IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.PRCNativeCostStructuralLedger
Structural ledger for the primitive recognition calculus: a cross-equivalence is read as equality of two displays, and a native cost jq is attached to real characters on ratio orbits. Supplies the closed form, nonnegativity, and zero-locus of jq used by gauge-orbit constructions. Mostly definitions and elementary algebraic certificates, not a deep existence proof.
claimA cross-equivalence is identified with equality of displays. On a ratio orbit one defines a native cost $j_q$ from a real character, with $j_q(1)=0$, $j_q\ge 0$, $j_q(x)=0\Leftrightarrow x=1$ (on the orbit), a closed form, and the usual sign/negation relations; cost-from-character is identified with $j_q$.
background
In the Primitive Recognition Calculus, recognition data is carried by displays and by real characters on multiplicative ratio orbits. The Recognition Science cost is the unique symmetric defect $J(x)=(x+x^{-1})/2-1$ forced by the composition law (T5); native costs on characters are meant to recover that shape on orbits.
This module sits on the minimality-certificate layer for PRC native cost. It treats a cross-equivalence not as an abstract relation but as equality of the two associated displays (crossDisp / dispCross), so ledger identities become ordinary equalities of displayed quantities.
The central object is jq: the cost pulled from a real character on a ratio orbit (jq_onRatioOrbit, costFromCharacter_jq). Sibling facts record the unit value, vanishing, closed form, nonnegativity, and sign behaviour needed downstream.
proof idea
Definition-and-certificate module rather than a single theorem. Cross-display maps turn equivalence into equality; jq is defined from the character and shown to match cost-from-character. The remaining lemmas are short algebraic checks: value at one, zero locus, closed expression, nonnegativity, and negation/sign rules on the orbit. No heavy analysis; the work is bookkeeping so later gauge-orbit arguments can quote a single native cost.
why it matters in Recognition Science
Gives Cost.GaugeOrbitFromRealCharacter a concrete structural ledger: cross-equivalences as display equalities and a native $j_q$ with the J-cost signature (nonnegative, zero only at the identity on the orbit). That is the bridge from PRC minimality certificates to gauge-orbit constructions in the cost layer, aligning character data with the forced $J$ of the T5 uniqueness step and the Recognition Composition Law. Without this ledger, orbit arguments would re-derive display equality and positivity ad hoc.
scope and limits
- Does not prove uniqueness of J globally; only sets up native jq on ratio orbits.
- Does not derive T5–T8 forcing; assumes the PRC/cost setting from imports.
- Does not construct gauge orbits; only supplies the ledger they import.
- Does not claim numerical constants (alpha band, masses); pure structural cost bookkeeping.
- Does not replace full minimality certificates; builds on that upstream module.
used by (1)
depends on (1)
declarations in this module (104)
-
theorem
crossDisp -
theorem
dispCross -
def
jq -
theorem
jq_onRatioOrbit -
theorem
costFromCharacter_jq -
theorem
jq_one -
theorem
jq_zero -
theorem
jq_closed -
theorem
jq_nonneg -
theorem
jq_lt_zero -
theorem
jq_eq_zero -
theorem
jq_neg -
theorem
jq_inv -
theorem
jq_mono -
theorem
jq_strictMono -
theorem
jq_le_reflect -
theorem
jq_rcl -
theorem
jq_two -
theorem
jq_eq_two_cases -
def
natOrbit -
theorem
natOrbit_toRat -
def
IsPosIntOrbit -
theorem
natOrbit_isPosInt -
theorem
two_isPosInt -
theorem
primeDirection_isPosInt -
def
PRCNativeCostSignReversing -
def
PRCNativeCostMonotone -
def
PRCNativeCostPositive -
theorem
canonicalSelectedNativeCost_jq -
theorem
canonicalSelectedNativeCost_signReversing -
theorem
canonicalSelectedNativeCost_monotone -
theorem
canonicalSelectedNativeCost_positive -
theorem
signReversing_forces_signed_unit -
structure
PRCSignReversingNativeCostHypotheses -
def
PRCSignReversingNativeCostUniquenessTarget -
theorem
PRCSignReversingNativeCostUniquenessTarget_proved -
theorem
canonicalSelectedNativeCost_signReversing_hypotheses -
theorem
signReversing_class_forces_slim -
theorem
absValueGeneratedNativeCost_not_signReversing -
lemma
exists_pow_gt_rat -
lemma
cut_pins_aux -
theorem
cut_pins -
structure
MonoMult -
theorem
pow -
theorem
pos -
theorem
ge_one -
theorem
transfer_le -
theorem
transfer_ge -
theorem
trivial_of_two_eq_one -
theorem
monoMult_gauge -
theorem
natCast_monoMult -
theorem
monotone_multiplicative_pins -
structure
PRCStructuralNativeCostHypotheses -
def
PRCStructuralNativeCostUniquenessTarget -
theorem
structural_character_calibrated_on_positive_integers -
theorem
PRCStructuralNativeCostUniquenessTarget_proved -
theorem
canonicalSelectedNativeCost_structural_hypotheses -
theorem
structural_forces_slim -
theorem
structural_forces_positive -
structure
PRCStructuralNativeCostHypothesesSansAnchor -
def
PRCStructuralSansAnchorUniquenessTarget -
theorem
structural_iff_sansAnchor_and_two_calibrated -
def
powerGeneratedNativeCost -
theorem
powerGeneratedNativeCost_toRat -
theorem
powerGeneratedNativeCost_base -
theorem
powerGeneratedNativeCost_monotone -
theorem
powerGeneratedNativeCost_zero_calibrated -
theorem
powerGeneratedNativeCost_signReversing -
def
oddPowerGeneratedNativeCost -
theorem
oddPowerGeneratedNativeCost_toRat -
theorem
oddPowerGeneratedNativeCost_sansAnchor -
theorem
oddPowerGeneratedNativeCost_anchor_injective -
def
cubeGeneratedNativeCost -
theorem
cubeGeneratedNativeCost_toRat -
theorem
cubeGeneratedNativeCost_sansAnchor -
theorem
oddPowerGeneratedNativeCost_zero -
theorem
cubeGeneratedNativeCost_two_not_canonical -
def
GaugeOrbitIsOddPowerFamily -
theorem
gauge_orbit_contains_every_odd_power -
theorem
PRCStructuralSansAnchorUniquenessTarget_refuted