Fractal Systems of Central Places Based on Intermittency of Space-filling
arXiv:1105.0589 · doi:10.1016/j.chaos.2011.05.016
Abstract
The central place models are fundamentally important in theoretical geography and city planning theory. The texture and structure of central place networks have been demonstrated to be self-similar in both theoretical and empirical studies. However, the underlying rationale of central place fractals in the real world has not yet been revealed so far. This paper is devoted to illustrating the mechanisms by which the fractal patterns can be generated from central place systems. The structural dimension of the traditional central place models is d=2 indicating no intermittency in the spatial distribution of human settlements. This dimension value is inconsistent with empirical observations. Substituting the complete space filling with the incomplete space filling, we can obtain central place models with fractional dimension D<d=2 indicative of spatial intermittency. Thus the conventional central place models are converted into fractal central place models. If we further integrate the chance factors into the improved central place fractals, the theory will be able to well explain the real patterns of urban places. As empirical analyses, the US cities and towns are employed to verify the fractal-based models of central places.
30 pages, 8 figures, 5 tables
References in corpus (1)
Cited by in corpus (9)
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- Fractal Texture and Structure of Central Place Systems
- The spatial meaning of Pareto's scaling exponent of city-size distribution
- Spatial Dynamics of Urban Growth Based on Entropy and Fractal Dimension
- Demonstration of Duality of Fractal Gravity Models by Scaling Symmetry