路与圈笛卡尔积的自标识码
Self-Identifying Codes in Cartesian Products of Paths and Cycles
DOI: 10.12677/aam.2025.1410452, PDF,    科研立项经费支持
作者: 陈 璐*, 单章纬, 周俞佑:温州大学数理学院,浙江 温州
关键词: 自标识码;线性规划;网格图;柱面网格图;环面图;Self-Identifying Code; Linear Programming; Grid Graph; Cylindrical Grid Graph; Torus Graph
摘要: 令 G=( V,E ) 为图, V 为顶点集合, E 为边集合。若子集 C⊆V( G ) 满足:对任意 u∈V( G ) , N[ u ]∩C≠∅ 且 ∩ c∈N[ u ]∩C N[ c ] ={ u } ,则 C 称为 G 的自识别码。本文通过分而治之法和构造法,给出网格图( P n □ P m )、柱面网格图( P n □ C m )和环面图( C n □ C m )的自标识码数界的刻画,其中 □ 表示图的笛卡尔积。这些图类在传感器网络故障诊断中有重要应用。
Abstract: Let G=( V,E ) be a graph, where V is the vertex set and E is the edge set. A subset C⊆V( G ) is called a self-identifying code of G if for every vertex u∈V( G ) , N[ u ]∩C≠∅ , and ∩ c∈N[ u ]∩C N[ c ] ={ u } . This paper uses divide-and-conquer methods and constructive approaches to characterize the bounds on the size of self-identifying codes in grid graphs ( P n □ P m ), cylindrical grid graphs ( P n □ C m ), and torus graphs ( C n □ C m ), where □ denotes the cartesian product of graphs. These graph classes have important applications in fault diagnosis of sensor networks.
文章引用:陈璐, 单章纬, 周俞佑. 路与圈笛卡尔积的自标识码[J]. 应用数学进展, 2025, 14(10): 412-419. https://doi.org/10.12677/aam.2025.1410452

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