IndisputableMonolith.Foundation.OntologyPredicates
The module defines the operational notion of existence in Recognition Science as positive configurations that minimize J-cost to zero defect. Researchers in foundational physics and modal ontology cite it when deriving being from cost selection. It assembles this predicate by importing and combining results from discreteness forcing and the law of existence.
claimA configuration $x$ exists in the Recognition Science sense if and only if $x > 0$ and the defect of $x$ under the J-cost function is zero.
background
Recognition Science starts from the J-cost $J(x) = ½(x + x^{-1}) - 1$, whose unique minimum at $x=1$ forces discrete structure as detailed in the DiscretenessForcing module. The LawOfExistence module establishes that existence corresponds exactly to vanishing defect. PhiForcing adds self-similarity constraints that select the golden ratio. This module collects these elements into predicates for existence and stability.
proof idea
This module is primarily definitional. It imports the Cost, LawOfExistence, DiscretenessForcing, and PhiForcing modules to introduce the existence predicate and auxiliary notions such as stabilization and truth predicates. The argument structure relies on the upstream forcing chains without adding new derivations.
why it matters in Recognition Science
It supplies the existence predicate that downstream modules use to resolve Gödel self-reference in GodelDissolution and to derive logical consistency from cost in LogicFromCost. It also underpins the initial condition analysis and modal ontology questions. This realizes the selection mechanism from the T5 J-uniqueness and T6 phi fixed point in the unified forcing chain.
scope and limits
- Does not identify specific zero-defect configurations beyond the general predicate.
- Does not prove the uniqueness or existence of such configurations.
- Does not extend to continuous or quantum regimes.
- Does not compute numerical values for constants like alpha or G.
used by (4)
depends on (4)
declarations in this module (46)
-
def
RSExists -
theorem
rs_exists_iff_law_exists -
theorem
rs_exists_iff_defect_zero -
theorem
rs_exists_unique_one -
theorem
rs_exists_one -
theorem
rs_exists_unique -
theorem
nothing_unbounded_defect -
theorem
nothing_not_rs_exists -
structure
CostBridge -
def
Stabilizes -
def
RSExists_cfg -
def
RSTrue -
def
RSDecidable -
theorem
rs_true_neg_imp_neg_rs_true -
theorem
rs_true_neg_iff_neg_rs_true -
theorem
rs_true_and -
def
RSTrue_classical -
theorem
rs_true_classical_iff -
def
RSReal -
theorem
rs_real_one -
theorem
mp_physical -
theorem
mp_forces_existence -
structure
GodelDissolution -
def
godel_dissolution -
theorem
godel_not_obstruction -
theorem
ontology_summary -
theorem
rs_true_or_of_left -
theorem
rs_true_or_of_right -
theorem
rs_true_or_intro -
theorem
rs_true_or_iff -
structure
RecognitionBridge -
def
RSReal_gen -
def
RSReal_synth -
theorem
RSReal_gen_at_one -
theorem
RSReal_gen_iff -
theorem
RSReal_synth_iff -
def
phi_ladder -
theorem
one_mem_phi_ladder -
theorem
RSReal_gen_phi_one -
theorem
Jcost_val_2 -
theorem
Jcost_val_4 -
theorem
Jcost_val_5 -
theorem
Jcost_val_6 -
theorem
Jcost_val_8 -
theorem
Jcost_val_half -
theorem
Jcost_val_three_halves