CERN

Experiment Proposal: Probing the Geometric Structure of Protons with Polarized Proton-Proton Collisions

Introduction:

Tetryonic theory proposes that protons, like all particles, are composed of fundamental building blocks called "tetrons" arranged in specific geometric configurations. This theory predicts that the internal structure of the proton is not uniform and exhibits distinct geometric features. This experiment aims to test this prediction by analyzing the scattering patterns of polarized proton-proton collisions at the Large Hadron Collider (LHC).

Hypothesis:

If tetryonic theory is correct, the scattering patterns of polarized proton-proton collisions should exhibit asymmetries and anisotropies that reflect the underlying geometric structure of the proton. These asymmetries would not be predicted by the Standard Model of particle physics, which assumes a more homogeneous internal structure for the proton.

Experimental Setup:

 * Polarized Proton Beams: Utilize the polarized proton beams at the LHC, which allow for controlling the spin orientation of the colliding protons.

 * High-Energy Collisions: Conduct proton-proton collisions at the highest possible energies to probe the internal structure of the proton at the smallest scales.

 * Precise Detectors: Employ the highly precise detectors at the LHC, such as ATLAS or CMS, to measure the momentum and direction of the particles produced in the collisions.

Methodology:

 * Vary Polarization: Conduct a series of collisions with different combinations of proton spin orientations (e.g., both protons spin up, both spin down, one up and one down).

 * Measure Scattering Asymmetries: Analyze the scattering patterns of the produced particles, focusing on any asymmetries or anisotropies that depend on the initial spin orientations of the protons.

 * Map Angular Distributions: Create detailed maps of the angular distributions of the scattered particles for each spin configuration.

 * Statistical Analysis: Perform rigorous statistical analysis to determine the significance of any observed asymmetries and to rule out random fluctuations.

Expected Outcomes:

 * Confirmation of Tetryonic Theory: If significant asymmetries are observed that correlate with the proton spin orientations, it would provide strong evidence for the geometric structure predicted by tetryonic theory.

 * New Insights into Proton Structure: Even if the specific predictions of tetryonic theory are not confirmed, the experiment could reveal new details about the internal structure of the proton, potentially challenging the Standard Model and leading to new physics.

Benefits:

 * Test of Fundamental Theory: This experiment provides a direct test of a fundamental theory that challenges the prevailing paradigm in particle physics.

 * Potential for Discovery: The experiment has the potential to uncover new physics beyond the Standard Model, leading to a deeper understanding of the universe at the most fundamental level.

 * Synergy with Existing Infrastructure: The experiment leverages the existing infrastructure and expertise at CERN, maximizing the scientific return on investment.

Conclusion:

This proposed experiment offers a unique opportunity to probe the internal structure of the proton with unprecedented precision and to test the predictions of tetryonic theory. The results could have profound implications for our understanding of the fundamental building blocks of matter and the nature of the universe.