The Information Mass of Color
Year: 2026
Type: preprint
Abstract: Applying information physics to color, and the quantum interface programming reveals the information-energy mass of the graviton, gluon, and photon alongside a complete information mass mapping of the visible color spectrum. Every photon carries energy, and by mass-energy equivalence, every photon carries mass. The Infoton equation m(T) = k_B Tln(2)/c², combined with the photon mass identity m = h/(cλ), places every color of visible light, the graviton, and the gluon at precise coordinates on the Infoton Thermodynamic Identity line, log₁₀(T) − log₁₀(m) = 39.97273266. This constant is derived solely from first principles kB, c, and ln(2) and is not a fitted parameter; the equation is validated here against the full visible color spectrum, the retinal photoreceptor absorption peaks, and the gauge boson sector of the Standard Model. At the cosmic microwave background temperature of 2.725 K, a red photon at 700 nm carries approximately 10,882 bits of information mass and a violet photon at 400 nm carries approximately 19,043 bits. At the solar surface temperature of 5,778 K, these correspond to 5.1 and 9.0 bits respectively. Each color reaches unity at a characteristic temperature ranging from 29,653 K for red to 51,893 K for violet. This range coincides with stellar photosphere conditions and with the peak of the solar emission spectrum, suggesting that human color vision has evolved to operate at the single-bit threshold of the dominant photon source in the terrestrial environment. The retinal absorption peaks of rod and cone photoreceptors are computed as mass coordinates on the Identity line and connected to the mitochondrial membrane energy budget, establishing a thermodynamic account of the energy cost of biological color vision. The graviton is found on the Identity line at m = 1.381 × 10⁻⁵⁸ kg from the Particle Data Group Compton wavelength lower bound, 22 decades below the visible photon range. The gluon is located using the QCD confinement length of approximately 10⁻¹⁵ meters as the wavelength input to the same scalar identity, placing it within the hadronic mass range. Every diffraction grating is reinterpreted as a direct mass measurement instrument: the identity m = h/(cd sin θ) transforms any measured diffraction angle into an information-energy mass coordinate on the Identity line, making explicit what unit conversion alone does not, that wavelength, mass, temperature, and information content are coordinates of a single geometric object, not separate quantities connected by analogy. These results update the Infoton Quantum Model of Standard Particles. The spectroscope, retina, particles, color, and the gravitational field are measurements of different regions of the same Identity line.
Author: Walker, January
Language: English
Subfield: Atomic and Molecular Physics, and Optics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7159646644