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Random hyperbolic graphs in d+1 dimensions
Gabriel Budel1, Maksim Kitsak1, Rodrigo Aldecoa2,3
1Faculty of Electrical Engineering, Mathematics and Computer Science, <a href="https://ror.org/02e2c7k09">Delft University of Technology</a>, 2628 CD, Delft, the Netherlands.
We unified random hyperbolic graph models across dimensions using parameter rescaling. This preserves degree distribution but shows clustering decreases with higher dimensions.
Area of Science:
- Graph Theory
- Hyperbolic Geometry
- Network Science
Background:
- Random hyperbolic graphs are a significant model in network science.
- Understanding their properties across different dimensions is crucial for theoretical and applied research.
Purpose of the Study:
- To develop a unified framework for random hyperbolic graphs in any dimension.
- To analyze the impact of dimensionality on graph properties like degree distribution and clustering.
- To provide a computational tool for generating and analyzing these graphs.
Main Methods:
- Introduced a rescaling of model parameters for a unified mathematical framework.
- Analyzed the degree distribution and clustering coefficients.
- Investigated other limiting regimes of the random hyperbolic graph model.
- Developed and released a software package.
Main Results:
- The degree distribution of random hyperbolic graphs is invariant to the dimension of the hyperbolic space.
- Clustering in these graphs is dimension-dependent, tending to zero as dimension increases (d→∞).
- All limiting regimes of the model were analyzed.
Conclusions:
- A dimension-independent framework for random hyperbolic graphs is established.
- Dimensionality significantly influences graph clustering but not degree distribution.
- The released software facilitates further research in this area.
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