IndisputableMonolith.Mathematics.ComplexNumbers
The module supplies the complex number framework for representing the eight phases of the recognition tick cycle. Researchers deriving the discrete time structure from the unified forcing chain would cite these constructions. It proceeds through definitions of phases as roots of unity, lemmas showing real numbers are insufficient, and extensions to phasors and Fourier transforms.
claimThe eight phases of the tick cycle are the eighth roots of unity in the complex plane, satisfying $z^8 = 1$ with the fundamental tick quantum satisfying $τ_0 = 1$.
background
The module imports the fundamental RS time quantum $τ_0 = 1$ tick from Constants. It introduces tickPhase as the complex representation of phases in the cycle and related constructions such as roots of unity and phasors. The local theoretical setting is the mathematics of rotations and oscillations required once the forcing chain reaches the eight-tick octave.
proof idea
This is a definition module containing a sequence of definitions and supporting lemmas. It begins with the phase definition, establishes the roots-of-unity property, proves that real numbers cannot encode the required rotations, and extends the constructions to quantum and Fourier applications.
why it matters in Recognition Science
The module supplies the phase machinery that realizes T7 (eight-tick octave) in the forcing chain. It directly enables downstream constructions such as the Schrödinger equation and Fourier transforms that rely on complex phases within the Recognition Science framework.
scope and limits
- Does not derive any step of the forcing chain T0-T8.
- Does not compute values of physical constants such as alpha or G.
- Does not address spatial dimensions or the mass ladder.
- Does not treat Berry creation or Z_cf thresholds.
depends on (1)
declarations in this module (21)
-
def
tickPhase -
theorem
tick_phases_roots_of_unity -
theorem
tick_phases_equally_spaced -
theorem
reals_no_rotation -
theorem
complex_rotation -
theorem
phases_require_complex_k1 -
theorem
phases_require_complex_k2 -
theorem
phases_require_complex -
theorem
quantum_requires_complex -
def
schrodingerEquation -
def
phasor -
theorem
fourier_uses_complex -
theorem
complex_inevitable -
theorem
euler_formula -
theorem
quaternions_not_needed -
theorem
split_complex_insufficient -
theorem
complex_is_unique -
theorem
complex_from_ledger -
def
predictions -
structure
ComplexFalsifier -
def
experimentalStatus