skills/partnerprof-guide/references/knowledge_map.json

{
  "application_areas": [
    {
      "area": "Physics and engineering",
      "fit": "Mechanics, electromagnetism, thermal fields, materials, phase states and metrology with typed units and declared constraints."
    },
    {
      "area": "Quantum and many-body benchmarks",
      "fit": "Published Max-Cut, VQE, QPE, CHSH, tunnelling and spin-evolution examples; external IBM values remain comparison metadata unless explicitly made goals."
    },
    {
      "area": "Operations and design",
      "fit": "Custom bounded state fields where infeasible configurations should be rejected before a downstream solver or experiment."
    },
    {
      "area": "Simulation",
      "fit": "Historically connected evolution when each valid realization becomes part of the next current reality."
    }
  ],
  "assistant_bootstrap": {
    "applies_before": [
      "fit_decision",
      "rejection",
      "task_questions",
      "input_construction",
      "prepare"
    ],
    "mandatory_first_read": true,
    "next_contract": "/api/v3/task-manifest",
    "rule": "Do not assess PartnerProf from model memory; use this current map for every new request."
  },
  "assistant_workflow": {
    "before_run": [
      "Read the task manifest.",
      "Keep source facts, assumptions, constraints and external comparisons separately declared.",
      "Show the complete prepared task and accepted counts to the user.",
      "Run only after explicit confirmation."
    ],
    "read_progress_and_result": "Report the returned event, declared slice and explicit goal status. REALIZED_STATE is an admissible realization in the declared field; NO_REALIZATION_IN_FIELD, DIRECT_CONFLICT and UNRESOLVED_WITHIN_DECLARED_SLICE are meaningful outcomes, not generic service failures.",
    "refer_instead": [
      {
        "module": "MasterAudit",
        "when": "The question is retrospective: review a historical evidence packet, dataset, record or claimed past state."
      },
      {
        "module": "CyberMirror",
        "when": "The question is whether a proposed next operational step should be admitted, warned on or blocked by a prospective guard."
      },
      {
        "module": "EvO EmoSophistic",
        "when": "The user needs reviewed educational context rather than a bounded computational task."
      }
    ],
    "repair_after_error": "For a validation error, read the returned field-level message, correct only the rejected declaration, prepare again and obtain a new approval digest. Never silently repair values, constraints, goals, source hashes or external comparisons.",
    "route_here_when": "The request asks whether a declared bounded state, target or continuation is admissible under explicit constraints before a downstream calculation or experiment."
  },
  "asynchronous_run_lifecycle": {
    "client_rule": "Preserve the returned run_id and poll the per-run state. Client disconnection does not cancel server compute. Do not use CPU load or aggregate status as evidence for a particular run.",
    "privacy": "Runs are not listable through the public contract and progress never exposes raw vectors, fields, protected CML structure or private operator state.",
    "read_only": [
      "/api/v3/runs/{run_id}/status",
      "/api/v3/runs/{run_id}/progress",
      "/api/v3/runs/{run_id}/result"
    ],
    "start": "/api/v3/tasks/start",
    "states": [
      "QUEUED",
      "RUNNING",
      "COMPLETED",
      "FAILED"
    ]
  },
  "benefits": [
    "Explicit declarations of states, dependencies, constraints and invariants.",
    "Early admissibility and conflict evidence can prevent costly construction, deployment, experiment or downstream analysis of a configuration that does not satisfy its declared local reality or expected values.",
    "No silent promotion of an external benchmark into a compute-vector condition or stopping rule.",
    "Separate prepare/review/confirmed-run boundary with accepted counts and approval digests.",
    "Durable per-run status, graph data and result retrieval preserve scientific value when a long initiating connection closes.",
    "Public, event-by-event state/history evidence without exposing protected CML implementation or equations."
  ],
  "calculation_modes": {
    "ADMISSIBILITY": "Assess whether a declared state is admissible. The standalone field remains fixed while the operator evaluates it.",
    "CONFLICT_DIAGNOSTIC": "Report declared direct conflicts; it is not a legal, medical, or causal conclusion.",
    "FULL_CYCLE": "Perform the declared public realization cycle with the selected output contract.",
    "NEAREST_ADMISSIBLE_GOAL": "Assess a declared target's admissibility from the current reality; it does not silently replace the target.",
    "REALIZATION": "Seek and report an admissible realized state under explicitly declared conditions."
  },
  "catalog": {
    "problem_families": [
      {
        "code": 1,
        "domain": "custom",
        "equation_note_cs": "Běžná referenční rovnice mechaniky. Je pouze orientační; CML ani CML_A se jí neřídí.",
        "icon": "⚙",
        "key": "mechanics",
        "label_cs": "Mechanika",
        "reference_equation": "F = m · a",
        "task_type": "CUSTOM_SCIENTIFIC_MODEL"
      },
      {
        "code": 2,
        "domain": "custom",
        "equation_note_cs": "Běžná referenční Maxwellova rovnice. Slouží jen k porovnání s klasickým postupem; není řídicí rovnicí CML/CML_A.",
        "icon": "⌁",
        "key": "electromagnetism",
        "label_cs": "Elektřina a magnetismus",
        "reference_equation": "∇×B = μ₀J + μ₀ε₀ ∂E/∂t",
        "task_type": "CUSTOM_SCIENTIFIC_MODEL"
      },
      {
        "code": 3,
        "domain": "custom",
        "equation_note_cs": "Běžný klasický vztah pro teplo. PartnerProf jej zobrazuje jako referenci, ne jako předpis pro CML_A.",
        "icon": "♨",
        "key": "thermal",
        "label_cs": "Teplo a termodynamika",
        "reference_equation": "Q = m · c · ΔT",
        "task_type": "CUSTOM_SCIENTIFIC_MODEL"
      },
      {
        "code": 4,
        "domain": "materials",
        "equation_note_cs": "Typický termodynamický vztah používaný při posuzování stavů materiálu. CML/CML_A používají vlastní nastavení.",
        "icon": "◇",
        "key": "materials",
        "label_cs": "Materiály",
        "reference_equation": "G = H − T · S",
        "task_type": "MATERIAL_DISCOVERY"
      },
      {
        "code": 5,
        "domain": "condensed_matter",
        "equation_note_cs": "Běžná podmínka fázové rovnováhy. Je zobrazena jen jako klasická reference.",
        "icon": "◫",
        "key": "phase",
        "label_cs": "Fázové stavy",
        "reference_equation": "G₁(T,P) = G₂(T,P)",
        "task_type": "PHASE_TRANSITION_MAP"
      },
      {
        "code": 6,
        "domain": "metrology",
        "equation_note_cs": "Obecný klasický model měření. Neurčuje evoluci CML_A.",
        "icon": "⌖",
        "key": "metrology",
        "label_cs": "Měření a kalibrace",
        "reference_equation": "y = f(x, p)",
        "task_type": "METROLOGY_CALIBRATION"
      },
      {
        "code": 7,
        "domain": "cosmology",
        "equation_note_cs": "Referenční Friedmannův vztah. CML a CML_A se jím při svém výpočtu neřídí.",
        "icon": "◎",
        "key": "cosmology",
        "label_cs": "Kosmologie",
        "reference_equation": "H² = (8πG/3)ρ − k/a²",
        "task_type": "COSMOLOGY_FIT"
      },
      {
        "code": 8,
        "domain": "custom",
        "equation_note_cs": "Obecný symbolický zápis klasické úlohy. Není to náhradní solver ani předpis pro CML_A.",
        "icon": "∑",
        "key": "custom",
        "label_cs": "Obecné číselné pole",
        "reference_equation": "F(x, c) = 0",
        "task_type": "CUSTOM_SCIENTIFIC_MODEL"
      },
      {
        "cml_ax_profile": "combinatorial_objective",
        "code": 24,
        "domain": "quantum",
        "equation_note_cs": "Rovnice jsou klasická/standardní referenční formulace stejného problému. Umožňují kontrolovat význam vstupů a výsledku, ale neurčují realizaci EvO.",
        "equation_note_en": "These are the conventional/reference equations for the same problem. They make the meaning of the inputs and result auditable, but they do not prescribe the EvO realization.",
        "icon": "✂",
        "key": "ibm_maxcut_4",
        "label_cs": "IBM Max-Cut – 4 uzly",
        "label_en": "IBM Max-Cut – 4 nodes",
        "reference_equation": "C(x) = Σ_(i,j)∈E [xᵢ + xⱼ − 2xᵢxⱼ]",
        "reference_equations": [
          {
            "equation": "C(x) = Σ_(i,j)∈E [xᵢ + xⱼ − 2xᵢxⱼ]",
            "meaning_cs": "Počet hran vedoucích mezi dvěma částmi řezu.",
            "meaning_en": "Counts edges crossing between the two partitions.",
            "name_cs": "Cílová funkce Max-Cut",
            "name_en": "Max-Cut objective"
          },
          {
            "equation": "Ĥ_C = 1/2 Σ_(i,j)∈E (I − ZᵢZⱼ)",
            "meaning_cs": "Běžný kvantový zápis stejné kombinatorické cílové funkce.",
            "meaning_en": "Standard quantum representation of the same combinatorial objective.",
            "name_cs": "QAOA nákladový Hamiltonián",
            "name_en": "QAOA cost Hamiltonian"
          }
        ],
        "task_type": "QUANTUM_SIMULATION"
      },
      {
        "cml_ax_profile": "quantum_time_evolution",
        "code": 20,
        "domain": "condensed_matter",
        "equation_note_cs": "Rovnice jsou klasická/standardní referenční formulace stejného problému. Umožňují kontrolovat význam vstupů a výsledku, ale neurčují realizaci EvO.",
        "equation_note_en": "These are the conventional/reference equations for the same problem. They make the meaning of the inputs and result auditable, but they do not prescribe the EvO realization.",
        "icon": "ψ",
        "key": "quantum",
        "label_cs": "Kvantová simulace",
        "label_en": "Quantum simulation",
        "reference_equation": "iℏ ∂ψ/∂t = Ĥψ",
        "reference_equations": [
          {
            "equation": "iℏ ∂ψ/∂t = Ĥψ",
            "meaning_cs": "Standardní časový vývoj kvantového stavu.",
            "meaning_en": "Standard time evolution of a quantum state.",
            "name_cs": "Časová Schrödingerova rovnice",
            "name_en": "Time-dependent Schrödinger equation"
          },
          {
            "equation": "U(t) = exp(−iĤt/ℏ)",
            "meaning_cs": "Běžný formální zápis časového kroku uzavřeného systému.",
            "meaning_en": "Conventional formal time step for a closed quantum system.",
            "name_cs": "Unitární propagátor",
            "name_en": "Unitary propagator"
          },
          {
            "equation": "⟨A⟩ = ⟨ψ|Â|ψ⟩",
            "meaning_cs": "Standardní převod kvantového stavu na měřitelnou střední hodnotu.",
            "meaning_en": "Standard mapping from a quantum state to an observable expectation.",
            "name_cs": "Střední hodnota pozorovatelné",
            "name_en": "Observable expectation value"
          }
        ],
        "task_type": "QUANTUM_SIMULATION"
      },
      {
        "cml_ax_profile": "quantum_tunneling",
        "code": 21,
        "domain": "nuclear",
        "equation_note_cs": "Rovnice jsou klasická/standardní referenční formulace stejného problému. Umožňují kontrolovat význam vstupů a výsledku, ale neurčují realizaci EvO.",
        "equation_note_en": "These are the conventional/reference equations for the same problem. They make the meaning of the inputs and result auditable, but they do not prescribe the EvO realization.",
        "icon": "☀",
        "key": "fusion_plasma",
        "label_cs": "Jaderná fúze a plazma",
        "label_en": "Nuclear fusion and plasma",
        "reference_equation": "T ≈ exp(−2∫κ(r)dr)",
        "reference_equations": [
          {
            "equation": "T ≈ exp(−2∫κ(r)dr)",
            "meaning_cs": "Klasická semiklasická aproximace průchodu bariérou.",
            "meaning_en": "Classical semiclassical approximation for barrier penetration.",
            "name_cs": "WKB tunelování",
            "name_en": "WKB tunnelling"
          },
          {
            "equation": "κ(r) = √(2μ[V(r)−E]) / ℏ",
            "meaning_cs": "Lokální útlum pod bariérou.",
            "meaning_en": "Local under-barrier attenuation factor.",
            "name_cs": "Lokální κ",
            "name_en": "Local κ"
          },
          {
            "equation": "R = n₁n₂⟨σv⟩ / (1 + δ₁₂)",
            "meaning_cs": "Běžný plazmový vztah pro četnost fúzních reakcí.",
            "meaning_en": "Conventional plasma relation for fusion-reaction rate.",
            "name_cs": "Objemová reakční rychlost",
            "name_en": "Volumetric reaction rate"
          }
        ],
        "task_type": "FUSION_PLASMA_MODEL"
      },
      {
        "cml_ax_profile": "quantum_tunneling",
        "code": 22,
        "domain": "nuclear",
        "equation_note_cs": "Rovnice jsou klasická/standardní referenční formulace stejného problému. Umožňují kontrolovat význam vstupů a výsledku, ale neurčují realizaci EvO.",
        "equation_note_en": "These are the conventional/reference equations for the same problem. They make the meaning of the inputs and result auditable, but they do not prescribe the EvO realization.",
        "icon": "⇥",
        "key": "quantum_tunneling",
        "label_cs": "Kvantové tunelování",
        "label_en": "Quantum tunnelling",
        "reference_equation": "κ = √(2μ(V₀−E)) / ℏ",
        "reference_equations": [
          {
            "equation": "κ = √(2μ(V₀−E)) / ℏ",
            "meaning_cs": "Určuje exponenciální útlum v obdélníkové bariéře.",
            "meaning_en": "Sets exponential attenuation in a rectangular barrier.",
            "name_cs": "Koeficient pod bariérou",
            "name_en": "Under-barrier coefficient"
          },
          {
            "equation": "T ≈ exp(−2κa)",
            "meaning_cs": "Klasická aproximace pravděpodobnosti průchodu bariérou.",
            "meaning_en": "Classical approximation of barrier transmission.",
            "name_cs": "WKB transmisní koeficient",
            "name_en": "WKB transmission coefficient"
          },
          {
            "equation": "E_th ≈ 3/2 k_B T",
            "meaning_cs": "Referenční převod teploty na částicovou energetickou škálu.",
            "meaning_en": "Reference conversion from temperature to a particle-energy scale.",
            "name_cs": "Tepelná energetická škála",
            "name_en": "Thermal energy scale"
          }
        ],
        "task_type": "QUANTUM_TUNNELING"
      },
      {
        "cml_ax_profile": "quantum_energy",
        "code": 23,
        "domain": "materials",
        "equation_note_cs": "Rovnice jsou klasická/standardní referenční formulace stejného problému. Umožňují kontrolovat význam vstupů a výsledku, ale neurčují realizaci EvO.",
        "equation_note_en": "These are the conventional/reference equations for the same problem. They make the meaning of the inputs and result auditable, but they do not prescribe the EvO realization.",
        "icon": "⬡",
        "key": "quantum_material",
        "label_cs": "Kvantové materiály a grafen",
        "label_en": "Quantum materials and graphene",
        "reference_equation": "Ĥψ = Eψ",
        "reference_equations": [
          {
            "equation": "Ĥψ = Eψ",
            "meaning_cs": "Standardní vlastní úloha kvantového materiálu.",
            "meaning_en": "Standard eigenvalue problem for a quantum material.",
            "name_cs": "Stacionární Schrödingerova rovnice",
            "name_en": "Stationary Schrödinger equation"
          },
          {
            "equation": "E_±(k) ≈ ±ℏ v_F |k|",
            "meaning_cs": "Referenční lineární disperze v okolí Diracova bodu.",
            "meaning_en": "Reference linear dispersion near a Dirac point.",
            "name_cs": "Nízkenergetická disperze grafenu",
            "name_en": "Low-energy graphene dispersion"
          }
        ],
        "task_type": "QUANTUM_MATERIAL_MODEL"
      },
      {
        "cml_ax_profile": "combinatorial_objective",
        "code": 25,
        "domain": "ibm_maxcut_5",
        "equation_note_cs": "Standardní formulace stejné Max-Cut úlohy; EvO realizaci neurčuje dosazením do této rovnice.",
        "equation_note_en": "Standard formulation of the same Max-Cut task; EvO does not choose the realization by simply evaluating this equation.",
        "icon": "✂",
        "key": "ibm_maxcut_5",
        "label_cs": "IBM Max-Cut – 5 uzlů",
        "label_en": "IBM Max-Cut – 5 nodes",
        "reference_equation": "C(x) = Σ_(i,j)∈E [xᵢ + xⱼ − 2xᵢxⱼ]",
        "reference_equations": [
          {
            "equation": "C(x) = Σ_(i,j)∈E [xᵢ + xⱼ − 2xᵢxⱼ]",
            "meaning_cs": "Počet hran mezi dvěma částmi řezu.",
            "meaning_en": "Number of edges crossing the partition.",
            "name_cs": "Cílová funkce Max-Cut",
            "name_en": "Max-Cut objective"
          }
        ],
        "task_type": "QUANTUM_SIMULATION"
      },
      {
        "cml_ax_profile": "quantum_energy",
        "code": 26,
        "domain": "quantum_vqe_h2",
        "equation_note_cs": "Jednoqubitová redukovaná VQE formulace H₂ pro přímé srovnání s IBM. Rovnice udržuje kandidátní reality fyzikálně konzistentní; realizaci vybírá EvO.",
        "equation_note_en": "One-qubit reduced H₂ VQE formulation for direct IBM comparison. The equation keeps candidate realities physically consistent; EvO selects the realization.",
        "icon": "H₂",
        "key": "quantum_vqe_h2",
        "label_cs": "H₂ – energie základního stavu",
        "label_en": "H₂ ground-state energy",
        "reference_equation": "E(θ)=c_I+c_Z cosθ+c_X sinθ+E_nn",
        "reference_equations": [
          {
            "equation": "Ĥ = c_I I + c_Z Z + c_X X",
            "meaning_cs": "IBM používá pro demonstraci H₂ jednoqubitový Hamiltonián po redukci symetrie.",
            "meaning_en": "IBM uses a one-qubit H₂ Hamiltonian after symmetry reduction.",
            "name_cs": "Redukovaný Hamiltonián H₂",
            "name_en": "Reduced H₂ Hamiltonian"
          },
          {
            "equation": "E(θ)=c_I+c_Z cosθ+c_X sinθ+E_nn",
            "meaning_cs": "Pro stav R_y(θ)|0⟩ dává očekávanou celkovou energii v Hartree.",
            "meaning_en": "For R_y(θ)|0⟩ gives the total expectation energy in Hartree.",
            "name_cs": "Energie kandidátního stavu",
            "name_en": "Candidate-state energy"
          }
        ],
        "task_type": "QUANTUM_SIMULATION"
      },
      {
        "cml_ax_profile": "quantum_phase",
        "code": 27,
        "domain": "quantum_qpe_phase",
        "equation_note_cs": "Fázový profil sleduje binární zpřesňování jediného výsledku. CML_Ax ověřuje výslednou fázi a bitovou přesnost.",
        "equation_note_en": "The phase profile tracks binary refinement toward one result. CML_Ax validates the resulting phase and bit precision.",
        "icon": "φ",
        "key": "quantum_qpe_phase",
        "label_cs": "Kvantový odhad fáze – QPE",
        "label_en": "Quantum phase estimation – QPE",
        "reference_equation": "U|ψ⟩ = e^{2πiφ}|ψ⟩",
        "reference_equations": [
          {
            "equation": "U|ψ⟩ = e^{2πiφ}|ψ⟩",
            "meaning_cs": "QPE hledá φ z vlastní hodnoty unitárního operátoru.",
            "meaning_en": "QPE estimates φ from the unitary eigenvalue.",
            "name_cs": "Vlastní fáze",
            "name_en": "Eigenphase"
          },
          {
            "equation": "φ_m = 0.b₁b₂…b_m",
            "meaning_cs": "Každý další bit zpřesňuje interval fáze.",
            "meaning_en": "Each additional bit refines the phase interval.",
            "name_cs": "Binární odhad",
            "name_en": "Binary estimate"
          }
        ],
        "task_type": "QUANTUM_SIMULATION"
      },
      {
        "cml_ax_profile": "quantum_time_evolution",
        "code": 28,
        "domain": "quantum_time_evolution",
        "equation_note_cs": "Pokračující simulace: každý realizovaný chronon se stává stavem dalšího kroku až do koncového času/cíle.",
        "equation_note_en": "Continuing simulation: each realized chronon becomes the state for the next step until terminal time/goal.",
        "icon": "⏱",
        "key": "quantum_time_evolution",
        "label_cs": "Kvantová časová evoluce",
        "label_en": "Quantum time evolution",
        "reference_equation": "U(t)=exp(−iĤt/ℏ)",
        "reference_equations": [
          {
            "equation": "U(t)=exp(−iĤt/ℏ)",
            "meaning_cs": "Standardní kvantový propagátor.",
            "meaning_en": "Standard quantum propagator.",
            "name_cs": "Unitární časový vývoj",
            "name_en": "Unitary time evolution"
          },
          {
            "equation": "⟨A(t)⟩=⟨ψ(t)|Â|ψ(t)⟩",
            "meaning_cs": "Měřená trajektorie pozorovatelné.",
            "meaning_en": "Observable trajectory.",
            "name_cs": "Střední hodnota",
            "name_en": "Expectation value"
          }
        ],
        "task_type": "QUANTUM_SIMULATION"
      },
      {
        "cml_ax_profile": "quantum_correlation",
        "code": 29,
        "domain": "quantum_chsh",
        "equation_note_cs": "Korelační profil vrací konkrétní CHSH hodnotu a její vztah ke klasické mezi 2 a Tsirelsonově mezi 2√2.",
        "equation_note_en": "Correlation profile returns the concrete CHSH value and its relation to the classical bound 2 and Tsirelson bound 2√2.",
        "icon": "≋",
        "key": "quantum_chsh",
        "label_cs": "Bell / CHSH korelace",
        "label_en": "Bell / CHSH correlations",
        "reference_equation": "S = E(a,b)+E(a,b′)+E(a′,b)−E(a′,b′)",
        "reference_equations": [
          {
            "equation": "S = E₀₀+E₀₁+E₁₀−E₁₁",
            "meaning_cs": "Kombinuje čtyři korelace dvou měřicích nastavení.",
            "meaning_en": "Combines four correlations from two measurement settings per side.",
            "name_cs": "CHSH parametr",
            "name_en": "CHSH parameter"
          },
          {
            "equation": "|S| ≤ 2√2",
            "meaning_cs": "Maximální kvantová hodnota.",
            "meaning_en": "Maximum quantum value.",
            "name_cs": "Tsirelsonova mez",
            "name_en": "Tsirelson bound"
          }
        ],
        "task_type": "QUANTUM_SIMULATION"
      },
      {
        "cml_ax_profile": "quantum_energy",
        "code": 30,
        "domain": "quantum_vqe_pauli2",
        "equation_note_cs": "EvO dostává Hamiltonián a pouze práh publikovaného IBM hardware výsledku. Přesná vlastní energie není součástí schváleného výpočetního pole.",
        "equation_note_en": "EvO receives the Hamiltonian and only the published IBM hardware-result threshold. The exact eigenvalue is not part of the approved compute field.",
        "icon": "H₂q",
        "key": "quantum_vqe_pauli2",
        "label_cs": "IBM 2-qubit Pauli VQE – slepá výzva",
        "label_en": "IBM 2-qubit Pauli VQE – blind challenge",
        "reference_equation": "H = 0.398 YZ − 0.398 ZI − 0.0113 ZZ + 0.181 XX",
        "reference_equations": [
          {
            "equation": "H=0.398YZ−0.398ZI−0.0113ZZ+0.181XX",
            "meaning_cs": "Stejný dvouqubitový Hamiltonián jako v IBM VQE výukové úloze.",
            "meaning_en": "The same two-qubit Hamiltonian used in IBM’s VQE learning workload.",
            "name_cs": "Pauli Hamiltonián",
            "name_en": "Pauli Hamiltonian"
          }
        ],
        "task_type": "QUANTUM_SIMULATION"
      },
      {
        "cml_ax_profile": "quantum_time_evolution",
        "code": 31,
        "domain": "quantum_xxz_10",
        "equation_note_cs": "EvO dostává IBM Hamiltonián, Néelův počáteční stav a koncový čas. Referenční ⟨ZZ⟩ není součástí vstupu; porovnává se až po běhu.",
        "equation_note_en": "EvO receives the IBM Hamiltonian, Néel initial state, and final time. The reference ⟨ZZ⟩ is absent from the input and compared only after the run.",
        "icon": "XXZ",
        "key": "quantum_xxz_10",
        "label_cs": "IBM XXZ 10-site – slepá časová evoluce",
        "label_en": "IBM XXZ 10-site – blind time evolution",
        "reference_equation": "H=Σ[Jᵢ/2(XX+YY)+Jᵢ ZZ],  |ψ₀⟩=|1010101010⟩",
        "reference_equations": [
          {
            "equation": "H=Σ[Jᵢ/2 XᵢXᵢ₊₁ + Jᵢ/2 YᵢYᵢ₊₁ + Jᵢ ZᵢZᵢ₊₁]",
            "meaning_cs": "IBM 10-site instance se seed=0 a devíti zveřejněnými vazbami.",
            "meaning_en": "IBM 10-site instance with seed=0 and nine published couplings.",
            "name_cs": "XXZ Hamiltonián",
            "name_en": "XXZ Hamiltonian"
          }
        ],
        "task_type": "QUANTUM_SIMULATION"
      },
      {
        "cml_ax_profile": "combinatorial_packed_objective",
        "code": 32,
        "domain": "ibm_maxcut_156",
        "equation_note_cs": "Přesně zveřejněná IBM/Q-CTRL instance: 156 uzlů, 234 hran, optimum 210.",
        "equation_note_en": "Exact IBM/Q-CTRL published instance: 156 nodes, 234 edges, optimum 210.",
        "icon": "156",
        "key": "ibm_maxcut_156",
        "label_cs": "IBM Max-Cut 156 — utility-scale",
        "label_en": "IBM Max-Cut 156 — utility-scale",
        "reference_equation": "max Σ_(i,j∈E) [x_i ≠ x_j], G=random_regular_graph(3,156,seed=8)",
        "reference_equations": [
          {
            "equation": "max Σ_(i,j∈E) (x_i+x_j−2x_ix_j)",
            "meaning_cs": "Stejný graf jako IBM/Q-CTRL benchmark.",
            "meaning_en": "Same graph as the IBM/Q-CTRL benchmark.",
            "name_cs": "Max-Cut",
            "name_en": "Max-Cut"
          }
        ],
        "task_type": "OPTIMIZATION"
      }
    ],
    "question_modes": [
      "ADMISSIBILITY",
      "CONFLICT_DIAGNOSTIC",
      "FULL_CYCLE",
      "NEAREST_ADMISSIBLE_GOAL",
      "REALIZATION"
    ]
  },
  "certificate_workflow": {
    "access": "Present or download certificates only through the owning result/job workflow and its authorized public endpoint; never guess identifiers or retrieve another user's evidence.",
    "deterministic_result": "Only a realized admissible state can carry the user-facing deterministic-state property. Determinism means the returned realization is bound to its declared run evidence; it is not predicted by an input hash and does not prove global correctness.",
    "input": "Strict large-input routes may return an input certificate that binds the declared source and transport audit; it does not assert realization or pre-result determinism.",
    "output": "A completed run returns its result/audit evidence and the applicable certificate reference for that Run ID."
  },
  "continuation_lifecycle": {
    "SIMULATION": "Not an input question mode. It is a continuation lifecycle: after a valid realization, that realization forms the historical direction for the next state. A fresh identical submission is not a continuation or a statistical replay."
  },
  "data_quality_boundary": "Typed manifests, hashes and explicit constraints can reveal missing, contradictory or malformed declarations before a run. They cannot establish that source data is true, eliminate hallucinations produced elsewhere, or replace independent domain validation.",
  "limits": [
    "A REALIZED_STATE is admissibility evidence in the declared field, not proof of global optimum, external benchmark superiority, causality, safety, or legal validity.",
    "An ordinary realization has no inferred step count. A user-declared bounded-test limit or infrastructure interruption is not evidence that a better state is impossible.",
    "DIMACS-CNF and bounded NPZ archives are available through strict manifest, input-certificate, prepare and explicit-confirmation routes. NPZ accepts only named numeric arrays with exact declared dtype, shape and semantic; object arrays and unknown fields are rejected."
  ],
  "non_prediction_and_realization": {
    "after_realization": {
      "equation": "|Omega_realized,published| = 1",
      "meaning": "A single selected published realization is now a concrete deterministic result event and may become realized history for the next chronon. This does not claim that the total admissible set contains only one state."
    },
    "authoritative_rule": "EvO does not predict a future realization. EvO evaluates which state may be realized in the current declared field; deterministic history is created only when a REALIZED_STATE is published.",
    "before_result": {
      "equation": "|Omega_declared| >= 1",
      "forbidden_inference": "Neither the input hash, prepared-task ID, input certificate nor field encoding identifies the state that will be realized.",
      "meaning": "One or more possibilities may be declared, but no concrete future realization is selected or certified. The admissible subset may still be empty, non-empty or unresolved until evaluation."
    },
    "goal_distance": "A generic forward goal_distance is prohibited because it would imply that a concrete future realization already exists and is merely being approached. PartnerProf reports categorical admissibility and explicit post-realization goal checks instead.",
    "history_rule": "Only a published REALIZED_STATE may enter H_(t+1). A possibility, target, candidate, input hash or unresolved state must never be written as realized history."
  },
  "ok": true,
  "paradigm": "EvO/CML_A is an evolutionary operator of admissible states over a dynamically evolving, unbounded field of dependencies and constraints. A finite dimension is a current numerical slice, not a topology limit. CML_A eliminates states that are inadmissible in the declared poly; realizations alone form the field history. It is quantum-inspired and does not claim to replace quantum mechanics, establish quantum advantage, or establish a scientific conclusion.",
  "published_visible_samples": [
    {
      "problem_family": "quantum_tunneling",
      "sample_id": "quantum_tunneling_demo",
      "visible_run_endpoint": "/api/v2/model/demo-run/quantum_tunneling_demo",
      "what_it_shows": "A published input field executed through the ordinary public route; the response reports the realized state, declared goals, termination and public audit evidence, not protected operator work."
    },
    {
      "problem_family": "ibm_maxcut_5",
      "sample_id": "ibm_maxcut_5_demo",
      "visible_run_endpoint": "/api/v2/model/demo-run/ibm_maxcut_5_demo",
      "what_it_shows": "A published input field executed through the ordinary public route; the response reports the realized state, declared goals, termination and public audit evidence, not protected operator work."
    },
    {
      "problem_family": "quantum_vqe_h2",
      "sample_id": "ibm_h2_vqe_demo",
      "visible_run_endpoint": "/api/v2/model/demo-run/ibm_h2_vqe_demo",
      "what_it_shows": "A published input field executed through the ordinary public route; the response reports the realized state, declared goals, termination and public audit evidence, not protected operator work."
    },
    {
      "problem_family": "quantum_qpe_phase",
      "sample_id": "ibm_qpe_35_demo",
      "visible_run_endpoint": "/api/v2/model/demo-run/ibm_qpe_35_demo",
      "what_it_shows": "A published input field executed through the ordinary public route; the response reports the realized state, declared goals, termination and public audit evidence, not protected operator work."
    },
    {
      "problem_family": "quantum_chsh",
      "sample_id": "ibm_chsh_demo",
      "visible_run_endpoint": "/api/v2/model/demo-run/ibm_chsh_demo",
      "what_it_shows": "A published input field executed through the ordinary public route; the response reports the realized state, declared goals, termination and public audit evidence, not protected operator work."
    },
    {
      "problem_family": "quantum_time_evolution",
      "sample_id": "quantum_time_demo",
      "visible_run_endpoint": "/api/v2/model/demo-run/quantum_time_demo",
      "what_it_shows": "A published input field executed through the ordinary public route; the response reports the realized state, declared goals, termination and public audit evidence, not protected operator work."
    },
    {
      "problem_family": "quantum_vqe_pauli2",
      "sample_id": "ibm_vqe_pauli2_blind",
      "visible_run_endpoint": "/api/v2/model/demo-run/ibm_vqe_pauli2_blind",
      "what_it_shows": "A published input field executed through the ordinary public route; the response reports the realized state, declared goals, termination and public audit evidence, not protected operator work."
    },
    {
      "problem_family": "quantum_xxz_10",
      "sample_id": "ibm_xxz10_blind",
      "visible_run_endpoint": "/api/v2/model/demo-run/ibm_xxz10_blind",
      "what_it_shows": "A published input field executed through the ordinary public route; the response reports the realized state, declared goals, termination and public audit evidence, not protected operator work."
    },
    {
      "problem_family": "ibm_maxcut_156",
      "sample_id": "ibm_maxcut_156_hard",
      "visible_run_endpoint": "/api/v2/model/demo-run/ibm_maxcut_156_hard",
      "what_it_shows": "A published input field executed through the ordinary public route; the response reports the realized state, declared goals, termination and public audit evidence, not protected operator work."
    }
  ],
  "rcs_input": {
    "boundary": "A returned PartnerProf state concerns admissibility of the declared circuit structure. It is not an executed hardware sample, fidelity estimate, probability distribution, or proof of quantum advantage.",
    "contract": "/api/v3/task-manifest#rcs_vocabulary",
    "large_public_source": "For a public Cirq circuit too large for MCP gate_sequence, use partnerprof_prepare_rcs_source with a direct approved source URL and an independently known SHA3-512. The URL identifies input evidence, not an API endpoint.",
    "purpose": "Represent Random Circuit Sampling as circuit structure rather than a manually vectorized numerical description.",
    "source_import_guarantees": [
      "hash verified before parsing",
      "source never executed",
      "all syntax and operations allow-listed",
      "whole-file rejection on any unsupported construct",
      "server-side canonical float64 transport",
      "prepare only; separate execution confirmation remains mandatory"
    ],
    "state_symbols": [
      "circuit_identity",
      "qubit_count",
      "circuit_depth",
      "ordered_gate_sequence",
      "optional_output_bitstring_with_role"
    ]
  },
  "realization_contract": {
    "determinism": "Determinism is bound only when an admissible state is realized. A predeclared deterministic outcome or a claimed deterministic replay is not part of this contract.",
    "elimination": "More explicit dependencies and constraints can reduce the admissible search space before downstream work. Any elimination proportion is run-specific audit evidence, not a universal performance promise.",
    "input": "The input declares possibilities, dependencies and constraints. Its hash proves identity only; it does not predict a result.",
    "output": "Public output reports state events and their auditable parent/history references. Numeric transport values are state symbols, not scalar physical conclusions.",
    "privacy": "The event chain is public and auditable. The protected CML/CML_A structure and its internal quantum-inspired equations are not published."
  },
  "result_interpretation": {
    "ai_instruction": "State the event name, declared limits and explicit goal status. Keep external comparisons post-result. Never describe a non-realized event as a failure merely because its state code is zero. For asynchronous work retain run_id, use its status/progress/result endpoints, and never infer completion from CPU load or aggregate queue depth.",
    "integrity_and_determinism": {
      "determinism": "Determinism is exclusively a property of an already published REALIZED_STATE. It is not a property of the input, future, possibility field or expected target. Do not infer pre-result determinism, a future state or deterministic replay from an input hash, audit hash, signature or storage binding.",
      "input_hash": "Identifies only the submitted field of possibilities, dependencies and constraints. It cannot predict, preselect or certify a concrete future realization.",
      "result_hash_and_certificate": "Bind the returned event and public evidence for integrity and traceability. They do not turn the result into an independent proof of correctness or scientific truth."
    },
    "progress_interpretation": {
      "admissibility": "Categorical state/targeting event, not a scalar score.",
      "goal_distance": "Intentionally absent. EvO goal admissibility is coherent continuation from realized history, not a generic distance function.",
      "progress_fraction": "Null for an ordinary field-terminal run because the necessary chronon count is unknown. Defined only for an explicitly bounded technical test; never probability, confidence, scientific validity, goal distance, or a completion forecast.",
      "unresolved_count": "Number of explicit goal checks not satisfied at a chronon; null when no check list exists."
    },
    "read_before_explaining_results": true,
    "result_events": {
      "DIRECT_CONFLICT": "Declared conditions contain a directly evidenced conflict. It concerns the declared input only and is not a legal, medical, or causal conclusion.",
      "NO_REALIZATION_IN_FIELD": "A valid zero state event: no admissible realization was published in the declared field. It is a result, not an application failure.",
      "REALIZED_STATE": "An admissible state was realized in the declared poly. It is not by itself proof of a global optimum, causal claim, benchmark superiority, or scientific conclusion.",
      "UNREACHABLE_FROM_CURRENT_REALITY": "The requested state may be locally admissible but lacks a coherent continuation from the declared realized history.",
      "UNRESOLVED_WITHIN_DECLARED_SLICE": "A valid bounded result: the declared slice, step or time boundary ended without a realized state or direct conflict. It does not establish impossibility outside that declared boundary."
    },
    "schema": "PartnerProf-ResultInterpretation/1.0",
    "user_feedback": {
      "binding": "Every submitted feedback record is linked to its Run ID.",
      "endpoint": "/api/v3/results/feedback",
      "not_correctness_confirmation": "Feedback never confirms computational correctness, changes a result, or changes a certificate.",
      "positive_checkbox": "The checked statement means that the result and its explanation were understandable and useful to that user.",
      "unchecked": "An unchecked box is recorded as not_rated, never as dissatisfaction."
    }
  },
  "schema": "PartnerProf-KnowledgeMap/1.2",
  "selection_rule": "Use this tool when a user has a constrained state, a feasibility/admissibility question, or a simulation whose valid realized states must remain historically connected. Read task-manifest before preparing data.",
  "state_field_input_rule": {
    "authoritative_rule": "The state field represents reality needed to decide whether a realization can exist. It is not a classical descriptive measurement record and must not be filled with relative values merely because they are available.",
    "belongs_in_field": [
      "state identity or a state symbol",
      "existence and direction of an actual dependency or relation",
      "an admissibility constraint or invariant",
      "published realized history",
      "the explicitly requested target state",
      "an absolute numeric value only when that value itself defines state identity, a real boundary, an invariant, or the target"
    ],
    "does_not_belong_by_default": [
      "relative amplitudes, correlations or coupling strengths used only to describe a system",
      "means, scores, ranks, confidence values or observer-relative summaries",
      "length, energy, frequency, time, distance or precision used only as a classical measuring scale",
      "derived observables that can be calculated after realization"
    ],
    "exception_test": "A relative or measured value may enter only when changing or removing that exact value would change the declared admissibility boundary, state identity, invariant or target. Otherwise keep it outside CML input as post-result comparison or interpretation metadata.",
    "post_realization_rule": "Observables derived from a published REALIZED_STATE belong to subsequent interpretation or a separately declared next chronon. They must not be retroactively inserted into the prepared input that produced that realization.",
    "question": "PartnerProf asks whether a coherent realization exists in the declared reality, not whether the requester has a sufficiently detailed measuring scale to describe it.",
    "relation_rule": "Declare what is connected to what, including direction when real, without inventing a scalar strength. Add magnitude only when magnitude is itself a constraint of reality."
  },
  "termination_and_error_principle": {
    "bounded_test_exception": "A fixed step count is allowed only when the user explicitly asks for a bounded technical experiment. Exhausting it yields UNRESOLVED_WITHIN_DECLARED_SLICE and never proves impossibility.",
    "error_drives_evolution": "A detected mismatch contributes new information about states, dependencies, constraints or the expected realization. When that information updates the admissible field, it can drive the next evolution.",
    "error_flow": "error -> new constraint or information -> updated admissible field -> next evolution",
    "field_terminal_events": [
      "requested state realized",
      "direct declared conflict",
      "no coherent continuation from realized history",
      "another explicitly declared terminal state of the field"
    ],
    "infrastructure_watchdog": "Timeout, watchdog and resource protection are infrastructure events outside reality. Their intervention must be reported as technical interruption, never as a physical, logical or admissibility boundary.",
    "local_stability": "If no error, conflict or unresolved difference changes admissibility in a given local direction, there is no new informational impulse for further evolution in that direction. This does not claim that the whole system or universe stops evolving.",
    "runtime_error_boundary": "Software, transport and infrastructure failures are not evolutionary evidence unless independently validated and deliberately represented as new field information.",
    "termination_rule": "An ordinary realization must not be given an arbitrary fixed max_steps. The required chronon count is not known in advance; evolution ends on a field-defined terminal event."
  }
}