Abstract:In this paper, we are going to define λ-statistical supremum and λ-statistical infimum for real valued sequencex = (xn) n∈N by considering λ-statistical upper and lower bounds, respectively. After giving some basic properties of these new notations, then we will give a necessary and sufficient condition for to existance of λ-statistical convergence of the real valued sequence.
“…In this section, weighted analogue of statistical upper and statistical lower bound, introduced and studied in [2,3], will be given by considering g density.…”
Section: Some Definitions and Main Resultsmentioning
In this paper, by using weight g-statistical density we introduce weight g-statistical supremum-infimum
for real valued sequences. We also define weight g-statistical limit supremum-infimum with the help of above new
concepts. In addition, we shall establish some results about weight g-statistical core.
“…In this section, weighted analogue of statistical upper and statistical lower bound, introduced and studied in [2,3], will be given by considering g density.…”
Section: Some Definitions and Main Resultsmentioning
In this paper, by using weight g-statistical density we introduce weight g-statistical supremum-infimum
for real valued sequences. We also define weight g-statistical limit supremum-infimum with the help of above new
concepts. In addition, we shall establish some results about weight g-statistical core.
“…Let ε > 0 be an arbitrary number. Let n 0 ∈ N be such that 1 n 0 < ε. Then for all x ∈ x 0 , 1 n 0 we have…”
Section: µ-Stat Limitmentioning
confidence: 99%
“…The second direction treated these kinds of convergence in various mathematical structures (see [1][2][3][4][5][6]12,13,[22][23][24]27,28,31,39,41]). In [26,34,36], the statistical convergence was generalized for double sequences, and the properties of this convergence were studied.…”
In this work, the concept of a point $\mu$-statistical density is defined. Basing on this notion, the concept of $\mu$-statistical limit, generated by some Borel measure $\mu\left(\cdot \right)$, is defined at a point. We also introduce the concept of $\mu$-statistical fundamentality at a point, and prove its equivalence to the concept of $\mu$-stat convergence. The classification of discontinuity points is transferred to this case. The appropriate space of $\mu$-stat continuous functions on the segment with sup-norm is defined. It is proved that this space is a Banach space and the relationship between this space and the spaces of continuous and Lebesgue summable functions is considered.
“…Later on, statistical convergence was further investigated and worked from the sequence space point of view by Fridy [24,25], Šalát [34], Tripathy [37,38], Connor [16], and many others [3,4,5,6,26].…”
In the present article, we set forth with the new notion of rough A—statistical convergence in the gradual normed linear spaces. We produce significant results that present several fundamental properties of this notion. We also introduce the notion of Arst(G)—limit set and prove that it is convex, gradually closed, and plays an important role for the gradually A—statistical boundedness of a sequence.
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