymptotique. Colloquium Mathematicum, 2: 73–74.
  • [18] Fridy J.A. 1985. On Statistical Convergence. Analysis, 5: 301-313.
  • [19] Connor J.S. 1988. The Statistical and Strong p-Cesàro Convergence of Sequences. Analysis, 8: 47–63.
  • [20] Çınar M., Karakaş M., Et M. 2013. On Pointwise and Uniform Statistical Convergence of Order $alpha$ for Sequences of Functions. Fixed Point Theory and Applications, 2013:33, 1-11.
  • [21] Et M., Tripathy B.C., Dutta A.J. 2014. On Pointwise Statistical Convergence of Order $alpha$ of Sequences of Fuzzy Mappings. Kuwait Journal of Science, 41 (3): 17-30
  • [22] Et M., Çolak R., Altın Y. 2014. Strongly Almost Summable Sequences of Order $alpha$. Kuwait Journal of Science, 41 (2): 35-47.
  • [23] Işık M., Akbaş K.E. 2017. On $lambda$ Statistical Convergence of order in Probability. Journal of Inequalities and Special Functions, 8 (4): 57–64.
  • [24] Mohiuddine S.A., Alotaibi A., Mursaleen M. 2013. Statistical Convergence Through De La Vallee-Poussin Mean in Locally Solid Riesz Spaces. Advances in Difference Equations, 2013:66, 1-10.
  • [25] Mursaleen M. 2000. $lambda$- Statistical Convergence. Mathematica Slovaca, 50 (1): 111-115.
  • [26] Salat T. 1980. On Statistically Convergent Sequences of Real Numbers. Mathematica Slovaca, 30 (2): 139-150.
  • [27] Srivastava H.M., Et M. 2017. Lacunary Statistical Convergence and Strongly Lacunary Summable Functions of Order $alpha$. Filomat, 31 (6): 1573-1582.
  • [28] Çolak R., Bektaş Ç.A. 2011. $lambda$ Statistical Convergence of Order $alpha$. Acta Mathematica Scientia, 31 (3): 953-959.
  • [29] Gadjiev A.D., Orhan C. 2002. Some Approximation Theorems via Statistical Convergence. Rocky Mountain Journal of Mathematics, 32 (1): 129-138.
  • [30] Çolak R. 2010. Statistical Convergence of Order $alpha$. Modern Methods in Analysis and Its Applications, Edited by Mursaleen M., Anamaya Publishers, New Delhi, India, 121-129.
  • [31] Başar F. 2011. Summability Theory and Its Applications. Bentham Science Publishers, İstanbul, 1-402.
  • [32] Wilansky A. 2000. Summability Through Functional Analysis. Elseiver Science Publishers, Amsterdam, 1-317.
Bitlis Eren Üniversitesi Fen Bilimleri Dergisi-Cover
  • Yayın Aralığı: Yılda 4 Sayı
  • Başlangıç: 2012
  • Yayıncı: Bitlis Eren Üniversitesi Rektörlüğü