IndisputableMonolith.CPM.LawOfExistence
Bundles the coercive projection method (CPM) constants and the elementary defect-energy inequalities that turn a cost gap into a quantitative existence lower bound. Physicists working on ILG, mass ladders, or the T0–T8 forcing chain cite it for the shared (K_net, C_proj, C_eng, c_min) package. The module is mostly definitions plus short comparison lemmas; no deep uniqueness argument lives here.
claimPackage of CPM constants $(K_{\mathrm{net}}, C_{\mathrm{proj}}, C_{\mathrm{eng}})$ with $c_{\min}=1/(K_{\mathrm{net}} C_{\mathrm{proj}} C_{\mathrm{eng}})>0$, together with the model inequalities $\mathrm{defect}\le C\cdot\mathrm{energyGap}$ and $\mathrm{energyGap}\ge c_{\min}\cdot\mathrm{defect}$, and the cone specialization $K_{\mathrm{net}}=1$, $C_{\mathrm{proj}}=2$.
background
CPM (coercive projection method) is the quantitative layer that sits on the Recognition cost $J$. After the cost foundation fixes $J(x)=(x+x^{-1})/2-1$ on $\mathbb{R}_+$, one still needs constants that convert an abstract defect (distance to a constraint set or orthocomplement) into an energy gap measured by $J$. This module is the abstract bundle of those constants.
It imports the Cost library and exposes a Constants record, the derived coercivity floor $c_{\min}$, positivity of $c_{\min}$, and a Model interface that packages the comparison lemmas defect ≤ constants · energyGap and the reverse energyGap ≥ c_min · defect. A cone specialization records the RS-native values $K_{\mathrm{net}}=1$ and $C_{\mathrm{proj}}=2$ used by the projection certificates downstream.
Notation is deliberately domain-agnostic: the same constant package is later instantiated for ILG gravity, CPT cores, and the verification certificates that prove the constants are computed rather than assumed.
proof idea
Definition module with short comparison lemmas, not a deep proof development. Constants and Model are structure/record bundles. c_min is the reciprocal product $1/(K_{\mathrm{net}} C_{\mathrm{proj}} C_{\mathrm{eng}})$; cmin_pos is immediate positivity from positive factors. The defect/energyGap lemmas are one-line rearrangements of the Model inequalities. Cone lemmas simply plug in the RS values $K_{\mathrm{net}}=1$, $C_{\mathrm{proj}}=2$ and discharge the resulting equalities by rfl or norm_num-style arithmetic.
why it matters in Recognition Science
This is the shared constant spine for the whole CPM stack. CostUniqueness (T5 J-uniqueness) and UnifiedForcingChain (T0–T8 from the cost foundation) import it so the forcing chain can quote a single c_min package. Downstream verification certificates CminDerivationCert, CprojDerivationCert, and KnetDerivationCert prove the numerical values are derived from J-normalization rather than postulated; CPMBridge.Initiality uses the cone values $(K_{\mathrm{net}},C_{\mathrm{proj}})=(1,2)$ as the unique RS witness. ILG.CPMInstance and CPT.Core instantiate the same Model for gravity and discrete CPT cores. Without this bundle every certificate would redefine the constant algebra ad hoc.
scope and limits
- Does not prove uniqueness of J; that lives in CostUniqueness (T5).
- Does not derive numerical values of K_net or C_proj; certificates do that.
- Does not instantiate ILG or CPT dynamics; only the abstract constant interface.
- Does not claim c_min is experimentally measured; it is a derived coercivity floor.
- Does not address the eight-tick octave or D=3; those are T7–T8 elsewhere.
used by (8)
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IndisputableMonolith.CostUniqueness -
IndisputableMonolith.Foundation.UnifiedForcingChain -
IndisputableMonolith.ILG.CPMInstance -
IndisputableMonolith.Verification.CminDerivationCert -
IndisputableMonolith.Verification.CPMBridge.Initiality -
IndisputableMonolith.Verification.CprojDerivationCert -
IndisputableMonolith.Verification.CPT.Core -
IndisputableMonolith.Verification.KnetDerivationCert
depends on (1)
declarations in this module (29)
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structure
Constants -
def
cmin -
lemma
cmin_pos -
structure
Model -
theorem
defect_le_constants_mul_energyGap -
theorem
energyGap_ge_cmin_mul_defect -
theorem
defect_le_constants_mul_tests -
lemma
defect_le_ortho_of_Knet_one_Cproj_one -
lemma
defect_eq_ortho_of_subspace_case -
def
coneConstants -
lemma
cone_Knet_eq_one -
lemma
cone_Cproj_eq_two -
lemma
cone_Ceng_eq_one -
lemma
cone_Cdisp_eq_one -
lemma
Jcost_log_second_deriv_normalized -
theorem
cproj_eq_two_from_J_normalization -
theorem
cproj_from_J_second_deriv -
theorem
knet_from_cone_projection -
def
knet_from_covering -
theorem
knet_eight_tick -
def
knet_eight_tick_refined -
theorem
knet_eight_tick_refined_value -
def
eightTickConstants -
theorem
c_value_eight_tick -
theorem
c_value_derivation -
theorem
c_value_cone -
structure
CPMConstantsRecord -
def
rsConeRecord -
def
eightTickRecord