IndisputableMonolith.Mathematics.ComplexNumbers
Mathematics.ComplexNumbers supplies the complex-number infrastructure for the eight phases of the recognition tick cycle. Researchers modeling the eight-tick octave cite it when phase rotations or roots of unity appear. The module proceeds through successive definitions and lemmas that first introduce tickPhase, then demonstrate the necessity of complex structure over the reals.
claimThe eight phases of the tick cycle are the eighth roots of unity in $\mathbb{C}$, represented by the map tickPhase that assigns to each phase index $k$ the value $\exp(2\pi i k/8)$.
background
The module imports Mathlib for complex arithmetic and IndisputableMonolith.Constants, whose sole documented object is the fundamental RS time quantum: "The fundamental RS time quantum (RS-native). $\tau_0 = 1$ tick."
It therefore works in the setting where time is discrete in ticks and the cycle length is fixed at eight ticks. The sibling declarations introduce tickPhase, show that the phases are roots of unity and equally spaced, prove that the reals admit no nontrivial rotation, and establish that complex numbers are required for phases, quantum mechanics, and Fourier transforms.
proof idea
This is a definition module, no proofs. It consists of a chain of definitions (tickPhase, phasor) followed by lemmas that successively rule out real-only models and affirm the complex representation needed for the eight-phase cycle.
why it matters in Recognition Science
The module supplies the phase machinery required by the eight-tick octave (T7) in the forcing chain. It directly supports the sibling results on quantum mechanics and Fourier analysis that appear later in the same file; those results in turn feed higher-level statements about the recognition cycle.
scope and limits
- Does not derive the eight-tick period from prior axioms.
- Does not compute explicit numerical values for any phase.
- Does not connect phases to mass formulas or coupling constants.
- Does not treat spatial dimensions or the full forcing chain.
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