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Sublattice-selective percolation on bipartite planar lattices
Jonas Wattendorff1, Stefan Wessel1
1Institute for Theoretical Solid State Physics, RWTH Aachen University, JARA Fundamentals of Future Information Technology, and JARA Center for Simulation and Data Science, 52056 Aachen, Germany.
Sublattice-selective percolation on bipartite lattices exhibits distinct phase diagrams. This study confirms it shares universality classes with conventional percolation, validated across lattices.
Area of Science:
- Statistical Physics
- Condensed Matter Physics
- Network Science
Background:
- Conventional site percolation uses uniform site occupation probabilities.
- Bipartite lattices require distinct probabilities for each sublattice, defining sublattice-selective percolation.
Purpose of the Study:
- Determine the phase diagram for sublattice-selective percolation on 2D square and Lieb lattices.
- Investigate the universality class of sublattice-selective percolation.
- Analyze critical exponents at the percolation transition.
Main Methods:
- Adapted Newman-Ziff algorithm for phase diagram determination.
- Analysis of critical exponents at the percolation transition.
- Exact solution for sublattice-selective percolation on the Bethe lattice.
Main Results:
- The phase diagram for sublattice-selective percolation on 2D square and Lieb lattices was quantified.
- Critical exponents confirm sublattice-selective percolation belongs to the same universality class as conventional site percolation.
- Exact solution on the Bethe lattice further supports this conclusion.
Conclusions:
- Sublattice-selective percolation shares universality with conventional site percolation across different lattice types.
- The adapted Newman-Ziff algorithm effectively characterizes percolation on bipartite lattices.
- Findings contribute to understanding phase transitions in disordered systems.
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