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lemma proved term proof high

cLagLock_pos

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The positivity of the locked lag constant defined as the golden ratio raised to the power of negative five is established. Researchers deriving RS-native constants such as the reduced Planck constant cite this result to confirm that derived quantities remain positive. The proof is a direct term-mode reduction that invokes the positivity of the golden ratio and the preservation of positivity under real exponentiation.

claimThe locked lag constant satisfies $0 < C_{lock}$ where $C_{lock} = phi^{-5}$ and $phi$ is the golden ratio.

background

The Constants module works in RS-native units where the fundamental time quantum tau_0 equals one tick. The locked lag constant is introduced as the canonical value phi to the power of negative five. Upstream results include the definition of cost for recognition events as the J-cost and the derived cost for multiplicative recognizers, both of which presuppose non-negative quantities in the recognition framework.

proof idea

The proof asserts positivity of phi from the phi_pos lemma, unfolds the definition of the locked lag constant, and applies the real-analysis fact that a positive base to any real power remains positive.

why it matters in Recognition Science

This result is invoked directly by E_coh_pos and by hbar_pos, the latter stating that hbar equals phi^{-5} in RS-native units and corresponding to theorem C-004.1. It anchors the framework where hbar = phi^{-5}, c = 1, and G = phi^5 / pi, supporting the forcing chain from T5 J-uniqueness through the eight-tick octave to D = 3 spatial dimensions.

scope and limits

Lean usage

lemma hbar_pos : 0 < hbar := mul_pos cLagLock_pos tau0_pos

formal statement (Lean)

 243lemma cLagLock_pos : 0 < cLagLock := by

proof body

Term-mode proof.

 244  have hphi : 0 < phi := phi_pos
 245  unfold cLagLock
 246  exact Real.rpow_pos_of_pos hphi (-(5 : ℝ))
 247
 248/-- The elementary ledger bit cost J_bit = ln φ. -/

used by (2)

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depends on (3)

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