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  1. Home > Articles & Issues >
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  3. Strong Embeddings of ...
Article

Strong Embeddings of 3-Connected Cubic Planar Graphs on Surfaces of non-negative Euler Characteristic

Meike Weiß ORCID (1), Alice C. Niemeyer ORCID (1)
(1) RWTH Aachen University [RWTH]
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Submitted on
November 6, 2025
Accepted on
August 11, 2026
Published on
August 21, 2026
Last modified on
August 21, 2026
Volume 28
vol. 28:3
Graph Theory
DOI
10.46298/dmtcs.16872
License
Attribution 4.0 International (CC BY 4.0)
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155
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Strong Embeddings of 3-Connected Cubic Planar Graphs on Surfaces of non-negative Euler Characteristic

Meike Weiß ORCID (1), Alice C. Niemeyer ORCID (1)
(1) RWTH Aachen University [RWTH]
Abstract
Whitney proved that 3-connected planar graphs admit a unique embedding on the sphere. In contrast, Enami investigated embeddings of 3-connected cubic planar graphs on non-spherical surfaces with non-negative Euler characteristic. He established that such an embedding exists if and only if the dual graph contains a particular subgraph. Here, strong embeddings are investigated motivated by the cycle double cover conjecture and the relation to triangulated surfaces. We provide a complete characterization of strong embeddings on the projective plane, the torus, and the Klein bottle in terms of a distinguished subset of Enami's subgraphs. This characterization not only deepens the structural understanding of graph embeddings on non-spherical surfaces, but also establishes a robust foundation for computing cycle double covers. As a direct consequence, we derive explicit criteria that determine when a graph does not admit a strong embedding on these surfaces-offering new tools for both theoretical analysis and algorithmic applications.
Keywords
  • Combinatorics
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