Efficient Quantum Circuits for Accurate State Preparation of Smooth, Differentiable Functionsprimary-metadata-checked Abstract: explicit function to MPS to circuit; requested v1 HTML was unavailable in this audit
Prior art for function-to-MPS preparation. The ASPBE Hermite specialization must not be credited with inventing polynomial-to-MPS or sequential MPS preparation.
Optimal (controlled) quantum state preparation and improved unitary synthesis by quantum circuits with any number of ancillary qubitsprimary-metadata-checked Abstract and publication version notice: published arXiv v2; later v3 exists
Baseline for arbitrary and controlled state preparation and ancilla/depth trade-offs. Pin a version and gate model before comparing bounds.
Circuit complexity of quantum access models for encoding classical dataprimary-text-checked Results: circuit complexity lower bound; construction of LCU-based block-encoding; Methods: state preparation
Explicit access construction is not a free oracle. PREPARE together with SELECT and uncomputation can supply a block encoding; a single prepared state alone does not determine an arbitrary operator.
Quantum State Preparation without Coherent Arithmeticprimary-metadata-checked Abstract; Physical Review Letters 136, 240603, published 18 June 2026
QET-based function preparation with few ancillas. Approximation, normalization and success probability remain separate costs.
Quantum state preparation via piecewise QSVTprimary-metadata-checked Abstract and article record
Piecewise function preparation baseline; partition access, degree, success amplification and primitive compilation must be specified before a resource comparison.
Quantum state preparation for multivariate functionsprimary-metadata-checked Abstract and article record
Multivariate preparation baseline; a tensor-product coefficient count is not automatically polynomial in dimension.
QKAN: quantum Kolmogorov-Arnold networks with applications in machine learning and multivariate state preparationprimary-text-checked Abstract, Introduction and Discussion: shallow compositional state preparation
Composition-dependent bounds, not an efficient preparation theorem for every continuous multivariate function.
Quantum Rejection Samplingprimary-metadata-checked Authors' publication page: quantum state generation, query characterization and matching lower bound
Prior art for coherent amplitude reweighting. Novelty must be in an explicit structured envelope, guarantees, implementation or model-matched bound, not in rejection sampling itself.
Near-optimal ground state preparationprimary-metadata-checked Abstract: initial overlap, spectral-gap promise, energy information and lower bounds
Use the promised overlap/gap model; do not erase these costs in a generic strong-correlation claim.
Initial State Preparation for Quantum Chemistry on Quantum Computersprimary-metadata-checked Article record and abstract
Application motivation for trial-state construction, assessment and refinement; not a proved overlap guarantee for arbitrary molecules.
Efficient Quantum Gibbs Samplers with Kubo–Martin–Schwinger Detailed Balance Conditionprimary-text-checked Article abstract and Gibbs-sampler construction; Communications in Mathematical Physics 406, 67
Invariant Gibbs state and efficient mixing are different obligations. A low-temperature polynomial mixing claim needs additional model-specific evidence.
Efficient quantum state preparation on Quantinuum hardware (candidate reference)primary-source-unavailable User-supplied arXiv identifier; primary fetch failed; do not use reported hardware numbers as evidence
Retained in the candidate queue rather than silently promoted from secondary indexing.
Samplinglib theorem-publication and conceptual-mirror protocolsprimary-text-checked Author once; graph contribution; independent encoder–denoiser; unchanged historical audit debt
Design attribution. QuantumComputinglib has its own register, oracle, clean-ancilla and resource contracts; Samplinglib is not an imported Lean dependency.
Asymptotically Optimal Quantum Circuits for Comparators and Incrementersprimary-text-checked Sections 2–6; Figures 3–5; Eq. (16) controlled-adder rewrite; Eq. (17) quantum–quantum comparator contract
Primary source for the partial PromiseGateOptimization route and the planned source-faithful adder/comparator/incrementer formalization. Existing generic controlled-conjugation and dirty-flag lemmas do not certify the complete paper circuits or optimality claims.
Representation-theoretic methods in quantum information theoryprimary-text-checked Course notes: finite-dimensional QIT foundations, representation theory, Schur–Weyl duality and symmetry-based QIT applications
Planned curriculum anchor for a future Quantum Information part. Source registration is not a claim that its theorems have been formalized locally.
Quantum Algorithms for Scientific Computationprimary-text-checked 29 April 2026 public 447-page edition; Parts I–IV from background/foundations through block encoding, QSP/QSVT, simulation, linear systems/differential equations and open systems
Planned curriculum anchor for quantum scientific computing. Reuse existing ASPBE state-preparation/block-encoding nodes; do not duplicate Chapter 9 under a second API. The user-supplied PDF is not vendored because this edition is publicly hosted.