Multi-Scale Node Ranking in Fuzzy Graphs under Edge Uncertainty
Abstract
Node ranking in a fuzzy graph should distinguish immediate interaction strength, global accessibility, influential neighbors, and uncertainty in elicited edge memberships. A multi-scale fuzzy node-ranking score is introduced for this purpose. The construction combines normalized fuzzy degree, max–min accessibility, neighborhood support, and an explicit reliability discount. Unlike a direct weighted sum, the geometric local–global core prevents a node from compensating an almost absent local or global component by a single large component. Automorphism invariance, boundedness, parameter monotonicity, and perturbation stability are established. A sufficient rank-stability condition is obtained: two nodes retain their order whenever their score gap exceeds the sum of their perturbation radii. A seven-node communication network is calculated in full. The example shows a stable leading pair, a genuine crossover produced by the local–global preference parameter, and the effect of uncertainty widths on rank confidence. The analysis identifies the structural reason for each ranking change.
Keywords:
Fuzzy graph, Node ranking, Max–min connectivity, Perturbation stability, Centrality, Sensitivity analysisReferences
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