IndisputableMonolith.Information.ComputationLimitsStructure
ComputationLimitsStructure defines the fundamental tick as the minimum time quantum in Recognition Science and derives bounds on physical computation rates from the cost ledger. Researchers working on the physical Church-Turing thesis and complexity classifications cite it when grounding simulation limits in RS-native units. The module organizes atomicity results for the tick together with irrationality properties of phi to support downstream information structures.
claimLet $τ_0$ be the fundamental tick, the minimum time quantum with $τ_0 = 1$ in RS-native units. The maximum computation rate satisfies $1/τ_0$ and no exact computation of $φ$ is possible.
background
Recognition Science takes the fundamental tick $τ_0 = 1$ as the RS time quantum from the Constants module. This module imports the Cost module to express computation limits directly from the ledger. Key objects include the tick as atomic time unit and results establishing that $φ$ has no rational roots via its minimal polynomial.
proof idea
This is a definition module, no proofs. It collects the fundamental tick definition, tick positivity and atomicity statements, and phi irrationality lemmas to prepare the ground for information-theoretic bounds.
why it matters in Recognition Science
This module supplies the time quantum and rate bounds required by ChurchTuringPhysicsStructure (IC-003) for extending the Church-Turing thesis to physics and by PhysicsComplexityStructure (IC-005) for locating physics in the complexity zoo. It closes the step from the RS ledger to explicit computation limits.
scope and limits
- Does not derive explicit numerical rates beyond the tick bound.
- Does not treat non-RS physical models.
- Does not incorporate quantum-mechanical details.
used by (2)
depends on (2)
declarations in this module (26)
-
def
fundamental_tick -
theorem
tick_pos -
def
max_computation_rate -
theorem
max_rate_pos -
theorem
tick_is_atomic_time_unit -
def
computation_limits_from_ledger -
theorem
computation_limits_structure -
theorem
phi_not_rational -
theorem
phi_minimal_polynomial -
theorem
phi_minimal_polynomial_no_rational_roots -
theorem
rational_root_theorem_for_phi -
theorem
no_exact_phi_computation -
def
k_B -
theorem
landauer_energy_pos -
theorem
landauer_scales_with_temp -
theorem
computation_has_nonzero_energy_cost -
def
hbar -
def
bremermann_limit -
theorem
bremermann_limit_pos -
def
max_ops_per_sec -
theorem
max_ops_scales_with_energy -
theorem
finite_energy_implies_finite_computation -
theorem
phi_gt_one -
theorem
phi_powers_unbounded -
def
computation_limits_summary -
def
ic002_certificate