IndisputableMonolith.Constants.RSNativeUnits
RSNativeUnits establishes the native unit system for Recognition Science, defining time in ticks with τ₀ equal to one tick and c set to 1, along with derived dimensions. Calibration adapters and neutrino mass derivations cite it to keep all calculations in RS-native form before any external conversion. The module consists of a collection of sibling definitions for Time, Length, Velocity, Energy, Action, Mass, Frequency, Momentum, Charge, tick, voxel, and c, importing core constants and display kernels with no theorems.
claimIn RS-native units the fundamental time quantum satisfies $τ_0 = 1$ tick with $c = 1$, length measured in voxels, and all other quantities (energy, mass, momentum, charge, frequency, action) derived directly from these without external numerals.
background
Recognition Science runs all theory in a native unit system anchored on the tick as the indivisible time quantum. The upstream Constants module states that τ₀ = 1 tick is the fundamental RS time quantum. KDisplayCore supplies the clock-side display relation τ_rec(display) = (2π · τ₀) / (8 ln φ). This module collects the basic dimensional definitions (Time, Length, Velocity, Energy, Action, Mass, Frequency, Momentum, Charge) together with the primitives tick, voxel, and c.
proof idea
This is a definition module, no proofs. It organizes content as a flat collection of sibling definitions, each importing the necessary constants from Constants and KDisplayCore without any theorem statements or tactics.
why it matters in Recognition Science
The module supplies the unit foundation required by downstream calibration adapters in Measurement.RSNative.Calibration.SI and SingleAnchor, which convert RS-native results to SI only through explicit external records. It also supports Physics.NeutrinoSector for neutrino mass derivations on the deep ladder. It implements the native units consistent with the T0-T8 forcing chain and the Recognition Composition Law.
scope and limits
- Does not introduce any SI conversion factors or CODATA numerals.
- Does not derive mass ladders, rung assignments, or neutrino scales.
- Does not contain theorems, proofs, or tactic scripts.
- Does not depend on external measurement data or fit parameters.
used by (3)
depends on (3)
declarations in this module (64)
-
abbrev
Time -
abbrev
Length -
abbrev
Velocity -
abbrev
Energy -
abbrev
Action -
abbrev
Mass -
abbrev
Frequency -
abbrev
Momentum -
abbrev
Charge -
def
tick -
def
voxel -
def
c -
def
U -
lemma
U_tau0 -
lemma
U_ell0 -
lemma
U_c -
def
cohQuantum -
def
energy_raw -
def
hbarQuantum -
def
action_raw -
lemma
hbarQuantum_eq_Ecoh -
def
massQuantum -
def
mass_raw -
def
freqQuantum -
def
freq_raw -
def
momentumQuantum -
def
momentum_raw -
lemma
momentumQuantum_eq_cohQuantum -
def
phiRung -
def
scaleByPhi -
lemma
phiRung_pos -
lemma
phiRung_zero -
lemma
phiRung_one -
lemma
phiRung_neg_one -
lemma
phiRung_add -
lemma
phiRung_neg -
def
octavePeriod -
def
breathCycle -
def
ticksToOctaves -
def
octavePhase -
def
gap45 -
def
syncPeriod -
lemma
syncPeriod_eq_lcm -
def
tau_rec -
def
lambda_kin -
theorem
tau_rec_eq_K_gate_ratio -
theorem
lambda_kin_eq_K_gate_ratio -
def
planckTime_rs -
def
planckLength_rs -
def
planckMass_rs -
def
planckEnergy_rs -
def
alphaInv_rs -
def
K_rs -
def
E_coh_rs -
lemma
E_coh_rs_eq_E_coh -
structure
ExternalCalibration -
def
to_seconds -
def
to_meters -
def
to_m_per_s -
def
to_joules -
def
to_kg -
def
to_hertz -
theorem
c_in_si -
def
status