Guest wrote:FYI:
"In the intersection of number theory and quantum physics, prime numbers act as the "periodic orbits" (closed loops) of a hypothetical chaotic physical system. This connection is a cornerstone of the Hilbert-Pólya conjecture, which suggests that the distribution of prime numbers is governed by the same laws as the energy levels of a quantum system."
Source Link: https://share.google/aimode/DRenpFGlYWtLiVfT7
Hmm. Some Google links are temporal. Why?
"The connection between prime numbers and quantum physics, specifically the Hilbert-Pólya conjecture, suggests that the distribution of prime numbers is not random, but rather governed by the spectral laws of a physical system. In this framework, prime numbers are interpreted as the periodic orbits (or closed loops) of a chaotic classical dynamical system.
The Hilbert-Pólya Conjecture in Context
Core Idea: The non-trivial zeros of the Riemann zeta function, which strictly control the distribution of prime numbers, correspond to the eigenvalues (energy levels) of a physical Hamiltonian operator.
The Physical Link: For this operator to be a physical system, it must be Hermitian (or self-adjoint), ensuring that its energy levels are real numbers. If this holds, it proves the Riemann Hypothesis—that all non-trivial zeros lie on the "critical line."
Periodic Orbits: In semiclassical quantum chaos, the density of states is related to the periodic orbits of the corresponding classical system via the Gutzwiller trace formula. In this context, the logarithms of prime numbers act as the lengths of these periodic orbits.
Supporting Evidence for the Connection
Random Matrix Theory: The spacing of the imaginary parts of the Riemann zeros (the energy levels) matches the statistical pattern of eigenvalues in chaotic quantum systems, specifically the Gaussian Unitary Ensemble (GUE).
Berry-Keating Conjecture: Mathematicians Michael Berry and Jonathan Keating have identified that the classical counterpart of a quantum operator that yields the zeta zeros should be based on the classical Hamiltonian.
Scattering Systems:
Research has shown that the resonances of chaotic systems, such as the scattering of particles by an Artin dynamical system (the geodesic flow on a modular curve), are directly related to the zeros of the zeta function.
Implications:
This intersection, often called quantum chaology, suggests that prime numbers are the "energy levels" of a fundamental physical system that has not yet been fully identified. The "music of the primes" refers to the periodic patterns that emerge when analysing the fluctuations in prime distribution using these Zeta zeros as notes." -- Google's AI Overview