Redefining gluons in realtime

Background

Google AI is a default artificial intelligence platform built into their search platform. Other definitions will be included. At the time of this writing, the scientific community has not embraced the 202.34+ notations the inscribe the universe from Planck Time to the current time and we believe that understanding of the universe will change the definition of gluons.

Those notations are being studied here: https://81018.com/base-2-map/

Google AI

Gluons are massless elementary particles that act as force carriers for the strong nuclear force, binding quarks together to form protons and neutrons (hadrons). They carry “color charge” (a quantum property, not visual color) and interact with each other, leading to quark confinement, and come in eight types, mediated by the theory of Quantum Chromodynamics (QCD). Gluons are central to the structure of atomic nuclei, holding matter together with the most powerful fundamental force in nature.

Key Properties & Role

  • Force Carrier: Like photons for electromagnetism, gluons “glue” quarks together via the strong force, which is much stronger than gravity or electromagnetism.
  • Color Charge: Gluons carry a combination of color and anti-color (e.g., red-antigreen).
  • Massless & Spin 1: They have no mass and possess a spin of 1, classifying them as vector bosons.
  • Self-Interaction: Gluons interact with each other, a unique feature that limits the range of the strong force, confining quarks within hadrons.
  • Eight Types: There are eight distinct types of gluons, corresponding to different color-anticolor combinations. 

Discovery & Study

Particle Colliders: Studied at facilities like the Large Hadron Collider (LHC), often by observing jets of particles resulting from high-energy collisions, as direct detection is difficult.

Theory & Evidence: First theorized in the 1960s, evidence emerged in the late 1960s, with direct observation in 1979.