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On the Quadratic Phase Quaternion Domain Fourier Transform and on the Clifford algebra of $R^{3,1}$

Sadataka Furui

Abstract

We study application of the Clifford algebra and the Grassmann algebra to image recognitions in $(3+1)D$ using quaternions. Following S.L.Adler, we construct a quaternion-valued wave function model with fermions and bosons of equal degrees of freedom, similar to Cartan's supersymmetric model. The Clifford algebra ${\mathcal A}_{3,1}$ is compared with ${\mathcal A}_{2,1}$ and the model applied to the $(2+1)D$ non-destructive testing is extended. The fixed point lattice actions are calculated for 7 paths in $(3+1)D$ space with lengths less than or equal to 8 lattice units. Comparison with the quaternion time approach of Ariel, quaternion Fourier transform of Hitzer and the tensor renormalization group approach to classical lattice models are also discussed.

On the Quadratic Phase Quaternion Domain Fourier Transform and on the Clifford algebra of $R^{3,1}$

Abstract

We study application of the Clifford algebra and the Grassmann algebra to image recognitions in using quaternions. Following S.L.Adler, we construct a quaternion-valued wave function model with fermions and bosons of equal degrees of freedom, similar to Cartan's supersymmetric model. The Clifford algebra is compared with and the model applied to the non-destructive testing is extended. The fixed point lattice actions are calculated for 7 paths in space with lengths less than or equal to 8 lattice units. Comparison with the quaternion time approach of Ariel, quaternion Fourier transform of Hitzer and the tensor renormalization group approach to classical lattice models are also discussed.
Paper Structure (18 sections, 75 equations, 12 figures)

This paper contains 18 sections, 75 equations, 12 figures.

Figures (12)

  • Figure 1: L19. The upper right corner ball is $e_2e_4$, the lower right corner one is $-e_2e_4$
  • Figure 2: L20. The upper right corner ball is $e_2e_4$, the lower left corner one is $-e_2e_4$
  • Figure 3: L21. The upper right corner ball is $e_1e_4/e_2e_4$, the lower left corner one is $-e_3e_4$.
  • Figure 4: L22. The upper right corner ball is $e_1e_4/e_2e_4$, the lower left corner one is $-e_3e_4$.
  • Figure 5: L23. The upper right corner ball is $e_1e_4$, the upper left corner one is $-e_2e_4$.
  • ...and 7 more figures