若干凸多胞体图的容错度量维数
Fault-Tolerant Metric Dimension of Some Convex Polytope Graphs
DOI: 10.12677/aam.2024.1311460, PDF,    国家自然科学基金支持
作者: 宣高闵*, 康 娜#:河北地质大学数理教学部,河北 石家庄
关键词: 度量维数容错度量维数凸多胞体图Metric Dimension Fault-Tolerant Metric Dimension Convex Polytope Graphs
摘要: 图的容错度量维数的概念是由Hernand等人于2008年提出的,它是度量维数的一个新变形,也是图论和组合优化交叉研究的内容,在机器导航、医药化学、组合优化和图像处理等领域有着广泛的应用。由于图的容错度量维数比其度量维数有更好的适应性,所以图的容错度量维数的研究越来越受到人们的关注。对于给定的图和正整数k确定该图的容错度量维数是否不超过k是NP-难的。本文通过构作凸多胞体图 B n C n E n 的容错解析集,得到了当 n6 时凸多胞体图 B n C n E n 的容错度量维数都为4。这些成果在图论和组合优化中具有重要的理论价值,并在网络电信和图像处理等方面有重要应用。
Abstract: The concept of fault-tolerant metric dimension of a graph was introduced by Hernand et al. in 2008. It is a distortion of the metric dimension of a graph and is the intersection of graph theory and combinatorial optimization. It has been widely used in many fields, such as machine navigation, medicinal chemistry, combinatorial optimization and image processing. The study of fault-tolerant metric dimension of a graph gets more and more attention from people, since it has better adaptability than the metric dimension of a graph. For a given graph and a positive integer k, deciding whether its fault-tolerant metric dimension is less than or equal to k is an NP-complete problem. In this paper, by constructing the fault-tolerant resolving sets of convex polytope graphs B n , C n and E n , respectively, we obtain their fault-tolerant metric dimensions are all 4 for n6 . These results have theoretical value in graph theory and combinatorial optimization and have important applications in network telecommunications, image processing, etc.
文章引用:宣高闵, 康娜. 若干凸多胞体图的容错度量维数[J]. 应用数学进展, 2024, 13(11): 4781-4792. https://doi.org/10.12677/aam.2024.1311460

参考文献

[1] Blumenthal, L.M. (1953) Theory and Applications of Distance Geometry. The Mathematical Gazette, 38, 216-217.
[2] Slater, P.J. (1975) Leaves of Trees. Congressus Numerantium, 14, 549-559.
[3] Khuller, S., Raghavachari, B. and Rosenfeld, A. (1996) Landmarks in Graphs. Discrete Applied Mathematics, 70, 217-229. [Google Scholar] [CrossRef
[4] Chartrand, G., Eroh, L., Johnson, M.A. and Oellermann, O.R. (2000) Resolvability in Graphs and the Metric Dimension of a Graph. Discrete Applied Mathematics, 105, 99-113. [Google Scholar] [CrossRef
[5] Sebő, A. and Tannier, E. (2004) On Metric Generators of Graphs. Mathematics of Operations Research, 29, 383-393. [Google Scholar] [CrossRef
[6] Melter, R.A. and Tomescu, I. (1984) Metric Bases in Digital Geometry. Computer Vision, Graphics, and Image Processing, 25, 113-121. [Google Scholar] [CrossRef
[7] Hernando, C., Mora, M., Slater, P.J., et al. (2008) Fault-Tolerant Metric Dimension of Graphs. Convexity in Discrete Structures, 5, 81-85.
[8] Raza, H., Hayat, S. and Pan, X. (2018) On the Fault-Tolerant Metric Dimension of Certain Interconnection Networks. Journal of Applied Mathematics and Computing, 60, 517-535. [Google Scholar] [CrossRef
[9] Koam, A.N.A., Ahmad, A., Abdelhag, M.E. and Azeem, M. (2021) Metric and Fault-Tolerant Metric Dimension of Hollow Coronoid. IEEE Access, 9, 81527-81534. [Google Scholar] [CrossRef
[10] Sharma, S.K. and Bhat, V.K. (2021) Fault-Tolerant Metric Dimension of Two-Fold Heptagonal-Nonagonal Circular Ladder. Discrete Mathematics, Algorithms and Applications, 14, Article ID: 2150132. [Google Scholar] [CrossRef
[11] Hamilton, D.L., Walker, I.D. and Bennett, J.K. (1996) Fault Tolerance versus Performance Metrics for Robot Systems. Reliability Engineering & System Safety, 53, 309-318. [Google Scholar] [CrossRef
[12] Chaudhry, M.A., Javaid, I. and Salman, M. (2010) Fault-Tolerant Metric and Partition Dimension of Graphs. Utilitas Mathematica, 83, 187-199.
[13] Imran, M., Bokhary, S.A.U.H. and Baig, A.Q. (2016) On the Metric Dimension of Rotationally-Symmetric Convex Polytopes. Journal of Algebra Combinatorics Discrete Structures and Applications, 3, 45-59. [Google Scholar] [CrossRef