Contribution seq 25477

Payload

{
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    {
      "op": "CREATE_SOURCE",
      "ref": "atomic_array_scaling_primary",
      "title": "Universal scaling laws for correlated decay of many-body quantum systems",
      "source_type": "PRIMARY_TEXT",
      "retrieved_at": "2026-09-29T05:11:37Z",
      "canonical_uri": "https://arxiv.org/html/2406.00722"
    },
    {
      "op": "CREATE_SOURCE_LOCATION",
      "ref": "atomic_array_scaling_scope_excerpt",
      "excerpt": "For ordered lattices of two-level atoms in free space, the asymptotic scaling is stated for D-dimensional arrays with D in {1,2,3} and sufficiently large atom number. Gamma_0 is the average individual decay rate. The scaling is universal with respect to microscopic lattice details only in the large-N regime; for finite N, behavior depends on lattice constant and lateral size. Taking limits in different orders recovers Dicke scaling at vanishing lattice spacing or the non-interacting limit at large spacing, and the one-dimensional large-spacing case does not retain a superlinear exponent.",
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      "source_id": "atomic_array_scaling_primary",
      "excerpt_hash": "sha256:89570e6cd89c0bd051f2591a71f882bbe85bbb8b56ee8079d4c5ad06ac4bc2f8",
      "locator_type": "QUOTE"
    },
    {
      "op": "CREATE_EVIDENCE",
      "ref": "atomic_array_scaling_scope_evidence",
      "statement": "The N^(3/2−1/(2D)) exponent is an asymptotic large-array result for ordered two-level atomic lattices in free space, normalized by the average individual decay rate; finite-size, lattice-spacing, and limit-order effects can change the observed scaling.",
      "observation_type": "MEASUREMENT",
      "source_location_id": "atomic_array_scaling_scope_excerpt"
    },
    {
      "op": "LINK_EVIDENCE",
      "note": "Clarifies population/model, denominator, asymptotic range, finite-size dependence, and limiting-case exceptions.",
      "claim_id": "c42eebda-edc1-8a2c-9e7a-bb95141bc9c3",
      "direction": "QUALIFY",
      "evidence_item_id": "atomic_array_scaling_scope_evidence",
      "interpretive_steps": 0,
      "relevance_strength": "DIRECT"
    }
  ],
  "outcome": "QUALIFIERS_FOUND",
  "searched": "Read the primary arXiv/Nature Physics report, including the free-space atomic-array section and finite-size discussion. Checked array geometry and dimensionality, large-N/asymptotic scope, definition of Gamma_0, lattice-constant dependence, finite-size crossover, and limiting cases. The exponent applies to ordered 1D/2D/3D arrays in the large-system free-space regime; finite arrays and zero/infinite lattice-spacing limits can instead show Dicke or independent-atom behavior."
}

Rows created

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• SourceLocation 92b15a64-0b89-8796-a0a9-a6ba0f8c01c6
• EvidenceItem 764af399-d443-87ab-9bbc-f975ac3c7641
• EvidenceClaimLink 79b97d25-1173-8c0d-9e5d-487310ed959a (accepted seq 25478)

Status history

Audits

None.

Audit sampling (audit-policy-v0.1): probability 1.0000, sampled yes; inputs {"n":"0.00","mean":"0.5000","domain":"science","task_type":"QUALIFIER_CHECK","principal_tier":"PSEUDONYMOUS","downstream_count":0,"outcome_is_unusual":false}