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QAI-PB-001
HOM_INTERFERENCE
Hong-Ou-Mandel Two-Photon Bunching on Balanced MZI
2
2
qai 1.0; profile photonic.dv.linear; experiment hom_dip(theta: angle = pi / 2) { let m: modes<2, fock> = prepare fock [1, 1]; let (a, b) = sym_mzi(theta)(m[0], m[1]); emit measure pnr (a, b); }
{ "|2,0>": 0.5, "|0,2>": 0.5, "|1,1>": 0 }
{ "waveguide_platform": "TFLN_LiNbO3", "transmittance_eta": 0.92, "indistinguishability_V": 0.96, "dark_count_p_dc": 0.001, "g2_zero": 0.005, "observed_coincidence_p11": 0.0171 }
Balanced beam-splitter zero-coincidence bosonic bunching identity
10.1103/PhysRevLett.59.2044
QAI-PB-002
CLEMENTS_RECK_MZI
Universal 4-Mode Clements Interferometer Decomposition
4
2
qai 1.0; profile photonic.dv.linear; experiment clements_4mode(theta: angle = pi / 3) { let m: modes<4, fock> = prepare fock [1, 1, 0, 0]; let out = clements_mesh<4>(theta)(m); emit measure pnr out; }
{ "|2,0,0,0>": 0.1875, "|0,2,0,0>": 0.1875, "|1,1,0,0>": 0.25, "|0,0,1,1>": 0.375 }
{ "waveguide_platform": "Si3N4_LowLoss", "transmittance_eta": 0.9500000000000001, "indistinguishability_V": 0.97, "dark_count_p_dc": 0.0005, "g2_zero": 0.003, "observed_coincidence_p11": 0.23140000000000002 }
SU(M) interferometer unitary preservation and Fock simplex normalization
10.1364/OPTICA.3.001460
QAI-PB-003
BELL_CHSH
Dual-Rail Photonic Bell State & CHSH Correlation Witness
4
2
qai 1.0; profile photonic.dv.linear; experiment bell_phi_plus() { let q: modes<4, fock> = prepare fock [1, 0, 1, 0]; let out = postselected_bell_pair(q); emit measure pnr out; }
{ "|1,0,1,0>": 0.5, "|0,1,0,1>": 0.5 }
{ "waveguide_platform": "TFLN_LiNbO3", "transmittance_eta": 0.91, "indistinguishability_V": 0.9500000000000001, "dark_count_p_dc": 0.001, "g2_zero": 0.004, "chsh_s_value": 2.684 }
Tsirelson CHSH bound (2 < S <= 2*sqrt(2)) under postselected dual-rail encoding
10.1103/PhysRevLett.23.880
QAI-PB-004
GHZ_ENTANGLEMENT
6-Mode Herald-Postselected Photonic GHZ State
6
3
qai 1.0; profile photonic.dv.linear; experiment ghz_3photon() { let m: modes<6, fock> = prepare fock [1, 0, 1, 0, 1, 0]; let g = linear_optical_ghz6(m); emit measure pnr g; }
{ "|1,0,1,0,1,0>": 0.5, "|0,1,0,1,0,1>": 0.5 }
{ "waveguide_platform": "Si3N4_LowLoss", "transmittance_eta": 0.9400000000000001, "indistinguishability_V": 0.96, "dark_count_p_dc": 0.0008, "g2_zero": 0.005, "ghz_fidelity": 0.912 }
Three-photon Fock-number conservation and parity coherence bound
10.1103/PhysRevLett.82.1345
QAI-PB-005
BB84_QKD
Photonic Polarization/Dual-Rail BB84 Quantum Key Distribution Sifting
2
1
qai 1.0; profile photonic.dv.linear; experiment bb84_basis_match(basis_delta: angle = 0.0) { let m: modes<2, fock> = prepare fock [1, 0]; let out = sym_mzi(basis_delta)(m[0], m[1]); emit measure pnr out; }
{ "|1,0>": 1, "|0,1>": 0 }
{ "waveguide_platform": "Telecom_Fiber_1550nm", "transmittance_eta": 0.85, "indistinguishability_V": 0.99, "dark_count_p_dc": 0.0005, "g2_zero": 0.002, "qber_observed": 0.0034000000000000002 }
Matched-basis zero intrinsic QBER and dark-count bounded error rate
10.1016/j.tcs.2014.05.025
QAI-PB-006
GROVER_OPTICAL
4-Mode Linear-Optical Single-Step Grover Search Oracle
4
1
qai 1.0; profile photonic.dv.linear; experiment grover_4mode(marked_mode: count = 2) { let m: modes<4, fock> = prepare fock [1, 0, 0, 0]; let out = optical_grover4(marked_mode)(m); emit measure pnr out; }
{ "|0,0,1,0>": 1 }
{ "waveguide_platform": "Si3N4_LowLoss", "transmittance_eta": 0.93, "indistinguishability_V": 0.98, "dark_count_p_dc": 0.0005, "g2_zero": 0.002, "target_mode_selectivity": 0.928 }
N=4 single-step exact amplitude amplification to marked spatial mode
10.1103/PhysRevLett.79.325
QAI-PB-007
KLM_NS_GATE
KLM Nonlinear Sign Shift (NS-Gate) with Ancilla Herald Conditioning
3
2
qai 1.0; profile photonic.dv.linear; experiment klm_ns_gate() { let m: modes<3, fock> = prepare fock [2, 1, 0]; let out = klm_nonlinear_sign(m); emit measure pnr out; }
{ "herald_success_probability": 0.25, "conditional_phase_rad": 3.141593 }
{ "waveguide_platform": "TFLN_LiNbO3", "transmittance_eta": 0.92, "indistinguishability_V": 0.96, "dark_count_p_dc": 0.0005, "g2_zero": 0.003, "herald_fidelity": 0.9410000000000001 }
Conditional pi phase shift on |2> Fock component under single-ancilla herald
10.1038/35051009
QAI-PB-008
BOSON_SAMPLING
6-Mode 3-Photon Aaronson-Arkhipov Boson Sampling Permanent Benchmark
6
3
qai 1.0; profile photonic.dv.linear; experiment boson_sampling_6x3() { let m: modes<6, fock> = prepare fock [1, 1, 1, 0, 0, 0]; let out = haar_clements_6(m); emit measure pnr out; }
{ "fock_hilbert_dimension": 56, "sum_of_permanents_l1": 1 }
{ "waveguide_platform": "Integrated_6Mode_Mesh", "transmittance_eta": 0.9, "indistinguishability_V": 0.9450000000000001, "dark_count_p_dc": 0.001, "g2_zero": 0.006, "tvd_ideal_vs_noisy": 0.048 }
Submatrix permanent L1 normalization across 56-state 3-photon Fock subspace
10.4086/toc.2013.v009a004
QAI-PB-009
VIBRONIC_DUSCHINSKY
Molecular Vibronic Franck-Condon Spectrum via Duschinsky Rotation
4
2
qai 1.0; profile photonic.dv.linear; experiment vibronic_so2() { let m: modes<4, fock> = prepare fock [1, 1, 0, 0]; let out = duschinsky_interferometer<4>(m); emit measure pnr out; }
{ "|1,1,0,0>": 0.41200000000000003, "|2,0,0,0>": 0.218, "|0,1,1,0>": 0.245, "|0,0,2,0>": 0.125 }
{ "waveguide_platform": "Si3N4_LowLoss", "transmittance_eta": 0.93, "indistinguishability_V": 0.96, "dark_count_p_dc": 0.0005, "g2_zero": 0.004, "spectral_overlap_fidelity": 0.964 }
Orthogonal Duschinsky normal-mode rotation and Franck-Condon sum rule
10.1038/nphoton.2015.153
QAI-PB-010
PHOTONIC_VQE_H2
Variational Quantum Eigensolver for H2 Bond Dissociation on 4 Photonic Modes
4
2
qai 1.0; profile photonic.dv.linear; experiment vqe_h2_ansatz(theta: angle = 0.226) { let m: modes<4, fock> = prepare fock [1, 0, 1, 0]; let out = uccsd_photonic_ansatz(theta)(m); emit measure pnr out; }
{ "equilibrium_bond_angstrom": 0.7414000000000001, "exact_ground_energy_hartree": -1.13727 }
{ "waveguide_platform": "TFLN_LiNbO3", "transmittance_eta": 0.9400000000000001, "indistinguishability_V": 0.97, "dark_count_p_dc": 0.0005, "g2_zero": 0.003, "noisy_energy_hartree": -1.1348 }
Rayleigh-Ritz variational energy lower bound E(theta) >= E_0
10.1038/ncomms5213
QAI-PB-011
QUANTUM_KERNEL_QML
Photonic Fock-Space Quantum Kernel Gram Matrix Estimator
4
2
qai 1.0; profile photonic.dv.linear; experiment photonic_kernel(x1: angle = 0.4, x2: angle = 0.9) { let m: modes<4, fock> = prepare fock [1, 1, 0, 0]; let out = feature_map_adjoint(x1, x2)(m); emit measure pnr out; }
{ "kernel_self_overlap": 1, "psd_gram_eigenvalue_min": 0 }
{ "waveguide_platform": "Integrated_4Mode_Mesh", "transmittance_eta": 0.91, "indistinguishability_V": 0.9500000000000001, "dark_count_p_dc": 0.001, "g2_zero": 0.005, "psd_preserved": true }
Positive semi-definiteness and unit diagonal of multiphoton Fock kernel matrix
10.1038/s41586-019-0980-2
QAI-PB-012
PARAMETER_SHIFT_GRADIENT
Exact Photonic Parameter-Shift Gradient Rule (+/- pi/2 Phase Shift)
2
1
qai 1.0; profile photonic.dv.linear; experiment param_shift_grad(theta: angle = 0.785398) { let m: modes<2, fock> = prepare fock [1, 0]; let out = sym_mzi(theta)(m[0], m[1]); emit measure pnr out; }
{ "analytic_gradient_dz_dtheta": -1, "parameter_shift_estimate": -1 }
{ "waveguide_platform": "TFLN_LiNbO3", "transmittance_eta": 0.9500000000000001, "indistinguishability_V": 0.98, "dark_count_p_dc": 0.0005, "g2_zero": 0.002, "noisy_gradient_estimate": -0.9490000000000001 }
Exact trigonometric identity for +/- pi/2 phase-shifter derivative
10.1103/PhysRevA.98.032309

ATON QAI — Photonic Benchmark & Fock-Space Reference Corpus

Organization: ATON QAI (huggingface.co/ATON-QAI)
Website: https://aton-qai.ai
License: Apache-2.0

Dataset Summary

QAI-Photonic-Benchmark is an open reference dataset by ATON QAI, pairing canonical .qai linear-optical quantum circuits across 12 foundational photonic algorithm families with:

  1. Exact lossless Fock-space probability distributions derived from permanent amplitudes;
  2. Parameterized physical waveguide noise profiles for thin-film lithium niobate (TFLN LiNbO3), low-loss silicon nitride (Si3N4), and telecom fiber platforms ($\eta, V_{\text{HOM}}, p_{\text{dc}}, g^{(2)}(0)$);
  3. Formal mathematical invariant specifications and peer-reviewed literature DOIs.

Quick Load with Hugging Face datasets

from datasets import load_dataset

ds = load_dataset("ATON-QAI/QAI-Photonic-Benchmark", split="test")
for row in ds:
    print(row["benchmark_id"], row["family"], row["verified_invariant"])

Schema Fields

Field Type Description
benchmark_id string Public benchmark identifier (QAI-PB-001 .. QAI-PB-012).
family string Photonic algorithm family (HOM_INTERFERENCE, CLEMENTS_RECK_MZI, BELL_CHSH, GHZ_ENTANGLEMENT, BB84_QKD, GROVER_OPTICAL, KLM_NS_GATE, BOSON_SAMPLING, VIBRONIC_DUSCHINSKY, PHOTONIC_VQE_H2, QUANTUM_KERNEL_QML, PARAMETER_SHIFT_GRADIENT).
modes int Number of optical waveguide modes $M$.
photons int Input Fock photon number $N$.
qai_source string Reference .qai circuit specification.
ideal_fock_distribution dict Exact lossless Fock-state probability distribution.
physical_noise_profile dict Waveguide & detector parameters ($\eta, V, p_{\text{dc}}, g^{(2)}(0)$) and resulting physical observables.
verified_invariant string Mathematical property verified for the circuit family.
doi_reference string Primary peer-reviewed physical reference DOI.

Citation (BibTeX)

@dataset{aton_qai_photonic_benchmark_2026,
  author       = {{ATON QAI}},
  title        = {{ATON QAI Photonic Benchmark: Linear-Optical Circuits, Exact Fock-Space Distributions, and Physical Noise Profiles}},
  year         = {2026},
  publisher    = {Hugging Face / ATON QAI},
  url          = {https://huggingface.co/datasets/ATON-QAI/QAI-Photonic-Benchmark}
}
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