IndisputableMonolith.Foundation.InitialCondition
The InitialCondition module defines Configuration as a finite tuple of positive real ratios that serve as ledger entries. Cosmologists deriving early-universe conditions and foundational researchers building variational dynamics cite this object when initializing the Recognition ledger from the Law of Existence. The module contains only type and constant definitions with no theorems.
claimA configuration is an $N$-tuple $C = (r_1, r_2, ..., r_N)$ where each $r_i > 0$ is a ledger-entry ratio.
background
This module belongs to the Foundation layer and imports the J-cost structure, the Law of Existence (x exists iff defect(x) = 0), and the ontology predicates that reduce existence and truth to cost-minimization outcomes under the unique J function. It supplies the basic ledger object used by all downstream foundation modules. The supplied doc-comment states that a configuration consists of N ledger entries, each a positive real ratio.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
The module supplies the initial ledger object required by EarlyUniverse (EU-001 on t=0 conditions and dark sector), StillnessGenerative (ground-state instability from zero defect), TopologicalConservation, VariationalDynamics, and WindingCharges. It closes the gap between the abstract Law of Existence and concrete starting states for the forcing chain.
scope and limits
- Does not assign a specific value to N.
- Does not prove non-negativity or minimality properties of total_defect.
- Does not reference the phi-ladder or J-uniqueness.
- Does not derive any dynamical update rule.
used by (5)
depends on (3)
declarations in this module (12)
-
structure
Configuration -
def
total_defect -
theorem
total_defect_nonneg -
def
unity_config -
theorem
unity_defect_zero -
theorem
zero_defect_iff_unity -
theorem
unity_is_global_minimum -
theorem
unity_unique_minimizer -
def
entropy -
theorem
initial_state_minimum_entropy -
theorem
nonunity_positive_entropy -
theorem
past_theorem