A lightweight cryptographic algorithm incorporating path coloring of cartesian product of graphs

Labeling or coloring the vertices of a graph is called vertex labeling or coloring. The [Formula: see text]path coloring of a graph is one on which vertices at distances [Formula: see text] and 3 on a path are labeled with a minimum label difference of [Formula: see text] and 1 respectively and one such path exists between all pairs of vertices. The [Formula: see text] connection number, [Formula: see text], is the minimum value of the greatest integer used in any viable [Formula: see text] path coloring of the graph. Finding the [Formula: see text] of a graph is highly non-trivial and the primary objective of this work is to determine the [Formula: see text] for the Cartesian product of any two graphs. An efficient and computationally simpler cryptographic algorithm is developed by using these concepts in cryptography. This work aims to implement this cryptographic algorithm to support devices with constrained storage and energy capacities. With these ideas, the article attempts to improve the scope of application of graph labeling in cryptographic algorithms. Progressing further, the work evaluates parameters such as key strength, key randomness and security of the encryption algorithm through four statistical tests conducted at a high level of confidence. The tests proved that the proposed method is best suited for applications requiring shorter but stronger keys, compared to the existing graph labeling methods, which are algorithmically complex.

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Publication Details

Journal
Scientific Reports
Published
2025-11-29
DOI
https://doi.org/10.1038/s41598-025-29101-3
Primary Topic
Graph Labeling and Dimension Problems
Type
article
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article

A lightweight cryptographic algorithm incorporating path coloring of cartesian product of graphs

Yuqing Lin, P Shivapriya, K. N. Meera
Scientific Reports
Graph Labeling and Dimension Problems
article

A lightweight cryptographic algorithm incorporating path coloring of cartesian product of graphs

Yuqing Lin, P Shivapriya, K. N. Meera
article en

Abstract

Labeling or coloring the vertices of a graph is called vertex labeling or coloring. The [Formula: see text]path coloring of a graph is one on which vertices at distances [Formula: see text] and 3 on a path are labeled with a minimum label difference of [Formula: see text] and 1 respectively and one such path exists between all pairs of vertices. The [Formula: see text] connection number, [Formula: see text], is the minimum value of the greatest integer used in any viable [Formula: see text] path coloring of the graph. Finding the [Formula: see text] of a graph is highly non-trivial and the primary objective of this work is to determine the [Formula: see text] for the Cartesian product of any two graphs. An efficient and computationally simpler cryptographic algorithm is developed by using these concepts in cryptography. This work aims to implement this cryptographic algorithm to support devices with constrained storage and energy capacities. With these ideas, the article attempts to improve the scope of application of graph labeling in cryptographic algorithms. Progressing further, the work evaluates parameters such as key strength, key randomness and security of the encryption algorithm through four statistical tests conducted at a high level of confidence. The tests proved that the proposed method is best suited for applications requiring shorter but stronger keys, compared to the existing graph labeling methods, which are algorithmically complex.

Scientific ReportsVol. 16(1)
Jimei University (CN), University of Newcastle Australia (AU), Amrita Vishwa Vidyapeetham (IN)
Openalex Percentile: Top 63%
Graph Labeling and Dimension Problems
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A lightweight cryptographic algorithm incorporating path coloring of cartesian product of graphs — Yuqing Lin, P Shivapriya, et al. · Scientific Reports (2025) | TGRS Research Map | TGRS