Quantum and CircuitsStatements and proofs
Statements and proofs
Find a statement anywhere in this work by title, printed number, type or source label. Entries follow the chapter order. Each proof link opens the written proof passage.
Statements by chapter
Fourier conventions and the finite proof chain
Coprimality becomes an integer signal
Rational character-order projectors
Selection, residuals, and information loss
Coefficient-residue lanes and polyphase transport
The exact modulus-twelve arithmetic calculation
Filtering a signal with something to remove
Normalized states and literal unitary transport
Relative phase is absent from one histogram and present in another
The selector as a projective measurement
Exact arithmetic coordinates and their complex meaning
The central finite bridge theorem
A continuous phase family with a fixed initial histogram
Phase replacement and dephasing are different operations
The symmetry-collapse question
Projectors and quantum packets
Exact packet simulation and polynomial collapse
Approximate symmetry and leakage certificates
Moving packets, dynamic frames, and sparse transfer graphs
- Definition 3.11: Packet schedule
- Theorem 3.12: Exact dynamic-packet theorem Read proof
- Theorem 3.13: Polynomial moving-packet collapse Read proof
- Corollary 3.14: Moving-frame collapse
- Corollary 3.15: Reachable packet-graph collapse Read proof
- Corollary 3.16: Bounded-excitation collapse Read proof
- Theorem 3.17: Dynamic sum-of-leakages bound Read proof
- Corollary 3.18: Approximate moving-packet collapse
- Theorem 3.19: Adaptive discarded-state certificate Read proof
- Example 3.20: A rational two-step certificate
Fixed charge and exact-number circuits
Permutation-symmetric circuits and Dicke coordinates
Schur–Weyl coordinates and total-spin packets
Permutation-invariant mixed states and commutant compression
Orbit-quotient quantum walks
Few bosons and few fermions
Scaling phase diagrams for charge, particles, and local dimension
Measurement, conditioning, and classical feedback
Compressed packet simulation
Simulation complexity versus decision complexity
Open problems
Nested gate models and distortion invariants
- Definition 8.1: Gate model
- Definition 8.2: Nested realization pair
- Proposition 8.3: Monotonicity Read proof
- Definition 8.4: Resource vector
- Principle 8.5: Model specificity
- Definition 8.6: Ancilla conventions
- Definition 8.7: Extremal distortion
- Definition 8.8: Cost-preserving equivalence
- Definition 8.9: Border cost
Catalytic holonomy, excursion geometry, and resource reuse
- Theorem 8.10: Holonomy-compression identity Read proof
- Proposition 8.11: Catalytic stretch criterion
- Definition 8.12: Catalytic excess
- Definition 8.13: Excursion profile
- Principle 8.14: First higher-order frontier
- Proposition 8.15: One-Lipschitz retraction criterion Read proof
- Definition 8.16: Critical catalyst penalty
First arrival, spectral packets, algebraic rarity, and tensor regularization
- Theorem 8.17: Endpoint Green valuation Read proof
- Principle 8.18: Embedded packet principle
- Theorem 8.19: Dimension per gate Read proof
- Theorem 8.20: Abstract generic rigidity
- Principle 8.21: Rare but amplifiable
- Definition 8.22: Tensor synergy
- Definition 8.23: Stable tensor cost
- Definition 8.24: Tensor activation
Matroidal state geometry, quiver factorizations, and root-system catalysis
Introduction
- Theorem 9.1: Universal catalytic atom over rings Read proof
- Theorem 9.2: Exact binary threshold and census Read proof
- Theorem 9.3: Minimal catalytic classification Read proof
- Theorem 9.4: Exact ternary threshold
- Theorem 9.5: Connected snapshot family Read proof
- Corollary 9.6: Connected defects in every dimension Read proof
- Theorem 9.7: Two forbidden gates and weighted penalties Read proof
- Theorem 9.8: Generic rigidity and defect codimension
- Corollary 9.9: Finite-field sparsity
- Theorem 9.10: Tensor-amplified snapshot family Read proof
- Corollary 9.11: Explicit n log n distortion Read proof
Circuit model and metric comparison
The universal six-row atom
Catalytic normal forms and the six-role threshold
Exact finite enumeration
Projective, matroidal, and spectral structure
Interval-tree certificates and connected higher-dimensional families
- Definition 9.31: Interval tree
- Lemma 9.32: One-cut locality Read proof
- Corollary 9.33: Interval-tree lower bound Read proof
- Definition 9.34: Tree-tight target
- Remark 9.35: Support connectivity
- Theorem 9.36: Exact binary cases in dimensions seven through nine Read proof
- Corollary 9.37: Asymptotic multiplicative distortion Read proof
Bounded and weighted catalytic resources
- Definition 9.38: Upper-gate budget
- Proposition 9.39: Two upper gates give a linear advantage Read proof
- Corollary 9.40: No budget-only additive simulation bound Read proof
- Lemma 9.41 Read proof
- Theorem 9.42: Microscopic escape, macroscopic saving Read proof
- Proposition 9.43: Fixed penalties do not suppress catalysis Read proof
- Remark 9.44: Penalty threshold
Algebraic rarity of catalytic defects
Recursive, block, and tensor amplification
- Proposition 9.51: Block additivity Read proof
- Corollary 9.52: Block-sum amplification Read proof
- Proposition 9.53: Exact restricted lift Read proof
- Theorem 9.54: Exact restricted tensor rule Read proof
- Proposition 9.55: Optimal snapshot seed for tensor rate Read proof
- Proposition 9.56: Stable tensor length Read proof
Discussion and open problems
- Question 9.57: Universal six-dimensional threshold
- Question 9.58: Geometry of the defect locus
- Question 9.59: Border catalysis
- Question 9.60: Correct growth of the maximum defect
- Question 9.61: Multiplicative distortion
- Question 9.62: Exact ambient complexity of snapshot targets
- Question 9.63: Tensor synergy and activation
- Question 9.64: Higher catalytic normal forms
- Question 9.65: Two-gate multiplicative ceiling
- Question 9.66: Matroidal classification
- Question 9.67: Weighted phase transition
- Question 9.68: Other root systems
- Question 9.69: Certificate extraction