Abstract:Recently, S-metric spaces are introduced as a generalization of metric spaces. In this paper, we consider the relationships between of an S-metric space and a metric space, and give an example of an S-metric which does not generate a metric. Then, we introduce new contractive mappings on S-metric spaces and investigate relationships among them by counterexamples. In addition, we obtain new fixed point theorems on S-metric spaces.
“…We call the function S q defined in Lemma 2.3 (1) as the S-metric generated by the metric q: It can be found an example of an S-metric which is not generated by any metric in [4,9]. Now we give the following theorem.…”
Section: Lemma 23 [4]mentioning
confidence: 95%
“…Example 2.11 Let R be the complete S-metric space with the S-metric defined in Example 1 given in [9]. Let us define the self-mapping T : R !…”
Section: Lemma 23 [4]mentioning
confidence: 99%
“…On the other hand some generalizations of the wellknown Ć irić's and Nemytskii-Edelstein fixed-point theorems obtained on S-metric spaces via some new fixed point results (see [8,9,13,14] for more details).…”
Section: Introductionmentioning
confidence: 98%
“…Some fixed-point theorems have been given for selfmappings satisfying various contractive conditions on an Smetric space (see [4,6,8,9,13,14]). One of the important results among these studies is the Banach's contraction principle on a complete S-metric space.…”
An S-metric space is a three-dimensional generalization of a metric space. In this paper our aim is to examine some fixed-point theorems using new contractive conditions of integral type on a complete S-metric space. We give some illustrative examples to verify the obtained results. Our findings generalize some fixed-point results on a complete metric space and on a complete S-metric space. An application to the Fredholm integral equation is also obtained.
“…We call the function S q defined in Lemma 2.3 (1) as the S-metric generated by the metric q: It can be found an example of an S-metric which is not generated by any metric in [4,9]. Now we give the following theorem.…”
Section: Lemma 23 [4]mentioning
confidence: 95%
“…Example 2.11 Let R be the complete S-metric space with the S-metric defined in Example 1 given in [9]. Let us define the self-mapping T : R !…”
Section: Lemma 23 [4]mentioning
confidence: 99%
“…On the other hand some generalizations of the wellknown Ć irić's and Nemytskii-Edelstein fixed-point theorems obtained on S-metric spaces via some new fixed point results (see [8,9,13,14] for more details).…”
Section: Introductionmentioning
confidence: 98%
“…Some fixed-point theorems have been given for selfmappings satisfying various contractive conditions on an Smetric space (see [4,6,8,9,13,14]). One of the important results among these studies is the Banach's contraction principle on a complete S-metric space.…”
An S-metric space is a three-dimensional generalization of a metric space. In this paper our aim is to examine some fixed-point theorems using new contractive conditions of integral type on a complete S-metric space. We give some illustrative examples to verify the obtained results. Our findings generalize some fixed-point results on a complete metric space and on a complete S-metric space. An application to the Fredholm integral equation is also obtained.
“…In the literature, there exist some examples of S-metric which is not generated by any metric (see [8] and [9] for more details). Therefore, it is important to study new fixedpoint theorems on S-metric spaces.…”
Section: S U V W = If and Only If U V W = = (S2) ( ) ( ) ( mentioning
Recently, some generalized metric spaces have been studied to obtain new fixed-point theorems. For example, the notion of S-metric space was introduced for this
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