IndisputableMonolith.Information.PhysicsComplexityStructure
The module PhysicsComplexityStructure defines the J-cost function and proves its non-negativity as theorem IC-005.1 within the Recognition Science information domain. Researchers deriving complexity bounds from RS would cite it for foundational cost properties. The lemmas follow from algebraic identities imported from the Cost module and the computation-limits structure.
claim$J(x) = (x + x^{-1})/2 - 1$ satisfies $J(x) > 0$ for $x > 0$, $x ≠ 1$, with equality only at the fixed point $x = 1$.
background
The module sits in the Information domain and imports Constants (τ₀ = 1 tick), Cost (source of the J-cost definition), and ComputationLimitsStructure. The latter states that computation limits in RS emerge from three sources: Bremermann's limit, Landauer's bound, and quantum computation limits. Sibling declarations establish J-cost non-negativity, uniqueness of minimum, squared form, symmetry, and derivative signs.
proof idea
This is a definition and lemma module. Non-negativity (jcost_nonneg) and related properties are obtained by direct algebraic reduction using the imported Cost definition of J together with the quadratic representation.
why it matters in Recognition Science
The module supplies IC-005.1 (J-cost non-negativity) as a building block for physics-complexity claims. It connects to the forcing chain at T5 (J-uniqueness) and supports downstream information-theoretic results, though the current graph shows no direct used_by edges.
scope and limits
- Does not derive numerical values of constants such as α or G.
- Does not prove the full set of computation limits; only imports the structure.
- Does not address spatial dimension forcing (T8) or the eight-tick octave.
- Does not treat mass formulas or the phi-ladder.
depends on (3)
declarations in this module (25)
-
structure
of -
theorem
jcost_nonneg -
theorem
jcost_unique_minimum -
theorem
jcost_squared_form -
theorem
jcost_pos_away_from_one -
theorem
jcost_symmetric -
def
jcost_deriv -
theorem
jcost_deriv_zero_at_one -
theorem
jcost_deriv_pos_of_gt_one -
theorem
jcost_deriv_neg_of_lt_one -
structure
LedgerConfig -
def
totalJCost -
theorem
total_jcost_nonneg -
theorem
balanced_config_zero_cost -
lemma
sum_nonneg_zero_iff -
theorem
verification_equivalence -
def
physics_complexity_from_ledger -
theorem
physics_complexity_structure -
theorem
physics_complexity_implies_limits -
theorem
phi_hierarchy_exponential -
theorem
phi_rung_complexity_unbounded -
theorem
jcost_gradient_descent_converges -
theorem
jcost_complexity_gap -
def
rs_complexity_classes -
def
ic005_certificate