Table of Contents
In 1991 Pearson, calculated the exact partition function for the 4x4x4 Ising model. Plotting Pearson’s results against my own. I also managed to calculate this using my program, the results are compared
This page displays my results against R.B Pearsons.
A study of the boundary conditions. The left column of results are my original ones. The right column is trivial palindromes of the polynomials found.
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Fig 1: Periodic boundary conditions in the two short direction
A study of the boundary conditions. The left column of results are my original ones. The right column is trivial palindromes of the polynomials found.
Below are zero distributions for the 3 x 4 x 10 Potts lattice model with Q = 4. This is for the purpose of taking a closer look at boundary conditions. The dimesions are height x width x depth
Fig 1: No Boundary conditions | Fig 2: Periodic Boundary conditions in dimesions along the width and height |
Fig 3: Periodic Boundary conditions in dimensions along the width only. | Fig 4: Periodic Boundary conditions in dimensions along the height only. |
Below are zero distributions for the 3 x 3 x 10 Potts lattice model with Q = 5. This is for the purpose of taking a closer look at boundary conditions. The dimesions are height x width x depth
Fig 1: No Boundary conditions | Fig 2: Periodic Boundary conditions in dimesions along the width and height |
Fig 3: Periodic Boundary conditions in dimensions along the width only. | Fig 4: Periodic Boundary conditions in dimensions along the height only. |
On this page we take a closer look at the “pinch” of the two outer arms of zeros on the real axis. A plot of the anti-ferromagnetic zeros of a 5x5x10 lattice with q=2 is shown below. The parametric graph f(x(t), y(t)) = acos(t)(1+cos(t+k)) + b, csin(t)(1+cos(t+k))+d is also plotted. Where a, b, c, d and k are real value constants.
The figure below is a closer look at the top right arm.
Below are animations of all the 2 state zero distributions found.
Animation 1: No boundary conditions | Animation 2: Boundary condition in both directions |
Animation 3: Boundary Conditions only connecting the rows | Animation 4: Boundary Conditions only connecting the columns |