IndisputableMonolith.Foundation.LedgerForcing
Defines the double-entry recognition ledger and the cost functional J on positive reals, together with reciprocity and balanced-list structure. Foundation modules that force phi, D = 3, and recognition cite this as the ledger substrate. The module packages definitions and elementary identities rather than a single deep theorem.
claimThe recognition ledger is a double-entry structure of recognition events with reciprocal pairs. Cost is $J(x)=\frac{1}{2}(x+x^{-1})-1$ on $x>0$, with $J(x)=J(x^{-1})$ and event cost derived from $J$. A list of events is balanced when debits and credits cancel under reciprocity.
background
Recognition Science builds physics from a cost landscape rather than from postulated fields. The cost $J(x)=\frac{1}{2}(x+x^{-1})-1$ (equivalently $\cosh(\log x)-1$) is the unique functional fixed by the Recognition Composition Law and the forcing chain (T5). It has a unique minimum at $x=1$ and is symmetric under $x\mapsto x^{-1}$.
Upstream, Cost supplies the analytic $J$; LawOfExistence equates existence with vanishing defect; DiscretenessForcing records that the convex bowl $J(e^t)=\cosh t-1$ forces discrete structure away from the continuum minimum. This module turns those ingredients into ledger primitives: recognition events, reciprocal maps, event cost, reciprocity, balanced lists, and the Ledger type itself.
Sibling names in the module are the working vocabulary: $J$ and its symmetry lemmas, reciprocal with injectivity and involution facts, event_cost, reciprocity, balanced_list, and Ledger.
proof idea
Definition-and-identity module, not a single end-to-end theorem. It introduces $J$, proves elementary symmetry $J(x)=J(x^{-1})$ and ratio forms, defines recognition events and the reciprocal involution with basic equational lemmas, then packages event cost, reciprocity, balanced lists, and the Ledger carrier. Heavier forcing (discreteness, phi, dimension) lives downstream and only imports this substrate.
why it matters in Recognition Science
LedgerForcing is the shared foundation import for the forcing stack. PhiForcing uses the discrete ledger with $J$-cost to force $\varphi$ by self-similarity (T6). DimensionForcing takes the ledger structure into the $D=3$ arguments (T8). RecognitionForcing derives recognition structure from the cost foundation; QuantumLedger ties ledger entries to quantum states; NineParities formalizes the nine $\mathbb{Z}_2$ parities of the double-entry ledger under tick reversal and conjugation.
InevitabilityStructure and TMinus1ToT8Bridge also import it, placing the ledger at the choke points of the MP-to-cost relocation and the bridge across the T-chain. Without a precise ledger and $J$, later uniqueness and forcing claims have no carrier.
scope and limits
- Does not prove uniqueness of J; that is T5 / upstream Cost and forcing chain material.
- Does not force phi, eight-tick period, or D = 3; those are PhiForcing, octave, and DimensionForcing.
- Does not construct quantum states or the nine parities; only supplies ledger primitives they import.
- Does not assert physical units or measured constants; stays in RS-native ledger language.
- Does not discharge Law of Existence or discreteness theorems; it consumes those modules as imports.
used by (9)
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IndisputableMonolith.Foundation.DimensionForcing -
IndisputableMonolith.Foundation.InevitabilityStructure -
IndisputableMonolith.Foundation.NineParities -
IndisputableMonolith.Foundation.PhiForcing -
IndisputableMonolith.Foundation.QuantumLedger -
IndisputableMonolith.Foundation.RecognitionForcing -
IndisputableMonolith.Foundation.Reference -
IndisputableMonolith.Foundation.TMinus1ToT8Bridge -
IndisputableMonolith.Foundation.UnifiedForcingChain
depends on (3)
declarations in this module (29)
-
def
J -
theorem
J_symmetric -
theorem
J_symmetric_ratio -
structure
RecognitionEvent -
def
reciprocal -
theorem
reciprocal_reciprocal -
theorem
reciprocal_eq_iff -
theorem
reciprocal_inj -
def
event_cost -
theorem
reciprocity -
def
balanced_list -
structure
Ledger -
def
ledger_cost -
def
balanced -
theorem
ledger_balanced -
def
net_flow -
def
empty_ledger -
theorem
empty_ledger_balanced -
theorem
empty_ledger_cost -
theorem
empty_ledger_net_flow -
theorem
log_reciprocal_cancel -
theorem
paired_log_sum_zero -
def
flow_contribution -
theorem
flow_contribution_reciprocal -
theorem
conservation_from_balance -
theorem
add_event_balanced_list -
def
add_event -
theorem
add_event_balanced -
theorem
ledger_forcing_principle