First Advisor

Dr. Jeffery Ovall

Date of Award

Summer 8-2025

Document Type

Thesis

Degree Name

Bachelor of Science (B.S.) in Mathematics and University Honors

Department

Mathematics

Language

English

Subjects

Linear Algebra, Matrix R, Color Space, Primary Colors, Modelling, Colorimetry

Abstract

This thesis surveys the mathematical grounding of linear algebraic models of color. It aims to build from the ground up the framework by which additive color is broadly understood in the digital age. Primarily building on the work of Jozef Cohen, Eric Dubois, David H. Krantz, and Günter Wyszecki, it aims to chart the construction of a model of color that underpins most modern understandings of color. While the construction is certainly established in colorimetric circles, the construction is, in the thesis author’s opinion, either obtuse or non-rigorous. Ideally, this thesis serves to make the construction accessible to an audience with a background in linear algebra. Secondary goals of this thesis include dispelling misconceptions around the role of primary colors and highlighting potential extensions to the standard linear algebraic model to encourage further research.

The construction of the linear algebraic model begins by defining spectral power distribution and color spaces as commutative semi-groups [(𝒫,+) and (𝒞,⊕)] which can be embedded in vector spaces (𝒜 and 𝒬). Some properties of these vector spaces are then discussed, before moving onto using discrete approximations to implement a linear transformation between the spaces. Finally, Cohen’s Matrix 𝐑 technique is used to rigorously define representatives for color sensation equivalency classes (the suite of all color sensations that look like the same color).

Available for download on Sunday, February 08, 2026

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