IndisputableMonolith.Information.NoCloning
The NoCloning module defines quantum states and derives the impossibility of universal cloning inside Recognition Science. It introduces QuantumState as unit vectors in Hilbert space together with inner-product constraints on any CloningMachine. Information theorists and quantum-foundations researchers cite it to embed standard no-cloning results inside the RS ledger. The argument rests on algebraic identities that force the inner-product constraint to fail for distinct states.
claimA quantum state is a unit vector $ψ ∈ ℋ$ with $‖ψ‖=1$. No map $C$ exists such that $C(ψ) = ψ ⊗ ψ$ for every $ψ$, because the inner-product condition $⟨ψ,φ⟩ = ⟨ψ,φ⟩²$ cannot hold for all pairs.
background
The module sits in the Information domain and imports Constants, where the fundamental RS time quantum satisfies τ₀ = 1 tick. It introduces QuantumState as a unit vector in a Hilbert space, innerProduct as the standard sesquilinear form, and CloningMachine as a hypothetical linear operator that would copy an arbitrary state. These objects rest on the discrete tick structure supplied by the upstream Constants module.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
The module supplies the algebraic no-cloning constraint that later siblings such as no_cloning_from_ledger and quantum_cryptography_possible rely on. It places the standard no-cloning theorem inside the Recognition framework by deriving it from inner-product identities grounded in the RS time quantum.
scope and limits
- Does not derive the full Hilbert-space formalism from RS axioms.
- Does not treat continuous or infinite-dimensional cases.
- Does not address entanglement or multi-particle cloning.
- Does not provide explicit RS-native cloning bounds beyond the algebraic constraint.
depends on (1)
declarations in this module (20)
-
structure
QuantumState -
def
innerProduct -
theorem
inner_product_self -
structure
CloningMachine -
lemma
inner_product_constraint -
lemma
cloning_constraint -
theorem
no_cloning_algebraic_constraint -
theorem
no_universal_cloning_witness_real -
theorem
no_cloning_theorem_remark -
theorem
no_cloning_from_ledger -
theorem
measurement_disturbs -
theorem
quantum_cryptography_possible -
theorem
quantum_differs_from_classical -
theorem
error_correction_possible -
theorem
no_deleting -
theorem
no_broadcasting -
def
optimalCloningFidelity -
theorem
approximate_cloning_bound -
structure
NoCloningFalsifier -
def
experimentalStatus