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Published on: September 5, 2019
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Biased periodic Aztec diamond and an elliptic curve
Alexei Borodin1, Maurice Duits2
1Department of Mathematics, Massachusetts Institute of Technology, 77 Massachusetts Ave., Cambridge, MA 02139 USA.
Summary
We present a new formula for domino tilings of the Aztec diamond using a biased periodic weight. This allows calculation of local correlations in disordered regions, revealing an algebraic boundary curve.
Area of Science:
- Combinatorics
- Statistical Mechanics
- Algebraic Geometry
Background:
- Domino tilings are fundamental in statistical mechanics and combinatorics.
- The Aztec diamond model is a well-studied system with rich mathematical properties.
- Understanding correlations in disordered systems is a key challenge.
Purpose of the Study:
- To develop a novel mathematical framework for biased random domino tilings.
- To derive a double integral formula for the correlation kernel.
- To analyze local correlations in disordered regions of the tiling.
Main Methods:
- Associating a linear flow on an elliptic curve to the tiling model.
- Deriving a double integral formula for the correlation kernel using this flow.
- Employing saddle point analysis for periodic flow cases.
- Investigating a specific case with a period-six flow.
Main Results:
- A double integral formula for the correlation kernel is established.
- Local correlations in the smooth disordered region are computed.
- The boundary of the rough disordered region is identified as an algebraic curve of degree eight for a specific case.
Conclusions:
- The developed framework provides new insights into random domino tilings.
- The connection to elliptic curves offers a powerful tool for analysis.
- The study reveals specific geometric properties of disordered regions in these tilings.
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