Algebraic description of external and internal attributes of fundamental fermions
Ikuo S. Sogami

TL;DR
This paper develops an algebraic framework using triplet algebra to describe the external and internal attributes of fundamental fermions, providing a new interpretation of Yukawa interactions and mass matrices.
Contribution
It introduces a novel algebraic formalism with triplet fields that unifies external and internal fermion attributes and offers a new perspective on mass generation mechanisms.
Findings
The formalism reproduces quark mass and mixing data accurately.
It provides a natural interpretation of Yukawa coupling constants.
The approach suggests a new Dirac mass matrix structure compatible with experiments.
Abstract
To describe external and internal attributes of fundamental fermions, a theory of multi-spinor fields is developed on an algebra, a {\it triplet algebra}, which consists of all the triple-direct-products of Dirac \gamma-matrices. The triplet algebra is decomposed into the product of two subalgebras, an external algebra and an internal algebra, which are exclusively related with external and internal characteristic of the multi-spinor field named {\it triplet fields}. All elements of the external algebra which is isomorphic to the original Dirac algebra are invariant under the action of permutation group which works to exchange the order of the elements in the triple-direct-product. The internal algebra is decomposed into the product of two dimensional algebras, called the family and color algebras, which describe the family and color degrees of freedom.…
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