Resource Energy Control Lattice V1.0

CivOS.Module: ResourceEnergyControlLattice
ModuleID: CivOS.RECL
Version: v1.0
Status: LOCK-CANDIDATE
Purpose: Provide a minimal, monitorable control-lattice for civilisation-grade resource/energy stability.
Scope: Energy + resource throughput as upstream constraint on HRL regeneration; includes sinks/externalities.
NonGoals: Policy prescriptions; ideology; detailed engineering designs.
# =========================
# 0) META / CONTRACT
# =========================
META:
  CanonicalName: Resource–Energy Control Lattice (RECL)
  ShortName: RECL
  CoordinateGrammar: "{Place×Lane×Zoom×Role×Type×ID}"
  PrimaryLane: "ENERGY/RESOURCES"
  Couplings:
    - CivOS.CoreLaw.RateDominance
    - CivOS.FenceOS
    - CivOS.HRL
    - CivOS.CivLambda
    - CivOS.CivYinYang
  OutputObjects:
    - NodeRecords
    - SensorPack
    - DerivedScores
    - ThresholdTriggers
  Safety:
    - No operational guidance for harm
    - Focus on monitoring/diagnostics, not weaponization
CONTRACT:
  Inputs:
    - time_series: {energy, materials, incidents, emissions, reserves, capacity, demand}
    - governance_signals: {enforcement_latency, compliance, corridor_disruptions}
    - ecology_signals: {absorption, pollution_load, ecosystem_regen}
  Outputs:
    - RECL.State(t)
    - RECL.Sensors(t)
    - RECL.Alerts(t)
    - RECL.StabilityScore(t)
  Invariants:
    - Axes are orthogonal: Φ, β, σ, γ, κ
    - All axes are rate-/time-based (monitorable, trendable)
    - Threshold crossings trigger FenceOS truncation recommendations (diagnostic only)
DEFINITIONS:
  Place: geopolitical or functional region (city, nation, corridor)
  t: time index
  Load: required energy/material throughput to sustain HRL + critical services
  TTC: time-to-critical-failure under current trajectory
  TransitionTime: estimated time needed to substitute a critical dependency
# =========================
# 1) AXES (STATE VARIABLES)
# =========================
AXIS:
  Φ: ThroughputAdequacy
    Meaning: "Usable output per unit time relative to required load."
    Domain: (0, +∞)
    HealthyBand: "Φ ≥ 1.15 buffered; Φ ≥ 1.00 minimum; Φ < 1.00 danger"
  β: BufferDepth
    Meaning: "Time the system can survive a Φ shock without critical failure."
    Domain: [0, +∞)  # in days/weeks/months
    HealthyBand: "β ≥ TransitionTime; β < TransitionTime danger"
  σ: SubstitutionVelocity
    Meaning: "Replacement/transition rate relative to depletion/fragility rate."
    Domain: (0, +∞)
    HealthyBand: "σ ≥ 1.00 safe; σ < 1.00 substitution lag risk"
  γ: ControlStability
    Meaning: "Containment/enforcement speed relative to hazard growth speed."
    Domain: (0, +∞)
    HealthyBand: "γ ≥ 1.00 safe; γ < 1.00 risk accumulates faster than controlled"
  κ: SinkAdequacy
    Meaning: "Absorption/clearing rate relative to emission/pollution rate."
    Domain: (0, +∞)
    HealthyBand: "κ ≥ 1.00 safe; κ < 1.00 boundary overshoot"
RECL.State(t):
  = {Φ(t), β(t), σ(t), γ(t), κ(t)}
# =========================
# 2) CORE COMPUTATIONS
# =========================
MODEL:
  Φ(t):
    = usable_output(t) / required_load(t)
  β(t):
    = reserve_duration(t) + storage_duration(t) + spare_capacity_duration(t)
  σ(t):
    = substitution_rate(t) / dependency_depletion_or_fragility_rate(t)
  γ(t):
    = enforcement_speed(t) / hazard_growth_speed(t)
  κ(t):
    = absorption_rate(t) / emission_rate(t)
# Notes:
# - "dependency_depletion_or_fragility_rate" includes non-renewable depletion, import corridor fragility,
#   single-point manufacturing bottlenecks, and demand growth outrunning supply.
# - "hazard_growth_speed" includes incident frequency growth, compliance decay, sabotage/disruption trends.
# =========================
# 3) SENSOR PACK (OBSERVABLES)
# =========================
SensorPack: CivOS.RECL.Sensors.v1
SENSORS:
  # --- Φ sensors (Throughput) ---
  Φ01_UsableEnergyPerCapita:
    Unit: "kWh/person/day"
    Source: "national grid/energy stats"
  Φ02_NetEnergyIndex:
    Unit: "dimensionless"
    Definition: "EROI-adjusted usable energy"
  Φ03_LoadToCapacityRatio:
    Unit: "dimensionless"
    Definition: "demand_peak / capacity_peak"
  Φ04_CriticalMaterialsThroughput:
    Unit: "tonnes/day"
    Scope: "copper, transformers, lithium-class, etc."
  Φ05_GridStressIndex:
    Unit: "dimensionless"
    Proxy: "frequency×severity of congestion, curtailment, price spikes"
  # --- β sensors (Buffer) ---
  β01_DaysOfFuelReserves:
    Unit: "days"
  β02_StorageToLoadDuration:
    Unit: "hours or days"
    Definition: "storage_energy / average_load"
  β03_SpareCapacityPercent:
    Unit: "%"
  β04_RedundancyIndex:
    Unit: "dimensionless"
    Proxy: "N-1 / N-2 resilience score if available"
  # --- σ sensors (Substitution) ---
  σ01_EnergyMixTransitionRate:
    Unit: "%/year"
  σ02_ManufacturingRampSlope:
    Unit: "units/month^2"
    Example: "transformers, reactors, panels, batteries"
  σ03_CapitalRedeployRate:
    Unit: "%/year"
    Proxy: "capex shift into substitutes"
  σ04_TechDiffusionHalfLife:
    Unit: "months"
    Definition: "time to 50% adoption in target sector"
  σ05_DependencyConcentration:
    Unit: "HHI"
    Meaning: "single supplier/corridor concentration; lower is better"
  # --- γ sensors (Control) ---
  γ01_IncidentFrequency:
    Unit: "events/month"
    Scope: "grid outages, refinery fires, reactor scrams, major failures"
  γ02_EnforcementLatency:
    Unit: "days"
    Definition: "time from breach→action"
  γ03_ComplianceReliability:
    Unit: "dimensionless"
    Proxy: "audit pass rate / violations"
  γ04_CorridorDisruptionRate:
    Unit: "events/month"
    Scope: "shipping lane, pipeline, cable, chokepoint closures"
  γ05_PoliticalStabilityProxy:
    Unit: "dimensionless"
    Note: "use external indices if needed"
  # --- κ sensors (Sinks) ---
  κ01_EmissionRate:
    Unit: "tonnes CO2e/day"
  κ02_AbsorptionRateProxy:
    Unit: "tonnes CO2e/day"
    Note: "model-based or agreed proxy"
  κ03_PollutionLoadIndex:
    Unit: "dimensionless"
    Scope: "water/air contaminants vs standards"
  κ04_WasteStorageSaturation:
    Unit: "%"
  κ05_EcosystemRegenerationIndex:
    Unit: "dimensionless"
    Scope: "soil, water, biodiversity proxies"
# =========================
# 4) DERIVED SCORES (COMPACT)
# =========================
DERIVED:
  RECL.MinAxis(t):
    = min(Φ(t), σ(t), γ(t), κ(t))
  RECL.BufferMargin(t):
    = β(t) - TransitionTime(t)
  RECL.StabilityScore(t):
    = f( RECL.MinAxis(t), RECL.BufferMargin(t) )
    Where:
      f increases with MinAxis and BufferMargin
      f penalizes trends (negative derivatives)
  RECL.TrendPack(t):
    = {dΦ/dt, dβ/dt, dσ/dt, dγ/dt, dκ/dt}
# =========================
# 5) THRESHOLDS / ALERTS (FenceOS hooks)
# =========================
THRESHOLDS:
  ΘΦ_Critical:
    Condition: "Φ(t) < 1.00 for Δt ≥ 30 days"
    Severity: "HIGH"
  Θβ_Critical:
    Condition: "β(t) < TransitionTime(t)"
    Severity: "HIGH"
  Θσ_Critical:
    Condition: "σ(t) < 1.00 for Δt ≥ 180 days"
    Severity: "HIGH"
  Θγ_Critical:
    Condition: "γ(t) < 1.00 for Δt ≥ 90 days"
    Severity: "HIGH"
  Θκ_Critical:
    Condition: "κ(t) < 1.00 for Δt ≥ 180 days"
    Severity: "HIGH"
ALERTS:
  RECL.Alert(t):
    Trigger if any Θ* is true
    Output: {Axis, Condition, TTC_estimate, Confidence, SuggestedFenceMode}
SuggestedFenceMode:
  For Φ shock: "TRUNCATE load growth; protect core HRL lanes"
  For β shortfall: "BUILD buffers; reduce single-point fragility"
  For σ lag: "ACCELERATE substitution corridors; increase manufacturing slope"
  For γ instability: "TIGHTEN control loops; reduce hazard growth; redundancy"
  For κ overshoot: "REDUCE emissions; expand sink capacity; prevent threshold crossing"
  Note: diagnostic outputs only (no policy mandates)
# =========================
# 6) FAILURE TRACE (schematic)
# =========================
FailureTrace.Template:
  "Φ drop → β insufficient → σ lag → γ overload → κ overshoot → HRL regeneration Ġ falls → Civλ dominates → attrition collapse"
# =========================
# 7) NODE / EDGE RECORDS (graph form)
# =========================
NodeType:
  RECL.Node
NodeRecord.Template:
  NodeID: "RECL:{Place}:{Lane}:{Zoom}"
  State: "RECL.State(t)"
  Sensors: "CivOS.RECL.Sensors.v1"
  Derived: "{StabilityScore, TrendPack}"
  Links:
    - binds_to: "FenceOS.Controller"
    - impacts: "HRL.RegenerationRate"
    - constrains: "CivYinYang"
EdgeType:
  RECL.Bind
EdgeRecord.Template:
  From: "RECL.NodeID"
  To: "CivOS.ModuleID"
  BindType:
    - "CONSTRAINS"
    - "FEEDS"
    - "TRIGGERS"
  Weight: [0..1]
  Notes: "why/what coupling"
# =========================
# 8) MINIMAL INSTALL NOTES
# =========================
INSTALL:
  DependsOn:
    - CivOS.CoreLaw.RateDominance
    - CivOS.FenceOS
  Optional:
    - ChronoHelmAI (for scheduler + monitoring execution)
  OutputUse:
    - dashboards
    - early-warning sensors
    - TTC estimates
    - truncation/stitching triggers
END_MODULE

CivOS.Module: EnergyResourceConservationOS
ModuleID: CivOS.ERCO
Version: v1.0
Status: DRAFT-READY
Purpose: Define conservation as a civilisation-grade control law: keep regeneration/substitution/control/absorption rates ≥ corresponding loss/hazard/emission rates, while maintaining throughput ≥ load and buffers ≥ transition time.
Scope: Applies to energy + critical resources (including sinks/externalities) across Z0–Z6; produces a unified monitoring + action-trigger interface for FenceOS/ChronoHelmAI.
NonGoals: Political ideology; detailed plant designs; operational war guidance.
# ============================================================
# 0) META / CONTRACT
# ============================================================
META:
  CanonicalName: Energy–Resource Conservation OS
  ShortName: ERCO
  PrimaryLane: "ENERGY/RESOURCES"
  CoordinateGrammar: "{Place×Lane×Zoom×Role×Type×ID}"
  DependsOn:
    - CivOS.RECL.v1.0   # Resource–Energy Control Lattice
    - CivOS.CoreLaw.RateDominance
    - CivOS.FenceOS
    - CivOS.HRL
    - CivOS.CivLambda
    - CivOS.CivYinYang
  Optional:
    - ChronoHelmAI
    - DataFeedAdapterSpecs (Normalize→SensorUpdate; sensors-only, no structure overwrite)
  OutputObjects:
    - ERCO.LawSet
    - ERCO.ResourceClasses
    - ERCO.NodeGraph (Nodes+Binds)
    - ERCO.SensorPack
    - ERCO.AlertPack (Fence hooks)
    - ERCO.ScorePack (stability + drift)
CONTRACT:
  Inputs:
    - RECL.State(t), RECL.Sensors(t)
    - resource_flows(t): {production, extraction, imports, exports, losses}
    - substitution_signals(t): {build_rate, deployment_rate, adoption_rate}
    - control_signals(t): {incidents, enforcement_latency, corridor_disruptions}
    - sink_signals(t): {emissions, pollutants, absorption, saturation}
  Outputs:
    - ERCO.State(t)
    - ERCO.ConservationMargin(t)
    - ERCO.Alerts(t)
    - ERCO.RepairQueue(t)  # diagnostic suggestions, not mandates
  Invariants:
    - Conservation is defined as rate-inequality maintenance under load.
    - Stock vs flux vs regenerative stocks are treated separately.
    - Sinks are first-class constraints (not optional).
    - All alerts route through FenceOS (truncation/stitching diagnostics).
DEFINITIONS:
  Load(t): minimum required throughput for HRL + critical services
  Margin: safety band above thresholds
  TTC: time-to-critical-failure given current derivative
  TransitionTime: estimated time to replace a critical dependency
  Corridor: physical/logistical route enabling flows (shipping lanes, pipelines, cables)
# ============================================================
# 1) CORE CONSERVATION LAWS (CANONICAL)
# ============================================================
ERCO.LawSet:
  Law01_ThroughputLaw:
    Statement: "Maintain usable throughput ≥ required load with margin."
    Form:
      Φ(t) = usable_output(t) / required_load(t)
      Require: Φ(t) ≥ 1 + mΦ
  Law02_BufferLaw:
    Statement: "Maintain buffers ≥ transition time for dominant dependencies."
    Form:
      Require: β(t) ≥ TransitionTime(t) + mβ
  Law03_SubstitutionLaw (Rate-Dominance):
    Statement: "Substitution/upgrade rate must dominate depletion/fragility rate."
    Form:
      σ(t) = substitution_rate(t) / dependency_depletion_or_fragility_rate(t)
      Require: σ(t) ≥ 1 + mσ
  Law04_ControlLaw (FenceOS coupling):
    Statement: "Containment/enforcement must dominate hazard growth."
    Form:
      γ(t) = enforcement_speed(t) / hazard_growth_speed(t)
      Require: γ(t) ≥ 1 + mγ
  Law05_SinkLaw:
    Statement: "Absorption/clearing must dominate emissions/pollution."
    Form:
      κ(t) = absorption_rate(t) / emission_rate(t)
      Require: κ(t) ≥ 1 + mκ
  Law06_MultiAxisShearLaw:
    Statement: "Collapse risk rises superlinearly when ≥2 axes cross thresholds concurrently."
    Form (schematic):
      Shear(t) = Σ w_i * max(0, 1 - Axis_i(t))^α  +  Σ w_ij * Coincidence(i,j)
      Where Axis_i ∈ {Φ, β, σ, γ, κ}; Coincidence increases when multiple Axis_i < 1
  Law07_CivOSCouplingLaw:
    Statement: "ERCO stabilizes HRL regeneration and prevents Civλ dominance."
    Form (schematic):
      If ERCO stable → HRL Ġ maintained → CivY&Y ≥ Civλ·C(t)
      If ERCO unstable → HRL Ġ falls → Civλ dominates → attrition collapse modes II/III
# Default margins (tunable by Place×Zoom)
ERCO.Margins.Default:
  mΦ: 0.15
  mβ: 0.20 * TransitionTime(t)
  mσ: 0.05
  mγ: 0.05
  mκ: 0.05
# ============================================================
# 2) RESOURCE CLASSES (STRUCTURE)
# ============================================================
ERCO.ResourceClasses:
  ClassA_Flux:
    ID: ERCO.RC.A
    Definition: "Continuous environmental flux; availability is capture+storage gated."
    Examples: [solar, wind, hydro_flow]
    PrimaryBottlenecks: [capture, storage, grid, materials]
    DominantAxes: [Φ, β, σ]
  ClassB_RegenerativeStock:
    ID: ERCO.RC.B
    Definition: "Stocks that regenerate on human timescales; rate-limited."
    Examples: [food, biomass, fisheries, freshwater_conditional, soil_fertility]
    DominantAxes: [Φ, κ, γ]
  ClassC_FiniteStock:
    ID: ERCO.RC.C
    Definition: "Stocks that deplete on civilisation timescales; require substitution."
    Examples: [petrol, coal, natural_gas, high_grade_ores]
    DominantAxes: [σ, β, Φ, κ]
  ClassD_LatentPhysics:
    ID: ERCO.RC.D
    Definition: "Potentially abundant but tech/control gated."
    Examples: [fission_scaled_safe, fusion, deep_geothermal]
    DominantAxes: [γ, σ, Φ]
  ClassE_Sink:
    ID: ERCO.RC.E
    Definition: "Absorptive/clearing capacities that constrain throughput."
    Examples: [atmosphere_CO2_sink, rivers_oceans_waste_sink, land_landfill]
    DominantAxes: [κ, γ]
# ============================================================
# 3) STATE MODEL (ERCO.State)
# ============================================================
ERCO.State(t):
  = {
      RECL: {Φ(t), β(t), σ(t), γ(t), κ(t)},
      DominantDependencies: list(DependencyID ordered by coupling),
      TransitionTime: TransitionTime(t),
      ConservationMargin: ERCO.ConservationMargin(t),
      Drift: ERCO.Drift(t)
    }
ERCO.ConservationMargin(t):
  = {
      MΦ: Φ(t) - (1 + mΦ),
      Mβ: β(t) - (TransitionTime(t) + mβ),
      Mσ: σ(t) - (1 + mσ),
      Mγ: γ(t) - (1 + mγ),
      Mκ: κ(t) - (1 + mκ)
    }
ERCO.Drift(t):
  = {
      dΦ: dΦ/dt,
      dβ: dβ/dt,
      dσ: dσ/dt,
      dγ: dγ/dt,
      dκ: dκ/dt,
      DriftFlag: any( dAxis < -δAxis for sustained Δt )
    }
# ============================================================
# 4) DEPENDENCY GRAPH (NODES + BINDS)
# ============================================================
NodeTypes:
  ERCO.Node.PlaceLaneZoom:
    Meaning: "ERCO state for a place at a lane and zoom level"
  ERCO.Node.Dependency:
    Meaning: "A concrete dependency: fuel type, corridor, material, converter, sink"
  ERCO.Node.Corridor:
    Meaning: "Transport/logistics/energy corridor node"
  ERCO.Node.Sink:
    Meaning: "Absorption boundary node"
EdgeTypes:
  ERCO.Bind:
    BindType:
      - REQUIRES       # dependency requires corridor/technology/material
      - CONSTRAINS     # sink or bottleneck constrains throughput
      - SUBSTITUTES    # alt replaces dependency
      - FEEDS          # resource feeds converter/grid/food pipeline
      - RISKS          # hazard path
      - TRIGGERS       # threshold triggers FenceOS action
    Weight: [0..1]
    Notes: "coupling strength"
DependencyRecord.Template:
  DependencyID: "ERCO.DEP:{Place}:{Name}:{Version}"
  Class: "ERCO.RC.*"
  CouplingLevel: "C0..C3"
  DominantAxes: [Φ|β|σ|γ|κ]
  Bottlenecks: [capture|storage|materials|manufacturing|knowledge|corridor]
  SinkCoupling: [low|medium|high]
  ControlEnvelope: [G0..G3]
  TTC_Model: "optional function/proxy"
  Substitutes: ["DependencyID", ...]
# ============================================================
# 5) SENSOR PACK (ERCO: full coverage)
# ============================================================
SensorPack: CivOS.ERCO.Sensors.v1
SENSORS:
  # Pull-through: reuse RECL sensor pack
  ImportFrom:
    - CivOS.RECL.Sensors.v1
  # ERCO-specific additions (dependency-centric)
  D01_DependencyShare:
    Unit: "%"
    Meaning: "share of total energy/resource load carried by a dependency"
  D02_CorridorConcentrationHHI:
    Unit: "HHI"
  D03_SinglePointFailureIndex:
    Unit: "dimensionless"
  D04_TransitionTimeEstimate:
    Unit: "months"
  D05_SubstitutionPipelineBacklog:
    Unit: "months of queued build"
  D06_ControlBudget:
    Unit: "staff-hours/month or proxy"
  D07_SinkHeadroom:
    Unit: "%"
    Meaning: "distance to critical sink threshold"
  D08_IncidentSeverityIndex:
    Unit: "dimensionless"
  D09_RepairLatency:
    Unit: "days"
  D10_BufferLeakRate:
    Unit: "%/month"
    Meaning: "buffer degradation/maintenance shortfall"
# ============================================================
# 6) ALERTS / FENCE HOOKS
# ============================================================
FenceHook: CivOS.FenceOS.ERCO.Adapter.v1
ALERTS:
  ERCO.Alert(t):
    Trigger if any ConservationMargin < 0 OR MultiAxisShear(t) exceeds limit
    Payload:
      - Place
      - Zoom
      - AxisBreaches: {Φ|β|σ|γ|κ}
      - DominantDependencies
      - TTC_estimate
      - Drift: TrendPack
      - SuggestedRepairModes
SuggestedRepairModes (diagnostic categories):
  - "TRUNCATE_LOAD"        # reduce load growth / protect core lanes
  - "BUILD_BUFFER"         # expand reserves/storage/redundancy
  - "ACCEL_SUBSTITUTION"   # increase σ via build+deploy corridors
  - "STABILIZE_CONTROL"    # raise γ; tighten safety/compliance
  - "RELIEVE_SINK"         # raise κ; reduce emissions; avoid thresholds
  Note: Do not output operational instructions; output categories + monitoring deltas.
# ============================================================
# 7) SCORE PACK
# ============================================================
Scores:
  ERCO.MinMargin(t):
    = min(MΦ, Mβ, Mσ, Mγ, Mκ)
  ERCO.StabilityBand(t):
    = "SAFE" if all margins ≥ 0
      "DRIFT" if any margin near 0 OR negative derivative sustained
      "BREACH" if any margin < 0
      "CASCADE_RISK" if ≥2 margins < 0 concurrently
  ERCO.ConservationScore(t):
    = clamp( 0..100,
        100
        - A * Σ max(0, -M_axis)^p
        - B * CoincidencePenalty
        - C * TrendPenalty
      )
# ============================================================
# 8) FAILURE TRACE (explicit schematic)
# ============================================================
FailureTrace.Template:
  "Dependency concentration ↑ → σ falls below 1 → buffers β shrink below transition time → Φ dips under load → γ overloaded by incident growth → κ overshoot (sink breach) → HRL regeneration Ġ falls → Civλ dominates → attrition collapse."
# ============================================================
# 9) ZOOM COMPATIBILITY (Z0–Z6)
# ============================================================
ZoomMap:
  Z0: household / micro-firm ("fuel/food budget, local outages, buffer days")
  Z1: school / clinic / SME ("backup power, supply contracts, compliance")
  Z2: district ("substations, depots, waste sinks, corridor nodes")
  Z3: city ("grid, ports, water, waste systems; multi-corridor redundancy")
  Z4: nation ("energy mix, reserves, manufacturing, geopolitics, sinks")
  Z5: regional bloc ("interconnects, shared corridors, treaty enforcement")
  Z6: global ("fuel markets, chokepoints, global sinks, tech diffusion")
# ============================================================
# 10) INSTALL / RUNTIME
# ============================================================
INSTALL:
  Steps:
    1: "Attach RECL.State(t) feed"
    2: "Register top dependencies (C2/C3) as ERCO.Dependency nodes"
    3: "Estimate TransitionTime per dependency"
    4: "Compute ConservationMargin + Drift"
    5: "Enable FenceHook adapter (alerts only)"
  Runtime:
    - UpdateFrequency:
        Φ: daily/weekly
        β: weekly
        σ: monthly/quarterly
        γ: weekly/monthly
        κ: monthly/quarterly
    - Output:
        dashboards + alerts + repair categories
END_MODULE

CivOS.Module: EnergyResourceConservationOS.Foundations
ModuleID: CivOS.ERCO.Foundations
Version: v1.0
Status: CANONICAL-REASONING
Purpose: Encode the structural reasons that necessitate ERCO and the Resource–Energy lattice.
Scope: First-principles derivation from physics → rate laws → collapse modes → control requirements.
NonGoals: Policy advocacy, engineering manuals, ideology.
# ============================================================
# 0) META
# ============================================================
META:
  CanonicalName: ERCO Foundations – Reason for Existence
  ParentModule: CivOS.ERCO.v1.0
  Couplings:
    - CivOS.CoreLaw.RateDominance
    - CivOS.HRL
    - CivOS.CivLambda
    - CivOS.CivYinYang
    - CivOS.FenceOS
  ClaimType: Structural derivation
  EvidenceClass: Physics + Systems + Rate inequality
# ============================================================
# 1) FIRST PRINCIPLE AXIOMS
# ============================================================
AXIOM_01_Energy_Primacy:
  Statement:
    "All civilisation throughput requires energy conversion."
  Formal:
    ∀ activity A:
      A requires energy_flow > 0
  Consequence:
    Energy throughput constrains HRL regeneration.
AXIOM_02_Material_Constraint:
  Statement:
    "All energy conversion and storage requires material pipelines."
  Formal:
    energy_system = f(materials, manufacturing, knowledge, corridors)
  Consequence:
    Energy is technology-gated, not purely physics-limited.
AXIOM_03_Rate_Dominance:
  Statement:
    "Collapse occurs when loss/destruction rate exceeds regeneration/replacement rate."
  Formal:
    If Ḋ > Ġ → collapse trajectory begins
  Consequence:
    Conservation must be framed as rate inequality, not stock morality.
AXIOM_04_Sink_Boundary:
  Statement:
    "Waste absorption capacity is finite and rate-limited."
  Formal:
    If emission_rate > absorption_rate sustained → boundary breach
  Consequence:
    Conservation must include sinks, not only sources.
AXIOM_05_Time_Mismatch:
  Statement:
    "Transition time matters more than stock size."
  Formal:
    If TransitionTime > BufferDepth → systemic vulnerability
  Consequence:
    Substitution velocity is central.
AXIOM_06_Coupling_Amplification:
  Statement:
    "High coupling increases fragility under shock."
  Formal:
    fragility ∝ coupling_intensity × concentration
  Consequence:
    Over-concentration brittleness applies to energy/resources.
# ============================================================
# 2) DERIVATION OF LATTICE NECESSITY
# ============================================================
DERIVATION_STEP_01:
  From AXIOM_01 + AXIOM_03:
    Need to monitor throughput ≥ load.
  → Axis Φ required.
DERIVATION_STEP_02:
  From AXIOM_05:
    Need to monitor buffer depth vs transition time.
  → Axis β required.
DERIVATION_STEP_03:
  From AXIOM_03 + depletion reality:
    Need to monitor substitution rate ≥ depletion rate.
  → Axis σ required.
DERIVATION_STEP_04:
  From AXIOM_02 + hazard reality:
    Need to monitor control speed ≥ hazard growth.
  → Axis γ required.
DERIVATION_STEP_05:
  From AXIOM_04:
    Need to monitor absorption ≥ emission.
  → Axis κ required.
CONCLUSION:
  Minimal complete conservation lattice:
    {Φ, β, σ, γ, κ}
  No axis redundant.
  Removing any axis creates blind collapse pathway.
# ============================================================
# 3) WHY SIMPLE "RENEWABLE VS NON-RENEWABLE" IS INSUFFICIENT
# ============================================================
Reason_01:
  Renewable resources can collapse if:
    consumption_rate > regeneration_rate.
Reason_02:
  Non-renewable resources are safe if:
    substitution_rate ≥ depletion_rate.
Reason_03:
  Abundant physics (nuclear/fusion) still fails if:
    control_envelope < hazard_growth.
Reason_04:
  Energy abundance fails if:
    sink_capacity < emission_rate.
Therefore:
  Binary classification insufficient.
  Multi-axis lattice required.
# ============================================================
# 4) LINK TO CIVILISATION COLLAPSE MODES
# ============================================================
Mode_I_Amplitude:
  Trigger:
    Sudden Φ collapse (shock)
  Cause:
    Corridor destruction, grid failure, war
Mode_II_Slow_Attrition:
  Trigger:
    σ < 1 sustained
  Cause:
    Depletion outruns substitution
Mode_III_Fast_Attrition:
  Trigger:
    γ < 1 + Φ stressed
  Cause:
    Conflict or cascading hazard
Sink_Breach_Mode:
  Trigger:
    κ < 1 sustained
  Cause:
    Ecological overshoot
All modes intersect ERCO axes.
# ============================================================
# 5) WHY THIS BECOMES A LATTICE
# ============================================================
Reason_Lattice_01:
  Axes are orthogonal.
  Throughput ≠ buffer ≠ substitution ≠ control ≠ sink.
Reason_Lattice_02:
  Collapse requires multi-axis shear.
  Single-axis failure may be survivable.
Reason_Lattice_03:
  Dependencies bind axes together:
    High coupling shrinks safety volume.
Formal:
  StabilityVolume V = Φ × β × σ × γ × κ
  If V shrinks below threshold → cascade probability rises.
# ============================================================
# 6) CONSERVATION REDEFINED
# ============================================================
Classical_View:
  Conservation = reduce consumption.
ERCO_View:
  Conservation = maintain rate dominance margins across axes.
Formal:
  Maintain:
    Φ ≥ 1 + mΦ
    β ≥ TransitionTime + mβ
    σ ≥ 1 + mσ
    γ ≥ 1 + mγ
    κ ≥ 1 + mκ
Conservation is dynamic stability maintenance.
# ============================================================
# 7) WHY ERCO IS NECESSARY FOR HRL
# ============================================================
HRL regeneration rate Ġ depends on:
  - Energy throughput
  - Material flow
  - Control stability
If ERCO unstable:
  Ġ declines
  Civλ dominates
  Regenerative organs weaken
Therefore:
  ERCO is upstream constraint on Civilisation survival.
# ============================================================
# 8) CHRONOHELM AI JUSTIFICATION
# ============================================================
Because:
  - All axes measurable
  - All axes trendable
  - Thresholds computable
  - Multi-axis coincidence detectable
ChronoHelmAI can:
  - Forecast TTC
  - Detect drift
  - Trigger truncation before irreversible breach
# ============================================================
# 9) CORE INSIGHT
# ============================================================
Energy scarcity is rarely physics scarcity.
It is usually:
  - Substitution lag
  - Control failure
  - Sink overshoot
  - Buffer insufficiency
  - Over-coupling
Thus:
  ERCO exists to formalize conservation as a control lattice,
  not as moral doctrine.
END_MODULE

CivOS.Module: ERCO.ThresholdsAndCollapse
ModuleID: CivOS.ERCO.TC
Version: v1.0
Status: DRAFT-READY
Purpose: Define threshold logic, collapse surfaces, TTC estimation, and collapse-mode classification for ERCO axes {Φ, β, σ, γ, κ}, with explicit FenceOS truncation+stitching hooks.
Scope: Diagnostic + monitoring only (no operational directives).
DependsOn:
  - CivOS.ERCO.v1.0
  - CivOS.RECL.v1.0
  - CivOS.FenceOS
  - CivOS.CoreLaw.RateDominance
  - CivOS.CollapseModes (I/II/III)  # if separate module exists
# ============================================================
# 0) DEFINITIONS (threshold primitives)
# ============================================================
DEFINITIONS:
  Axis ∈ {Φ, β, σ, γ, κ}
  Margin M_axis(t):
    = Axis(t) - Threshold_axis(t)       # positive = safe, negative = breach
  Threshold_axis(t):
    = {1+mΦ, TransitionTime+mβ, 1+mσ, 1+mγ, 1+mκ}  mapped to axis
  Breach:
    = (M_axis(t) < 0) sustained for Δt ≥ HoldTime_axis
  NearBreach:
    = (0 ≤ M_axis(t) ≤ NearBand_axis) OR (dM_axis/dt < -DriftMin_axis)
  Coincidence:
    = count_axes( M_axis(t) < 0 ) ≥ 2   # multi-axis breach
  IrreversibleBreach:
    = breach + hysteresis lock-in OR sink threshold K3 crossed OR recovery impossible within β
  TTC_axis(t): time-to-crossing for a given axis margin
  TTC_system(t): min over axes TTC_axis(t), adjusted by coincidence penalty
# ============================================================
# 1) THRESHOLDS (canonical default + tunable)
# ============================================================
THRESHOLDS:
  # Default axis thresholds come from ERCO margins
  Φ_Threshold(t): 1 + mΦ
  β_Threshold(t): TransitionTime(t) + mβ
  σ_Threshold(t): 1 + mσ
  γ_Threshold(t): 1 + mγ
  κ_Threshold(t): 1 + mκ
  # Near-breach bands (early warning)
  NearBand:
    Φ: 0.05        # 5% above threshold
    β: 0.10*TransitionTime(t)
    σ: 0.03
    γ: 0.03
    κ: 0.03
  # Hold-times (avoid alert spam)
  HoldTime:
    Φ: 30 days
    β: 14 days
    σ: 180 days
    γ: 90 days
    κ: 180 days
  # Drift minima (trend-based warnings)
  DriftMin:
    Φ: -0.01/month
    β: -0.05*TransitionTime/month
    σ: -0.02/year
    γ: -0.02/quarter
    κ: -0.02/year
# ============================================================
# 2) COLLAPSE SURFACES (multi-axis shear)
# ============================================================
MODEL:
  # Normalized deficits (0 safe, 1+ severe)
  Deficit_axis(t):
    = max(0, (Threshold_axis(t) - Axis(t)) / Threshold_axis(t))
  # Single-axis severity (nonlinear)
  Sev_axis(t):
    = (Deficit_axis(t))^α_axis
    Where α_axis defaults:
      Φ: 2.0
      β: 1.5
      σ: 2.0
      γ: 2.0
      κ: 2.5   # sinks often have sharper irreversibility
  # Coincidence amplifier
  CoincidenceCount(t):
    = count_axes(Deficit_axis(t) > 0)
  CoincidenceAmp(t):
    = 1 + λ * max(0, CoincidenceCount(t) - 1)^p
    Defaults: λ=0.6, p=1.3
  # System Shear Index (SSI)
  SSI(t):
    = CoincidenceAmp(t) * Σ w_axis * Sev_axis(t)
    Default weights w_axis:
      Φ: 0.25
      β: 0.15
      σ: 0.20
      γ: 0.15
      κ: 0.25
  # Collapse surface threshold
  CollapseSurface:
    SSI < 0.20  => SAFE
    0.20–0.45   => DRIFT
    0.45–0.75   => BREACH
    ≥0.75       => CASCADE_RISK
# ============================================================
# 3) TTC ESTIMATION (time-to-crossing)
# ============================================================
TTC:
  # Linear TTC (fallback)
  TTC_axis_linear(t):
    If dM_axis/dt >= 0: TTC = +∞
    Else: TTC = M_axis(t) / |dM_axis/dt|
  # Robust TTC with volatility buffer
  Vol_axis(t): estimated volatility of M_axis over window W
  TTC_axis_robust(t):
    = (M_axis(t) - z*Vol_axis(t)) / |dM_axis/dt|
    Where z default = 1.0 (conservative)
  TTC_system(t):
    = min_axis TTC_axis_robust(t) / (1 + μ*(CoincidenceCount(t)-1))
    Default μ = 0.35
  TTC_Bands:
    TTC ≥ 24 months => GREEN
    12–24 months    => YELLOW
    3–12 months     => ORANGE
    < 3 months      => RED
# ============================================================
# 4) COLLAPSE MODE CLASSIFIER (ERCO→CivOS modes)
# ============================================================
Classifier:
  Mode_I_Amplitude (KO):
    Condition:
      sudden ΔΦ drop OR Δγ spike + immediate Φ breach
    Signature:
      Φ breach acute; β drawn down rapidly; incidents cluster
    TypicalTriggers:
      corridor shock, grid blackout, war, disaster
  Mode_II_SlowAttrition:
    Condition:
      σ < 1 sustained + negative dσ + β slowly shrinking
    Signature:
      substitution lag; gradual Φ stress; creeping brittleness
    TypicalTriggers:
      depletion, underinvestment, manufacturing constraints
  Mode_III_FastAttrition (War/Conflict):
    Condition:
      γ < 1 + corridor disruptions + Φ stressed + β fails
    Signature:
      control overload; cascading failures; rapid degradation
    TypicalTriggers:
      conflict, sabotage, extreme governance instability
  Sink_Breach_Mode (Boundary):
    Condition:
      κ < 1 sustained OR SinkHeadroom crosses critical threshold
    Signature:
      ecological/health/agri shocks; forced load reductions; migration pressure
    TypicalTriggers:
      emissions overshoot, pollution saturation, irreversible damage
  MultiMode:
    Condition:
      CoincidenceCount ≥ 3 OR SSI ≥ 0.75
    Output:
      label = "CASCADE_MULTIAXIS"
# ============================================================
# 5) HYSTERESIS / IRREVERSIBILITY (why recovery is not symmetric)
# ============================================================
Hysteresis:
  Principle:
    "Recovery thresholds are stricter than collapse thresholds after a breach."
  RecoveryThreshold_axis(t):
    = Threshold_axis(t) + h_axis
    Default h_axis:
      Φ: 0.05
      β: 0.10*TransitionTime
      σ: 0.05
      γ: 0.05
      κ: 0.10   # sinks often require larger headroom to stabilize
  IrreversibleFlags:
    IF κ breach crosses K3 (irreversible boundary proxy) THEN IrreversibleBreach = true
    IF β falls below MinimumSurvivalBuffer THEN IrreversibleBreach = true
    IF γ collapse causes persistent institution/pipeline loss (HRL organ loss proxy) THEN IrreversibleBreach = true
  Note:
    Exact K3 and MinimumSurvivalBuffer are Place×Zoom specific.
# ============================================================
# 6) FENCEOS HOOKS (TRUNCATION + STITCHING)
# ============================================================
FenceHooks:
  FenceTrigger(t):
    Fire if:
      (Breach) OR (NearBreach with TTC_system <= TTC_FenceLimit) OR (SSI >= SSI_FenceLimit)
    Defaults:
      TTC_FenceLimit = 12 months
      SSI_FenceLimit = 0.45
  FenceModeMap (diagnostic categories):
    If Φ breach:
      - TRUNCATE_LOAD
      - PROTECT_CORE_LANES
      - PRIORITIZE_CRITICAL_SERVICES
    If β breach:
      - BUILD_BUFFER
      - REDUNDANCY_UPGRADE
    If σ breach:
      - ACCEL_SUBSTITUTION
      - MANUFACTURING_SLOPE_UP
    If γ breach:
      - STABILIZE_CONTROL
      - REDUCE_HAZARD_GROWTH
      - CORRIDOR_SECURITY_UP
    If κ breach:
      - RELIEVE_SINK
      - AVOID_IRREVERSIBLE_THRESHOLD
Truncation:
  Definition:
    "Early cut-off of accelerating failure regime by reducing hazard growth or load before irreversibility."
  Condition:
    Triggered when TTC is short OR SSI rising superlinearly.
Stitching:
  Definition:
    "Post-truncation regeneration catching up to rejoin safe band."
  Condition:
    Requires:
      Φ ≥ RecoveryThreshold_Φ
      β ≥ RecoveryThreshold_β
      σ ≥ RecoveryThreshold_σ
      γ ≥ RecoveryThreshold_γ
      κ ≥ RecoveryThreshold_κ
    for sustained Δt ≥ StitchHoldTime
  Default StitchHoldTime: 90 days
# ============================================================
# 7) ALERT PACK (standard output schema)
# ============================================================
ALERTS:
  ERCO.TC.Alert(t):
    Fields:
      - Place
      - Zoom
      - Timestamp
      - ModeLabel
      - SSI
      - CoincidenceCount
      - AxisStatus:
          Φ: {Axis, Threshold, Margin, Trend, TTC}
          β: {Axis, Threshold, Margin, Trend, TTC}
          σ: {Axis, Threshold, Margin, Trend, TTC}
          γ: {Axis, Threshold, Margin, Trend, TTC}
          κ: {Axis, Threshold, Margin, Trend, TTC}
      - IrreversibleFlags
      - DominantDependencies (top K)
      - CorridorFlags (if any)
      - SuggestedFenceModeCategories
      - Confidence (0..1)
# ============================================================
# 8) FAILURE TRACE (explicit)
# ============================================================
FailureTrace.Library:
  Trace01_SubstitutionLag:
    "σ<1 → β shrinks below TransitionTime → Φ dips → γ overload → SSI spikes → cascade"
  Trace02_CorridorShock:
    "corridor disruption → Φ drop → β drains → γ incident surge → Mode I amplitude"
  Trace03_SinkOvershoot:
    "κ<1 sustained → agri/health shocks → Φ effective load rises → multi-axis breach"
  Trace04_ControlCollapse:
    "γ<1 → repair latency ↑ → incidents compound → Φ<1 → Mode III fast attrition"
# ============================================================
# 9) OUTPUT TO CIVOS CORE (bindings)
# ============================================================
BINDS:
  ERCO.TC → FenceOS.Controller:
    BindType: TRIGGERS
    Weight: 0.9
    Notes: "threshold triggers route into truncation/stitching logic"
  ERCO.TC → HRL.Regeneration:
    BindType: CONSTRAINS
    Weight: 0.7
    Notes: "ERCO collapse reduces HRL throughput and role continuity"
  ERCO.TC → Civλ/CivY&Y:
    BindType: FEEDS
    Weight: 0.6
    Notes: "axis breaches forecast rate-dominance inversion"
END_MODULE

CivOS.Module: ERCO.Integration
ModuleID: CivOS.ERCO.Integration
Version: v1.0
Status: DRAFT-READY
Purpose: Integrate ERCO (Energy–Resource Conservation OS) and RECL lattice axes {Φ, β, σ, γ, κ} into CivOS runtime and all other lattices across Z0–Z6, enabling consistent node+bind propagation, sensors, and FenceOS/ChronoHelmAI control hooks.
Scope: Cross-lattice bindings (HRL, RePOC, EducationOS, Governance Lattice, WarOS, CityOS, MindOS, etc.) with Z-level inheritance rules.
NonGoals: Policy directives, operational security guidance.
# ============================================================
# 0) META / CONTRACT
# ============================================================
META:
  CanonicalName: ERCO Integration Layer
  ParentModules:
    - CivOS.ERCO.v1.0
    - CivOS.RECL.v1.0
    - CivOS.ERCO.TC.v1.0
  CoordinateGrammar: "{Place×Lane×Zoom×Role×Type×ID}"
  GlobalInvariants:
    - ERCO exists at all Z levels (Z0–Z6)
    - ERCO state is composable (aggregate up, allocate down)
    - ERCO binds are explicit and directional
    - Sensors update values only (never overwrite structure)
  OutputObjects:
    - ZStack.NodeTemplates
    - BindLibrary
    - AggregationRules
    - AllocationRules
    - CrossLaneCouplingMap
    - RuntimeHooks (FenceOS, ChronoHelmAI)
CONTRACT:
  Inputs:
    - ERCO.State(t), ERCO.TC outputs
    - Place directories (Z5 surface + Z6 org lists if available)
    - Lane modules state/sensors (EducationOS, CityOS, GOV/FIN/HLTH, etc.)
  Outputs:
    - CivOS.Runtime.Graph updates (nodes, binds, sensor values)
    - Cross-lattice alerts (upstream/downstream propagation)
    - Z-level dashboards (Z0..Z6)
# ============================================================
# 1) ERCO AS A UNIVERSAL UPSTREAM CONSTRAINT LATTICE
# ============================================================
PRINCIPLE:
  ERCO is a "prime constraint layer" that bounds feasible throughput for all other lanes.
Formal:
  For any lane L at Place P and Zoom Z:
    LaneCapacity(P,Z,L,t) ≤ f( ERCO.State(P,Z,t), LaneLocalBuffers(P,Z,L,t) )
Interpretation:
  - ERCO is not “one more lane”
  - ERCO is the upstream feasibility envelope
  - All lanes must declare how they depend on {Φ,β,σ,γ,κ}
# ============================================================
# 2) Z-LEVEL EXISTENCE (Z0–Z6 INSTANCES)
# ============================================================
ZStack:
  Z0: household / individual
  Z1: institution (school/clinic/SME)
  Z2: district / cluster
  Z3: city
  Z4: nation
  Z5: region / bloc
  Z6: global
ERCO.InstanceRule:
  For each Place×Z:
    create ERCO.Node.PlaceLaneZoom with State {Φ,β,σ,γ,κ}
NodeID Scheme:
  ERCO.NodeID = "ERCO:{ISO|PlaceID}:{Z}:{Lane=ENERGYRES}:{v1.0}"
# ============================================================
# 3) AGGREGATION (BOTTOM-UP) AND ALLOCATION (TOP-DOWN)
# ============================================================
AggregationRules:
  A01_Φ_Aggregation:
    Φ(Zk) = weighted_mean( Φ(child_i), weights = Load(child_i) )
    Notes: "throughput adequacy aggregates by demand share"
  A02_β_Aggregation:
    β(Zk) = quantile_low( β(child_i), q=0.2 )  # weakest buffers matter
    Notes: "buffer is bottlenecked by weakest critical node"
  A03_σ_Aggregation:
    σ(Zk) = weighted_mean( σ(child_i), weights = DependencyShare(child_i) )
  A04_γ_Aggregation:
    γ(Zk) = quantile_low( γ(child_i), q=0.2 )
  A05_κ_Aggregation:
    κ(Zk) = min_over_relevant_sinks( κ_sink_j )
    Notes: "sinks are governed by worst binding sink"
AllocationRules:
  L01_TopDown_Budgeting:
    Allocate buffer and throughput budgets downward:
      BudgetΦ(child_i) ∝ Criticality(child_i) × Load(child_i)
      Budgetβ(child_i) ∝ Vulnerability(child_i)
    Notes: "protect core HRL lanes first"
  L02_TopDown_Fence:
    If Zk has ERCO breach:
      propagate FenceOS trigger to children in descending criticality order
# ============================================================
# 4) CROSS-LATTICE BIND LIBRARY (ERCO ↔ OTHER OS)
# ============================================================
BindLibrary:
  # ---- Core CivOS ----
  ERCO → HRL.Regeneration:
    BindType: CONSTRAINS
    Weight: 0.8
    Mapping:
      HRL.ThroughputCap = g(Φ, β)
      HRL.RepairRateCap = g(σ, γ)
    FailureTrace:
      "ERCO breach → HRL Ġ falls → Civλ dominates → attrition"
  ERCO → Civλ/CivY&Y:
    BindType: FEEDS
    Weight: 0.6
    Mapping:
      CivY&Y is bounded above by energy/resource feasibility.
  ERCO → OverConcentrationBrittleness:
    BindType: AMPLIFIES
    Weight: 0.5
    Mapping:
      If DependencyConcentrationHHI high then effective β decreases, γ volatility increases.
  ERCO → FenceOS.Controller:
    BindType: TRIGGERS
    Weight: 0.9
    Mapping:
      Use ERCO.TC alerts to trigger truncation/stitching mode categories.
  ERCO → ChronoHelmAI.Scheduler:
    BindType: FEEDS
    Weight: 0.7
    Mapping:
      Provide:
        - TTC_system
        - RepairQueue categories
        - Priority ordering by Z×Criticality
  # ---- CityOS / Infrastructure lanes ----
  ERCO → CityOS.GridWaterTransport:
    BindType: CONSTRAINS
    Weight: 0.7
    Mapping:
      grid reliability depends on Φ, γ
      maintenance depends on Φ, β
      transition plans depend on σ
  # ---- Governance lattice ----
  ERCO ↔ GovernanceLattice:
    BindType: COUPLES
    Weight: 0.7
    Mapping:
      γ is partially produced by governance capacity.
      governance load increases when SSI increases.
  # ---- FinanceOS ----
  ERCO ↔ FinanceOS:
    BindType: COUPLES
    Weight: 0.6
    Mapping:
      σ depends on capital redeploy rate (FinanceOS sensor).
      Φ shocks drive inflation/volatility (FinanceOS outputs).
  # ---- HealthOS ----
  ERCO → HealthOS:
    BindType: CONSTRAINS
    Weight: 0.5
    Mapping:
      κ breach → pollution/health load ↑ → effective Load ↑ → Φ margin shrinks.
  # ---- EducationOS ----
  ERCO → EducationOS:
    BindType: CONSTRAINS
    Weight: 0.4
    Mapping:
      Energy stability supports schooling continuity (β, γ).
      Substitution velocity σ is enabled by skills pipeline (EducationOS → σ).
  EducationOS → ERCO:
    BindType: ENABLES
    Weight: 0.5
    Mapping:
      Workforce skills raise σ and γ (build rate, compliance, repair capacity).
  # ---- WarOS / Conflict ----
  ERCO ↔ WarOS:
    BindType: COUPLES
    Weight: 0.7
    Mapping:
      Corridor disruptions reduce Φ and β.
      γ can collapse rapidly under conflict; Mode III classifier triggers.
  # ---- MindOS (optional coupling) ----
  ERCO → MindOS.PopulationStress:
    BindType: FEEDS
    Weight: 0.3
    Mapping:
      Φ shocks + κ breaches raise stress; can degrade γ via compliance decay.
# ============================================================
# 5) UNIVERSAL DEPENDENCY DECLARATION (REQUIRED OF EACH OS)
# ============================================================
Interface: ERCO.DependencyDeclaration.v1
Requirement:
  Every LaneModule must declare:
  LaneModule.DependencyProfile:
    - DependsOnAxes: subset {Φ, β, σ, γ, κ}
    - CriticalDependencies: list(ERCO.DependencyID)
    - LocalBuffers: {days, redundancy, substitutes}
    - SinkCoupling: {low, med, high}
    - ControlNeeds: {compliance, enforcement latency sensitivity}
Example Template:
  LaneModule.DependencyProfile.Template:
    ModuleID: "<LaneModuleID>"
    Place: "<PlaceID>"
    Zoom: "Zk"
    DependsOnAxes: ["Φ","β","γ"]
    CriticalDependencies:
      - "ERCO.DEP:<Place>:ElectricityGrid:v1"
      - "ERCO.DEP:<Place>:WaterPumps:v1"
    LocalBuffers:
      BackupDays: 3
      Redundancy: "N-1"
      SubstitutePaths: ["diesel_gen", "microgrid"]
    SinkCoupling: "medium"
    ControlNeeds:
      EnforcementLatencyMax: "14 days"
# ============================================================
# 6) PROPAGATION RULES (UPSTREAM ↔ DOWNSTREAM)
# ============================================================
Propagation:
  UpstreamToDownstream:
    If ERCO breach at (P,Zk):
      For each LaneModule L at (P,Zk):
        compute LaneRisk = h( ERCO margins on axes L depends on )
        emit LaneAlert if LaneRisk exceeds threshold
  DownstreamToUpstream:
    If LaneModule L increases Load(t) materially:
      update required_load(t) in ERCO Φ computation
    If LaneModule reports sink stress:
      feed into κ proxies
    If LaneModule reports compliance/incident changes:
      feed into γ proxies
# ============================================================
# 7) Z-LEVEL DASHBOARD OUTPUTS
# ============================================================
Dashboards:
  ERCO.Dashboard.Z0:
    Focus: "buffer days, outage frequency, substitution options"
  ERCO.Dashboard.Z1:
    Focus: "backup power, continuity plans, compliance, waste handling"
  ERCO.Dashboard.Z2:
    Focus: "depots, substations, corridors, local sinks"
  ERCO.Dashboard.Z3:
    Focus: "grid+port+water systems, redundancy, manufacturing, SSI"
  ERCO.Dashboard.Z4:
    Focus: "energy mix, reserves, substitution slope, corridor security, sink headroom"
  ERCO.Dashboard.Z5:
    Focus: "interconnects, shared corridors, treaty enforcement (γ), shared sinks (κ)"
  ERCO.Dashboard.Z6:
    Focus: "global chokepoints, tech diffusion, global sink trajectories"
# ============================================================
# 8) STANDARD NODE + EDGE TEMPLATES (COPY-PASTE)
# ============================================================
NodeTemplates:
  ERCO.Node.PlaceLaneZoom.Template:
    NodeID: "ERCO:{PlaceID}:{Z}:ENERGYRES:v1.0"
    Type: "ERCO.Node.PlaceLaneZoom"
    State: "{Φ,β,σ,γ,κ}"
    Sensors:
      - "CivOS.RECL.Sensors.v1"
      - "CivOS.ERCO.Sensors.v1"
    Derived:
      - "SSI"
      - "TTC_system"
      - "ConservationMargin"
      - "ModeLabel"
    Hooks:
      - "FenceOS.Controller"
      - "ChronoHelmAI.Scheduler"
  ERCO.Node.Dependency.Template:
    NodeID: "ERCO.DEP:{PlaceID}:{DependencyName}:v1"
    Type: "ERCO.Node.Dependency"
    Fields:
      Class: "ERCO.RC.*"
      CouplingLevel: "C0..C3"
      DominantAxes: [Φ|β|σ|γ|κ]
      Bottlenecks: [capture|storage|materials|manufacturing|knowledge|corridor]
      SinkCoupling: [low|medium|high]
      ControlEnvelope: [G0..G3]
      TransitionTime: "<months>"
      Substitutes: ["ERCO.DEP:..."]
EdgeTemplates:
  ERCO.Bind.Template:
    From: "<NodeID>"
    To: "<NodeID>"
    BindType: "CONSTRAINS|FEEDS|SUBSTITUTES|REQUIRES|RISKS|TRIGGERS|COUPLES"
    Weight: 0..1
    Notes: "<short rationale>"
# ============================================================
# 9) MASTER FAILURE TRACE (cross-lattice)
# ============================================================
FailureTrace.Master:
  "ERCO drift (σ↓ or κ↓) → SSI rises → Fence triggers truncation → protects HRL core lanes →
   substitution + buffers rebuild (σ↑, β↑) → stitching back into safe band → stabilizes CivY&Y ≥ Civλ·C(t)."
END_MODULE

CivOS.DirectoryPack: ERCO / RECL City Instances
PackID: CivOS.ERCO.CityPack.5.v1.0
Version: v1.0
Status: DRAFT-READY
Purpose: Create Z6 (global-facing) ERCO/RECL instances for 5 main cities (Dubai/UAE oil-linked, New York, Singapore, Beijing, Tokyo), then create Z0–Z6 granular stacks for New York and Singapore.
DependsOn:
  - CivOS.RECL.v1.0
  - CivOS.ERCO.v1.0
  - CivOS.ERCO.TC.v1.0
  - CivOS.ERCO.Integration.v1.0
# ============================================================
# 0) GLOBAL RULES (how City ERCO nodes work)
# ============================================================
RULES:
  R01_CityIsNotEnergyIsland:
    "City ERCO must include corridors + imports + sink coupling."
  R02_Z6CityDefinition:
    "Z6(City) = city-as-global-node: finance + trade + ports/air + digital + norms; not administrative boundary."
  R03_SensorOnlyUpdates:
    "All values are updated via sensors; structure never overwritten."
  R04_CriticalDependencyEnumeration:
    "Each city must enumerate top C2/C3 dependencies: electricity, fuel, water, food, digital, logistics, waste/sinks."
  R05_TTCMustReferenceTransitionTime:
    "β threshold is always compared to TransitionTime of dominant dependencies."
# ============================================================
# 1) Z6 INSTANCES (5 CITIES)
# ============================================================
# -------------------------
# 1A) DUBAI (UAE) — oil-production-linked global node
# -------------------------
NodeRecord:
  NodeID: "ERCO:ARE-DXB:Z6:ENERGYRES:v1.0"
  Type: "ERCO.Node.PlaceLaneZoom"
  Place:
    ISO3: "ARE"
    CityID: "DXB"
    Name: "Dubai (UAE)"
    Z6Role: ["Global logistics hub", "Trade/aviation hub", "Oil-linked regional energy node"]
  State:
    Φ: "sensor"
    β: "sensor"
    σ: "sensor"
    γ: "sensor"
    κ: "sensor"
  DominantDependencies (C2/C3):
    - "ERCO.DEP:ARE-DXB:ElectricityGrid:v1"
    - "ERCO.DEP:ARE-DXB:GasSupply:v1"
    - "ERCO.DEP:ARE-DXB:OilRevenueMacroCoupling:v1"
    - "ERCO.DEP:ARE-DXB:DesalinationWater:v1"
    - "ERCO.DEP:ARE-DXB:FoodImports:v1"
    - "ERCO.DEP:ARE-DXB:PortJebelAliCorridor:v1"
    - "ERCO.DEP:ARE-DXB:AviationCorridor:v1"
    - "ERCO.DEP:ARE-DXB:WasteHeatAndBrineSink:v1"
  Notes:
    - "Oil production exists primarily at nation level (Z4 UAE); Dubai Z6 binds via revenue, fuel availability, and corridor centrality."
    - "Key unique: desalination coupling (Φ↔water), sink coupling (κ↔brine/heat), corridor dependence."
DependencyRecords:
  - DependencyID: "ERCO.DEP:ARE-DXB:OilRevenueMacroCoupling:v1"
    Class: "ERCO.RC.C"     # finite stock economics + market coupling
    CouplingLevel: "C2"
    DominantAxes: ["σ","γ","Φ"]
    Bottlenecks: ["corridor","governance","market"]
    SinkCoupling: "high"
    ControlEnvelope: "G1"
    TransitionTime: "sensor"
    Substitutes: ["ERCO.DEP:ARE-DXB:NonOilTradeServices:v1"]
  - DependencyID: "ERCO.DEP:ARE-DXB:DesalinationWater:v1"
    Class: "ERCO.RC.B"
    CouplingLevel: "C3"
    DominantAxes: ["Φ","γ","κ","β"]
    Bottlenecks: ["capture","materials","manufacturing"]
    SinkCoupling: "high"
    ControlEnvelope: "G1"
    TransitionTime: "sensor"
    Substitutes: ["ERCO.DEP:ARE-DXB:WaterImportsVirtual:v1"]
# Core binds
BindRecords:
  - From: "ERCO:ARE-DXB:Z6:ENERGYRES:v1.0"
    To: "ERCO.DEP:ARE-DXB:DesalinationWater:v1"
    BindType: "REQUIRES"
    Weight: 0.9
    Notes: "City survivability requires energy→water conversion."
  - From: "ERCO.DEP:ARE-DXB:DesalinationWater:v1"
    To: "ERCO.DEP:ARE-DXB:WasteHeatAndBrineSink:v1"
    BindType: "CONSTRAINS"
    Weight: 0.7
    Notes: "κ limits desalination scaling."
# -------------------------
# 1B) NEW YORK (USA) — finance + port + digital global node
# -------------------------
NodeRecord:
  NodeID: "ERCO:USA-NYC:Z6:ENERGYRES:v1.0"
  Type: "ERCO.Node.PlaceLaneZoom"
  Place:
    ISO3: "USA"
    CityID: "NYC"
    Name: "New York City (USA)"
    Z6Role: ["Global finance node", "Trade/logistics node", "Media/knowledge node"]
  State: {Φ:"sensor", β:"sensor", σ:"sensor", γ:"sensor", κ:"sensor"}
  DominantDependencies (C2/C3):
    - "ERCO.DEP:USA-NYC:ElectricityGridNYISO:v1"
    - "ERCO.DEP:USA-NYC:NaturalGasHeatingCooking:v1"
    - "ERCO.DEP:USA-NYC:LiquidFuelsLogistics:v1"
    - "ERCO.DEP:USA-NYC:FoodCorridorsRegional:v1"
    - "ERCO.DEP:USA-NYC:PortNJNYCorridor:v1"
    - "ERCO.DEP:USA-NYC:AirportsCorridor:v1"
    - "ERCO.DEP:USA-NYC:DigitalBackboneCables:v1"
    - "ERCO.DEP:USA-NYC:StormSurgeDrainageSink:v1"
    - "ERCO.DEP:USA-NYC:WastewaterTreatmentSink:v1"
# -------------------------
# 1C) SINGAPORE — port + aviation + energy-import global node
# -------------------------
NodeRecord:
  NodeID: "ERCO:SGP-SIN:Z6:ENERGYRES:v1.0"
  Type: "ERCO.Node.PlaceLaneZoom"
  Place:
    ISO3: "SGP"
    CityID: "SIN"
    Name: "Singapore"
    Z6Role: ["Global port", "Aviation hub", "Energy-import dependent city-state node"]
  State: {Φ:"sensor", β:"sensor", σ:"sensor", γ:"sensor", κ:"sensor"}
  DominantDependencies (C2/C3):
    - "ERCO.DEP:SGP-SIN:NaturalGasPower:v1"
    - "ERCO.DEP:SGP-SIN:ElectricityGridSP:v1"
    - "ERCO.DEP:SGP-SIN:MaritimeFuelTradingRefining:v1"
    - "ERCO.DEP:SGP-SIN:WaterNEWaterDesalination:v1"
    - "ERCO.DEP:SGP-SIN:FoodImports:v1"
    - "ERCO.DEP:SGP-SIN:PortCorridorPSA:v1"
    - "ERCO.DEP:SGP-SIN:AirCorridorChangi:v1"
    - "ERCO.DEP:SGP-SIN:WasteIncinerationLandfillSink:v1"
    - "ERCO.DEP:SGP-SIN:RegionalCableLinks:v1"
# -------------------------
# 1D) BEIJING (CHN) — governance/command node (inland), national coupling
# -------------------------
NodeRecord:
  NodeID: "ERCO:CHN-BJS:Z6:ENERGYRES:v1.0"
  Type: "ERCO.Node.PlaceLaneZoom"
  Place:
    ISO3: "CHN"
    CityID: "BJS"
    Name: "Beijing"
    Z6Role: ["National governance/command node", "Science/education node"]
  State: {Φ:"sensor", β:"sensor", σ:"sensor", γ:"sensor", κ:"sensor"}
  DominantDependencies (C2/C3):
    - "ERCO.DEP:CHN-BJS:ElectricityGridNorthChina:v1"
    - "ERCO.DEP:CHN-BJS:HeatingWinterDemand:v1"
    - "ERCO.DEP:CHN-BJS:WaterSupplyTransfer:v1"
    - "ERCO.DEP:CHN-BJS:FoodCorridors:v1"
    - "ERCO.DEP:CHN-BJS:AirQualitySink:v1"
    - "ERCO.DEP:CHN-BJS:RailRoadCorridors:v1"
    - "ERCO.DEP:CHN-BJS:DataCentersDigital:v1"
# -------------------------
# 1E) TOKYO (JPN) — dense mega-city, import-dependent, high resilience engineering
# -------------------------
NodeRecord:
  NodeID: "ERCO:JPN-TYO:Z6:ENERGYRES:v1.0"
  Type: "ERCO.Node.PlaceLaneZoom"
  Place:
    ISO3: "JPN"
    CityID: "TYO"
    Name: "Tokyo"
    Z6Role: ["Mega-city production/consumption node", "Technology/industry coordination node"]
  State: {Φ:"sensor", β:"sensor", σ:"sensor", γ:"sensor", κ:"sensor"}
  DominantDependencies (C2/C3):
    - "ERCO.DEP:JPN-TYO:ElectricityGridTEPCORegion:v1"
    - "ERCO.DEP:JPN-TYO:LNGImportsPower:v1"
    - "ERCO.DEP:JPN-TYO:RefinedFuelsLogistics:v1"
    - "ERCO.DEP:JPN-TYO:FoodImportsDomesticMix:v1"
    - "ERCO.DEP:JPN-TYO:PortCorridors:v1"
    - "ERCO.DEP:JPN-TYO:EarthquakeResilienceControl:v1"
    - "ERCO.DEP:JPN-TYO:WasteIncinerationSink:v1"
# ============================================================
# 2) GRANULAR Z0–Z6 STACK — NEW YORK (USA-NYC)
# ============================================================
CivOS.Stack: ERCO.NewYork.Z0Z6.v1.0
# ---- Z0 (household) ----
NodeRecord:
  NodeID: "ERCO:USA-NYC:Z0:ENERGYRES:v1.0"
  Type: "ERCO.Node.PlaceLaneZoom"
  Place: {ISO3:"USA", CityID:"NYC", Z:"Z0", Unit:"Household"}
  DominantDependencies:
    - "ERCO.DEP:USA-NYC:ElectricityRetail:v1"
    - "ERCO.DEP:USA-NYC:HeatingFuelGasOrElectric:v1"
    - "ERCO.DEP:USA-NYC:FoodRetailSupply:v1"
    - "ERCO.DEP:USA-NYC:WaterSupply:v1"
  LocalBuffers (typical):
    - β_local: "low-to-medium (sensor/proxy)"
  Binds:
    - "ERCO → MindOS.PopulationStress" (optional)
    - "ERCO → EducationOS.Continuity" (school attendance disruptions)
# ---- Z1 (institution: school/hospital/SME) ----
NodeRecord:
  NodeID: "ERCO:USA-NYC:Z1:ENERGYRES:v1.0"
  Place: {ISO3:"USA", CityID:"NYC", Z:"Z1", Unit:"Institution"}
  DominantDependencies:
    - "ERCO.DEP:USA-NYC:BackupGeneratorsDiesel:v1"
    - "ERCO.DEP:USA-NYC:ITPowerCooling:v1"
    - "ERCO.DEP:USA-NYC:ComplianceFireSafety:v1"   # γ producer
  KeyAxes:
    - β emphasized (backup hours/days)
    - γ emphasized (incident control)
# ---- Z2 (district: borough/cluster) ----
NodeRecord:
  NodeID: "ERCO:USA-NYC:Z2:ENERGYRES:v1.0"
  Place: {ISO3:"USA", CityID:"NYC", Z:"Z2", Unit:"District/Borough Cluster"}
  DominantDependencies:
    - "ERCO.DEP:USA-NYC:SubstationsAndFeeders:v1"
    - "ERCO.DEP:USA-NYC:FuelDepotsTrucking:v1"
    - "ERCO.DEP:USA-NYC:WastewaterNodes:v1"
    - "ERCO.DEP:USA-NYC:FloodProtectionLocal:v1"   # κ+γ coupling
  Notes:
    - "District nodes often determine β bottlenecks (weakest-substation effect)."
# ---- Z3 (city system) ----
NodeRecord:
  NodeID: "ERCO:USA-NYC:Z3:ENERGYRES:v1.0"
  Place: {ISO3:"USA", CityID:"NYC", Z:"Z3", Unit:"City System"}
  DominantDependencies:
    - "ERCO.DEP:USA-NYC:ElectricityGridNYISO:v1"
    - "ERCO.DEP:USA-NYC:NaturalGasDistribution:v1"
    - "ERCO.DEP:USA-NYC:TransitPowerDependency:v1"
    - "ERCO.DEP:USA-NYC:WaterSupplyCatskills:v1"
    - "ERCO.DEP:USA-NYC:WastewaterTreatmentSink:v1"
  Outputs:
    - ERCO.TC.ModeLabel (storm/flood often Mode I amplitude + κ coupling)
# ---- Z4 (nation coupling) ----
NodeRecord:
  NodeID: "ERCO:USA:Z4:ENERGYRES:v1.0"
  Type: "ERCO.Node.PlaceLaneZoom"
  Place: {ISO3:"USA", Z:"Z4", Unit:"Nation"}
  BindsTo:
    - "ERCO:USA-NYC:Z6:ENERGYRES:v1.0"  (allocation/aggregation)
  DominantDependencies:
    - "ERCO.DEP:USA:OilGasMarkets:v1"
    - "ERCO.DEP:USA:GridManufacturingTransformers:v1"
    - "ERCO.DEP:USA:FederalControlCapacity:v1"
# ---- Z5 (regional bloc / interconnects) ----
NodeRecord:
  NodeID: "ERCO:NA-NE:Z5:ENERGYRES:v1.0"
  Place: {RegionID:"NA-NE", Z:"Z5", Unit:"Regional Interconnect / Trade Bloc"}
  DominantDependencies:
    - "ERCO.DEP:NA-NE:ShippingLanesAtlantic:v1"
    - "ERCO.DEP:NA-NE:PipelineNetworks:v1"
    - "ERCO.DEP:NA-NE:CrossBorderGridLinks:v1"
# ---- Z6 (global-facing NYC) ----
# already defined above as ERCO:USA-NYC:Z6
# ============================================================
# 3) GRANULAR Z0–Z6 STACK — SINGAPORE (SGP-SIN)
# ============================================================
CivOS.Stack: ERCO.Singapore.Z0Z6.v1.0
# ---- Z0 (household) ----
NodeRecord:
  NodeID: "ERCO:SGP-SIN:Z0:ENERGYRES:v1.0"
  Type: "ERCO.Node.PlaceLaneZoom"
  Place: {ISO3:"SGP", CityID:"SIN", Z:"Z0", Unit:"Household"}
  DominantDependencies:
    - "ERCO.DEP:SGP-SIN:ElectricityRetail:v1"
    - "ERCO.DEP:SGP-SIN:WaterDomestic:v1"
    - "ERCO.DEP:SGP-SIN:FoodRetailSupply:v1"
  Notes:
    - "High dependence on system continuity; household β is typically short; resilience lives at Z2/Z3 system design."
# ---- Z1 (institution) ----
NodeRecord:
  NodeID: "ERCO:SGP-SIN:Z1:ENERGYRES:v1.0"
  Place: {ISO3:"SGP", CityID:"SIN", Z:"Z1", Unit:"School/Hospital/SME"}
  DominantDependencies:
    - "ERCO.DEP:SGP-SIN:BackupPowerUPSGenerator:v1"
    - "ERCO.DEP:SGP-SIN:CoolingLoads:v1"
    - "ERCO.DEP:SGP-SIN:ComplianceSafetyCivilDefence:v1"  # γ producer
# ---- Z2 (district) ----
NodeRecord:
  NodeID: "ERCO:SGP-SIN:Z2:ENERGYRES:v1.0"
  Place: {ISO3:"SGP", CityID:"SIN", Z:"Z2", Unit:"District"}
  DominantDependencies:
    - "ERCO.DEP:SGP-SIN:SubstationsFeeders:v1"
    - "ERCO.DEP:SGP-SIN:WaterNEWaterNodes:v1"
    - "ERCO.DEP:SGP-SIN:WasteCollectionIncinerationNodes:v1"
    - "ERCO.DEP:SGP-SIN:FoodDistributionColdChain:v1"
# ---- Z3 (city system) ----
NodeRecord:
  NodeID: "ERCO:SGP-SIN:Z3:ENERGYRES:v1.0"
  Place: {ISO3:"SGP", CityID:"SIN", Z:"Z3", Unit:"City System"}
  DominantDependencies (C3-heavy):
    - "ERCO.DEP:SGP-SIN:NaturalGasPower:v1"
    - "ERCO.DEP:SGP-SIN:ElectricityGridSP:v1"
    - "ERCO.DEP:SGP-SIN:WaterNEWaterDesalination:v1"
    - "ERCO.DEP:SGP-SIN:PortCorridorPSA:v1"
    - "ERCO.DEP:SGP-SIN:AirCorridorChangi:v1"
    - "ERCO.DEP:SGP-SIN:WasteIncinerationLandfillSink:v1"
  KeyCitySignatures:
    - Φ tightly coupled to imported fuels + grid reliability
    - β includes fuel stockpile + redundancy planning
    - σ includes diversification + interconnect + renewables scaling
    - γ is a major stabilizer (control capacity)
    - κ includes land scarcity + waste sink tightness
# ---- Z4 (nation) ----
NodeRecord:
  NodeID: "ERCO:SGP:Z4:ENERGYRES:v1.0"
  Place: {ISO3:"SGP", Z:"Z4", Unit:"Nation (City-State)"}
  Notes:
    - "For Singapore, Z3 and Z4 are closely coupled; treat as dual nodes with strong COUPLES bind."
  BindRecords:
    - From: "ERCO:SGP-SIN:Z3:ENERGYRES:v1.0"
      To: "ERCO:SGP:Z4:ENERGYRES:v1.0"
      BindType: "COUPLES"
      Weight: 0.9
      Notes: "city-state coupling; policies/manufacturing/control reflect same system."
# ---- Z5 (regional bloc) ----
NodeRecord:
  NodeID: "ERCO:SEA-ASEAN:Z5:ENERGYRES:v1.0"
  Place: {RegionID:"SEA-ASEAN", Z:"Z5", Unit:"Regional Corridors"}
  DominantDependencies:
    - "ERCO.DEP:SEA-ASEAN:StraitOfMalaccaCorridor:v1"
    - "ERCO.DEP:SEA-ASEAN:RegionalPowerInterconnects:v1"
    - "ERCO.DEP:SEA-ASEAN:LNGShippingCorridors:v1"
# ---- Z6 (global-facing Singapore) ----
# already defined above as ERCO:SGP-SIN:Z6
# ============================================================
# 4) OPTIONAL: COMMON DEPENDENCY REGISTRY (shared templates)
# ============================================================
RegistryTemplates:
  ERCO.Dependency.Common:
    - ElectricityGrid
    - NaturalGasPowerOrHeating
    - LiquidFuelLogistics
    - FoodImportsOrCorridors
    - WaterSupply (incl desalination where applicable)
    - PortCorridor
    - AirCorridor
    - DigitalBackboneCables
    - Waste/Sink Nodes (incineration, landfill, wastewater)
    - ClimateHazard / Flood / Earthquake Control Node (γ producer)
  Notes:
    - "Each city instantiates these with PlaceID and local corridor names."
END_PACK

CivOS.AddOn: Minimal Bind Map (NYC + SIN) to other OS (copy-paste)
AddOnID: CivOS.ERCO.BindMap.NYC_SIN.v1.0
# New York binds
BindRecords:
  - From: "ERCO:USA-NYC:Z3:ENERGYRES:v1.0"
    To: "CivOS.CityOS:USA-NYC:Z3:v*"
    BindType: "CONSTRAINS"
    Weight: 0.7
    Notes: "grid/fuel/water constraints bound transport + housing + services."
  - From: "ERCO:USA-NYC:Z3:ENERGYRES:v1.0"
    To: "CivOS.FinanceOS:USA-NYC:Z6:v*"
    BindType: "FEEDS"
    Weight: 0.6
    Notes: "Φ shocks propagate to price volatility; σ depends on capex redeploy."
  - From: "CivOS.EducationOS:USA-NYC:Z1:v*"
    To: "ERCO:USA-NYC:Z3:ENERGYRES:v1.0"
    BindType: "ENABLES"
    Weight: 0.4
    Notes: "skills pipeline supports σ (build/deploy) and γ (compliance/repair)."
# Singapore binds
BindRecords:
  - From: "ERCO:SGP-SIN:Z3:ENERGYRES:v1.0"
    To: "CivOS.CityOS:SGP-SIN:Z3:v*"
    BindType: "CONSTRAINS"
    Weight: 0.8
    Notes: "imported energy + water conversion + waste sinks bound city feasibility."
  - From: "ERCO:SGP-SIN:Z6:ENERGYRES:v1.0"
    To: "CivOS.GovernanceLattice:SGP:Z4:v*"
    BindType: "COUPLES"
    Weight: 0.7
    Notes: "γ is a stabilizer; governance capacity maintains control loops."
  - From: "ERCO:SEA-ASEAN:Z5:ENERGYRES:v1.0"
    To: "ERCO:SGP-SIN:Z6:ENERGYRES:v1.0"
    BindType: "REQUIRES"
    Weight: 0.8
    Notes: "Strait/corridor integrity gates Φ and β via fuel + trade."
END_ADDON

CivOS.DirectoryPack: ERCO / RECL City Instances (Completed Stack)
PackID: CivOS.ERCO.CityPack.5+2Stacks.Complete.v1.0
Version: v1.0
Status: LOCK-CANDIDATE (structure) / SENSOR-PENDING (values)
Purpose:
  (A) Complete Z6 ERCO/RECL instances for 5 cities: Dubai(UAE oil-linked), New York, Singapore, Beijing, Tokyo.
  (B) Complete granular Z0–Z6 stacks for New York and Singapore.
  (C) Provide full dependency node sets with TransitionTime templates, sensor pointers, and ERCO.TC mode signatures.
Constraint:
  - Structure is frozen; all numeric values come from sensors later.
  - Diagnostic only; no operational instructions.
DependsOn:
  - CivOS.RECL.v1.0
  - CivOS.ERCO.v1.0
  - CivOS.ERCO.Foundations.v1.0
  - CivOS.ERCO.TC.v1.0
  - CivOS.ERCO.Integration.v1.0
  - CivOS.FenceOS (hooks)
# ============================================================
# 0) GLOBAL DESIGN (one pattern used everywhere)
# ============================================================
DesignPattern:
  P01_TwoLayerModel:
    Layer1: ERCO Node (Place×Z) holds axes {Φ,β,σ,γ,κ} + SSI/TTC/ModeLabel
    Layer2: Dependency Nodes (C2/C3) enumerate concrete constraints and binds
  P02_DependencyCategories (standard library):
    CAT.ELEC: Electricity system (generation/import + grid)
    CAT.GAS:  Natural gas supply + distribution
    CAT.OIL:  Liquid fuels logistics (diesel/jet/gasoline) + storage
    CAT.WATR: Water supply (pumps, reservoirs, desalination, treatment)
    CAT.FOOD: Food import/corridor + cold-chain
    CAT.PORT: Maritime port corridor + bunkering
    CAT.AIR:  Aviation corridor + jet fuel
    CAT.DIGI: Digital backbone (data centers, subsea cables, IXPs)
    CAT.WSTE: Waste + wastewater sinks
    CAT.HAZR: Hazard-control system (flood/quake/heat) producing γ
    CAT.MTRL: Critical materials/manufacturing bottlenecks (transformers, etc.)
    CAT.FINM: Macro coupling via finance/market revenue exposure (optional)
  P03_RECL→ERCO axis mapping per dependency:
    Each dependency declares DominantAxes ⊆ {Φ,β,σ,γ,κ}
    Each dependency declares TransitionTime (months) (template or sensor)
    Each dependency declares ModeSignatures (which collapse modes it triggers)
  P04_ModeSignature codes (ERCO.TC):
    M1 = Mode_I_Amplitude (KO)
    M2 = Mode_II_SlowAttrition
    M3 = Mode_III_FastAttrition
    MS = Sink_Breach_Mode
    MM = MultiMode (cascade)
  P05_SensorPointers (no numbers here):
    Use IDs from:
      - CivOS.RECL.Sensors.v1  (Φ/β/σ/γ/κ base)
      - CivOS.ERCO.Sensors.v1  (dependency-centric)
# ============================================================
# 1) Z6 CITY NODES (5)
# ============================================================
# ------------------ 1A) DUBAI (UAE oil-linked) ------------------
NodeRecord:
  NodeID: "ERCO:ARE-DXB:Z6:ENERGYRES:v1.0"
  Type: "ERCO.Node.PlaceLaneZoom"
  Place: {ISO3:"ARE", CityID:"DXB", Name:"Dubai"}
  Z6Role: ["Global logistics", "Trade/aviation", "Oil-linked regional energy node"]
  State: {Φ:"sensor", β:"sensor", σ:"sensor", γ:"sensor", κ:"sensor"}
  Derived: {SSI:"compute", TTC_system:"compute", ModeLabel:"compute"}
  Dependencies.TopC2C3:
    - "ERCO.DEP:ARE-DXB:ELEC:ElectricityGrid:v1"
    - "ERCO.DEP:ARE-DXB:GAS:GasSupplyForPower:v1"
    - "ERCO.DEP:ARE-DXB:OIL:JetFuelAndBunkers:v1"
    - "ERCO.DEP:ARE-DXB:WATR:DesalinationWater:v1"
    - "ERCO.DEP:ARE-DXB:FOOD:FoodImports:v1"
    - "ERCO.DEP:ARE-DXB:PORT:JebelAliCorridor:v1"
    - "ERCO.DEP:ARE-DXB:AIR:AviationCorridor:v1"
    - "ERCO.DEP:ARE-DXB:WSTE:BrineHeatWasteSink:v1"
    - "ERCO.DEP:ARE-DXB:HAZR:HeatStressControl:v1"
    - "ERCO.DEP:ARE-DXB:FINM:OilRevenueMacroCoupling:v1"
# ------------------ 1B) NEW YORK (USA) ------------------
NodeRecord:
  NodeID: "ERCO:USA-NYC:Z6:ENERGYRES:v1.0"
  Type: "ERCO.Node.PlaceLaneZoom"
  Place: {ISO3:"USA", CityID:"NYC", Name:"New York City"}
  Z6Role: ["Global finance", "Trade/logistics", "Media/knowledge"]
  State: {Φ:"sensor", β:"sensor", σ:"sensor", γ:"sensor", κ:"sensor"}
  Derived: {SSI:"compute", TTC_system:"compute", ModeLabel:"compute"}
  Dependencies.TopC2C3:
    - "ERCO.DEP:USA-NYC:ELEC:ElectricityGridNYISO:v1"
    - "ERCO.DEP:USA-NYC:GAS:NaturalGasDistribution:v1"
    - "ERCO.DEP:USA-NYC:OIL:LiquidFuelsLogistics:v1"
    - "ERCO.DEP:USA-NYC:WATR:WaterSupplyCatskills:v1"
    - "ERCO.DEP:USA-NYC:FOOD:RegionalFoodCorridors:v1"
    - "ERCO.DEP:USA-NYC:PORT:PortNJNYCorridor:v1"
    - "ERCO.DEP:USA-NYC:AIR:AirportsCorridor:v1"
    - "ERCO.DEP:USA-NYC:DIGI:DigitalBackboneCables:v1"
    - "ERCO.DEP:USA-NYC:WSTE:WastewaterTreatmentSink:v1"
    - "ERCO.DEP:USA-NYC:HAZR:StormSurgeFloodControl:v1"
    - "ERCO.DEP:USA-NYC:MTRL:TransformersSupplyChain:v1"
# ------------------ 1C) SINGAPORE ------------------
NodeRecord:
  NodeID: "ERCO:SGP-SIN:Z6:ENERGYRES:v1.0"
  Type: "ERCO.Node.PlaceLaneZoom"
  Place: {ISO3:"SGP", CityID:"SIN", Name:"Singapore"}
  Z6Role: ["Global port", "Aviation hub", "Energy-import dependent city-state"]
  State: {Φ:"sensor", β:"sensor", σ:"sensor", γ:"sensor", κ:"sensor"}
  Derived: {SSI:"compute", TTC_system:"compute", ModeLabel:"compute"}
  Dependencies.TopC2C3:
    - "ERCO.DEP:SGP-SIN:GAS:NaturalGasPower:v1"
    - "ERCO.DEP:SGP-SIN:ELEC:ElectricityGridSP:v1"
    - "ERCO.DEP:SGP-SIN:OIL:RefiningFuelTradingBunkers:v1"
    - "ERCO.DEP:SGP-SIN:WATR:NEWaterDesalination:v1"
    - "ERCO.DEP:SGP-SIN:FOOD:FoodImportsColdChain:v1"
    - "ERCO.DEP:SGP-SIN:PORT:PSAPortCorridor:v1"
    - "ERCO.DEP:SGP-SIN:AIR:ChangiAviationCorridor:v1"
    - "ERCO.DEP:SGP-SIN:DIGI:SubseaCablesIXP:v1"
    - "ERCO.DEP:SGP-SIN:WSTE:IncinerationLandfillSink:v1"
    - "ERCO.DEP:SGP-SIN:HAZR:HeatRainUrbanDrainageControl:v1"
    - "ERCO.DEP:SGP-SIN:MTRL:GridAndWaterCriticalParts:v1"
# ------------------ 1D) BEIJING (China) ------------------
NodeRecord:
  NodeID: "ERCO:CHN-BJS:Z6:ENERGYRES:v1.0"
  Type: "ERCO.Node.PlaceLaneZoom"
  Place: {ISO3:"CHN", CityID:"BJS", Name:"Beijing"}
  Z6Role: ["National governance/command", "Science/education"]
  State: {Φ:"sensor", β:"sensor", σ:"sensor", γ:"sensor", κ:"sensor"}
  Dependencies.TopC2C3:
    - "ERCO.DEP:CHN-BJS:ELEC:NorthChinaGrid:v1"
    - "ERCO.DEP:CHN-BJS:GAS:WinterHeatingSupply:v1"
    - "ERCO.DEP:CHN-BJS:WATR:WaterTransferSupply:v1"
    - "ERCO.DEP:CHN-BJS:FOOD:NationalFoodCorridors:v1"
    - "ERCO.DEP:CHN-BJS:DIGI:DataCentersBackbone:v1"
    - "ERCO.DEP:CHN-BJS:WSTE:WastewaterAirQualitySinks:v1"
    - "ERCO.DEP:CHN-BJS:HAZR:AirQualityControlCompliance:v1"
# ------------------ 1E) TOKYO (Japan) ------------------
NodeRecord:
  NodeID: "ERCO:JPN-TYO:Z6:ENERGYRES:v1.0"
  Type: "ERCO.Node.PlaceLaneZoom"
  Place: {ISO3:"JPN", CityID:"TYO", Name:"Tokyo"}
  Z6Role: ["Mega-city consumption/production", "Technology/industry coordination"]
  State: {Φ:"sensor", β:"sensor", σ:"sensor", γ:"sensor", κ:"sensor"}
  Dependencies.TopC2C3:
    - "ERCO.DEP:JPN-TYO:ELEC:TEPCORegionGrid:v1"
    - "ERCO.DEP:JPN-TYO:GAS:LNGImportsPower:v1"
    - "ERCO.DEP:JPN-TYO:OIL:RefinedFuelsLogistics:v1"
    - "ERCO.DEP:JPN-TYO:FOOD:ImportsDomesticMix:v1"
    - "ERCO.DEP:JPN-TYO:PORT:TokyoBayPortCorridors:v1"
    - "ERCO.DEP:JPN-TYO:HAZR:EarthquakeResilienceControl:v1"
    - "ERCO.DEP:JPN-TYO:WSTE:IncinerationWasteSinks:v1"
    - "ERCO.DEP:JPN-TYO:DIGI:SubseaCableBackbone:v1"
# ============================================================
# 2) NEW YORK Z0–Z6 STACK (complete)
# ============================================================
CivOS.Stack: ERCO.USA-NYC.Z0Z6.v1.0
StackRule:
  - Each Z has an ERCO node + dependency set tuned to that Z’s control surface.
  - Z6 = global role; Z3 = city system; Z0/Z1 = continuity; Z2 = weakest-link nodes.
# ---- NYC Z0 ----
NodeRecord:
  NodeID: "ERCO:USA-NYC:Z0:ENERGYRES:v1.0"
  Place: {ISO3:"USA", CityID:"NYC", Z:"Z0", Unit:"Household"}
  State: {Φ:"sensor", β:"sensor", σ:"sensor", γ:"sensor", κ:"sensor"}
  Dependencies.Top:
    - "ERCO.DEP:USA-NYC:ELEC:ElectricityRetail:v1"
    - "ERCO.DEP:USA-NYC:GAS:HouseholdGasService:v1"
    - "ERCO.DEP:USA-NYC:FOOD:RetailFoodSupply:v1"
    - "ERCO.DEP:USA-NYC:WATR:MunicipalWaterTap:v1"
  LocalBuffers.Template:
    β_local_days: "sensor/proxy (typical: low)"
  ModeSignatureHint:
    - "Mostly M1 (outage) at Z0; M2 is experienced as cost/availability drift."
# ---- NYC Z1 ----
NodeRecord:
  NodeID: "ERCO:USA-NYC:Z1:ENERGYRES:v1.0"
  Place: {ISO3:"USA", CityID:"NYC", Z:"Z1", Unit:"Institution"}
  Dependencies.Top:
    - "ERCO.DEP:USA-NYC:ELEC:CriticalFacilityPower:v1"
    - "ERCO.DEP:USA-NYC:OIL:DieselBackupFuel:v1"
    - "ERCO.DEP:USA-NYC:DIGI:ITPowerCooling:v1"
    - "ERCO.DEP:USA-NYC:HAZR:FireSafetyComplianceControl:v1"
  ModeSignatureHint:
    - "M1 + M3 if control fails during cascading outages; β is primary."
# ---- NYC Z2 ----
NodeRecord:
  NodeID: "ERCO:USA-NYC:Z2:ENERGYRES:v1.0"
  Place: {ISO3:"USA", CityID:"NYC", Z:"Z2", Unit:"District/Borough Cluster"}
  Dependencies.Top:
    - "ERCO.DEP:USA-NYC:ELEC:SubstationsFeeders:v1"
    - "ERCO.DEP:USA-NYC:OIL:FuelDepotsTrucking:v1"
    - "ERCO.DEP:USA-NYC:WSTE:DistrictWastewaterNodes:v1"
    - "ERCO.DEP:USA-NYC:HAZR:LocalFloodPumpsGates:v1"
  WeakestLinkRule:
    β(Z3) is bottlenecked by quantile_low of β(Z2)
# ---- NYC Z3 ----
NodeRecord:
  NodeID: "ERCO:USA-NYC:Z3:ENERGYRES:v1.0"
  Place: {ISO3:"USA", CityID:"NYC", Z:"Z3", Unit:"City System"}
  Dependencies.TopC2C3:
    - "ERCO.DEP:USA-NYC:ELEC:ElectricityGridNYISO:v1"
    - "ERCO.DEP:USA-NYC:GAS:NaturalGasDistribution:v1"
    - "ERCO.DEP:USA-NYC:OIL:LiquidFuelsLogistics:v1"
    - "ERCO.DEP:USA-NYC:WATR:WaterSupplyCatskills:v1"
    - "ERCO.DEP:USA-NYC:FOOD:RegionalFoodCorridors:v1"
    - "ERCO.DEP:USA-NYC:PORT:PortNJNYCorridor:v1"
    - "ERCO.DEP:USA-NYC:AIR:AirportsCorridor:v1"
    - "ERCO.DEP:USA-NYC:DIGI:DigitalBackboneCables:v1"
    - "ERCO.DEP:USA-NYC:WSTE:WastewaterTreatmentSink:v1"
    - "ERCO.DEP:USA-NYC:HAZR:StormSurgeFloodControl:v1"
    - "ERCO.DEP:USA-NYC:MTRL:TransformersSupplyChain:v1"
# ---- NYC Z4 ----
NodeRecord:
  NodeID: "ERCO:USA:Z4:ENERGYRES:v1.0"
  Place: {ISO3:"USA", Z:"Z4", Unit:"Nation"}
  Dependencies.Top:
    - "ERCO.DEP:USA:GAS:NationalGasMarkets:v1"
    - "ERCO.DEP:USA:OIL:NationalRefiningAndSupply:v1"
    - "ERCO.DEP:USA:MTRL:TransformerManufacturingCapacity:v1"
    - "ERCO.DEP:USA:ELEC:InterconnectReliability:v1"
  Bind:
    - From: "ERCO:USA:Z4:ENERGYRES:v1.0" To:"ERCO:USA-NYC:Z3:ENERGYRES:v1.0" BindType:"ALLOCATES" Weight:0.6
# ---- NYC Z5 ----
NodeRecord:
  NodeID: "ERCO:NA-NE:Z5:ENERGYRES:v1.0"
  Place: {RegionID:"NA-NE", Z:"Z5", Unit:"Regional Corridors/Interconnects"}
  Dependencies.Top:
    - "ERCO.DEP:NA-NE:PORT:AtlanticShippingLanes:v1"
    - "ERCO.DEP:NA-NE:ELEC:CrossStateGridLinks:v1"
    - "ERCO.DEP:NA-NE:GAS:PipelineNetworks:v1"
    - "ERCO.DEP:NA-NE:MTRL:TransformerSupplyRouting:v1"
# ---- NYC Z6 ----
# already defined: ERCO:USA-NYC:Z6:ENERGYRES:v1.0
# ============================================================
# 3) SINGAPORE Z0–Z6 STACK (complete)
# ============================================================
CivOS.Stack: ERCO.SGP-SIN.Z0Z6.v1.0
StackRule:
  - Singapore is city-state: Z3 (system) and Z4 (nation) are tightly coupled.
  - Dominant fragility is corridor dependence (Φ/β) and sink tightness (κ).
# ---- SIN Z0 ----
NodeRecord:
  NodeID: "ERCO:SGP-SIN:Z0:ENERGYRES:v1.0"
  Place: {ISO3:"SGP", CityID:"SIN", Z:"Z0", Unit:"Household"}
  Dependencies.Top:
    - "ERCO.DEP:SGP-SIN:ELEC:ElectricityRetail:v1"
    - "ERCO.DEP:SGP-SIN:WATR:DomesticWaterTap:v1"
    - "ERCO.DEP:SGP-SIN:FOOD:RetailFoodSupply:v1"
  ModeSignatureHint:
    - "Z0 experiences M1 as service outage; M2 as price drift."
# ---- SIN Z1 ----
NodeRecord:
  NodeID: "ERCO:SGP-SIN:Z1:ENERGYRES:v1.0"
  Place: {ISO3:"SGP", CityID:"SIN", Z:"Z1", Unit:"Institution"}
  Dependencies.Top:
    - "ERCO.DEP:SGP-SIN:ELEC:CriticalFacilityPower:v1"
    - "ERCO.DEP:SGP-SIN:OIL:BackupDieselUPS:v1"
    - "ERCO.DEP:SGP-SIN:DIGI:DataCenterPowerCooling:v1"
    - "ERCO.DEP:SGP-SIN:HAZR:ComplianceCivilDefenceControl:v1"
# ---- SIN Z2 ----
NodeRecord:
  NodeID: "ERCO:SGP-SIN:Z2:ENERGYRES:v1.0"
  Place: {ISO3:"SGP", CityID:"SIN", Z:"Z2", Unit:"District"}
  Dependencies.Top:
    - "ERCO.DEP:SGP-SIN:ELEC:SubstationsFeeders:v1"
    - "ERCO.DEP:SGP-SIN:WATR:NEWaterNodes:v1"
    - "ERCO.DEP:SGP-SIN:FOOD:ColdChainDistribution:v1"
    - "ERCO.DEP:SGP-SIN:WSTE:CollectionIncinerationNodes:v1"
# ---- SIN Z3 ----
NodeRecord:
  NodeID: "ERCO:SGP-SIN:Z3:ENERGYRES:v1.0"
  Place: {ISO3:"SGP", CityID:"SIN", Z:"Z3", Unit:"City System"}
  Dependencies.TopC2C3:
    - "ERCO.DEP:SGP-SIN:GAS:NaturalGasPower:v1"
    - "ERCO.DEP:SGP-SIN:ELEC:ElectricityGridSP:v1"
    - "ERCO.DEP:SGP-SIN:OIL:RefiningFuelTradingBunkers:v1"
    - "ERCO.DEP:SGP-SIN:WATR:NEWaterDesalination:v1"
    - "ERCO.DEP:SGP-SIN:FOOD:FoodImportsColdChain:v1"
    - "ERCO.DEP:SGP-SIN:PORT:PSAPortCorridor:v1"
    - "ERCO.DEP:SGP-SIN:AIR:ChangiAviationCorridor:v1"
    - "ERCO.DEP:SGP-SIN:DIGI:SubseaCablesIXP:v1"
    - "ERCO.DEP:SGP-SIN:WSTE:IncinerationLandfillSink:v1"
    - "ERCO.DEP:SGP-SIN:HAZR:HeatRainUrbanDrainageControl:v1"
    - "ERCO.DEP:SGP-SIN:MTRL:GridAndWaterCriticalParts:v1"
# ---- SIN Z4 ----
NodeRecord:
  NodeID: "ERCO:SGP:Z4:ENERGYRES:v1.0"
  Place: {ISO3:"SGP", Z:"Z4", Unit:"Nation (City-State)"}
  Dependencies.Top:
    - "ERCO.DEP:SGP:GAS:NationalGasImportContracts:v1"
    - "ERCO.DEP:SGP:ELEC:NationalGridPlanning:v1"
    - "ERCO.DEP:SGP:WATR:NationalWaterStrategy:v1"
    - "ERCO.DEP:SGP:PORT:NationalPortStrategy:v1"
    - "ERCO.DEP:SGP:WSTE:NationalSinkLandScarcity:v1"
  Bind:
    - From:"ERCO:SGP-SIN:Z3:ENERGYRES:v1.0" To:"ERCO:SGP:Z4:ENERGYRES:v1.0" BindType:"COUPLES" Weight:0.9
# ---- SIN Z5 ----
NodeRecord:
  NodeID: "ERCO:SEA-ASEAN:Z5:ENERGYRES:v1.0"
  Place: {RegionID:"SEA-ASEAN", Z:"Z5", Unit:"Regional Corridors"}
  Dependencies.Top:
    - "ERCO.DEP:SEA-ASEAN:PORT:StraitOfMalaccaCorridor:v1"
    - "ERCO.DEP:SEA-ASEAN:GAS:LNGShippingCorridors:v1"
    - "ERCO.DEP:SEA-ASEAN:ELEC:RegionalInterconnects:v1"
    - "ERCO.DEP:SEA-ASEAN:DIGI:RegionalSubseaCables:v1"
# ---- SIN Z6 ----
# already defined: ERCO:SGP-SIN:Z6:ENERGYRES:v1.0
# ============================================================
# 4) FULL DEPENDENCY NODE SETS (NYC + SIN)
#    Includes: DominantAxes, TransitionTime template, SensorPointers, ModeSignatures
# ============================================================
# -------------------------
# 4A) NYC Dependency Set v1
# -------------------------
DependencySet:
  SetID: "ERCO.DependencySet:USA-NYC:Core:v1"
# ELEC
DependencyRecord:
  DependencyID: "ERCO.DEP:USA-NYC:ELEC:ElectricityGridNYISO:v1"
  Class: "ERCO.RC.A"            # flux/var mix but delivered as grid throughput
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","σ"]
  Bottlenecks: ["materials","manufacturing","corridor","knowledge"]
  SinkCoupling: "medium"
  ControlEnvelope: "G2"
  TransitionTime.Template: "12–60 months (grid upgrades/firming) [sensor refine]"
  SensorPointers:
    Φ: ["Φ03_LoadToCapacityRatio","Φ05_GridStressIndex"]
    β: ["β03_SpareCapacityPercent","β04_RedundancyIndex","β02_StorageToLoadDuration"]
    σ: ["σ01_EnergyMixTransitionRate","σ02_ManufacturingRampSlope","D04_TransitionTimeEstimate"]
    γ: ["γ01_IncidentFrequency","γ02_EnforcementLatency","D09_RepairLatency"]
    κ: ["κ01_EmissionRate","κ03_PollutionLoadIndex"]
  ModeSignatures: ["M1","M3","MM"]
DependencyRecord:
  DependencyID: "ERCO.DEP:USA-NYC:ELEC:SubstationsFeeders:v1"
  Class: "ERCO.RC.C"            # finite critical components
  CouplingLevel: "C3"
  DominantAxes: ["β","γ","σ","Φ"]
  Bottlenecks: ["materials","manufacturing"]
  SinkCoupling: "low"
  ControlEnvelope: "G1"
  TransitionTime.Template: "6–36 months [sensor]"
  SensorPointers: {β:["β04_RedundancyIndex"], γ:["γ01_IncidentFrequency","D09_RepairLatency"], σ:["σ02_ManufacturingRampSlope"]}
  ModeSignatures: ["M1","M3"]
# GAS
DependencyRecord:
  DependencyID: "ERCO.DEP:USA-NYC:GAS:NaturalGasDistribution:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","σ","κ"]
  Bottlenecks: ["corridor","materials","manufacturing"]
  SinkCoupling: "high"
  ControlEnvelope: "G2"
  TransitionTime.Template: "24–120 months (electrification/retrofits) [sensor]"
  SensorPointers:
    Φ:["Φ01_UsableEnergyPerCapita","Φ03_LoadToCapacityRatio"]
    β:["β01_DaysOfFuelReserves"]
    σ:["σ04_TechDiffusionHalfLife","D05_SubstitutionPipelineBacklog"]
    γ:["γ04_CorridorDisruptionRate","γ02_EnforcementLatency"]
    κ:["κ01_EmissionRate"]
  ModeSignatures: ["M2","M1","MM"]
# OIL / FUELS
DependencyRecord:
  DependencyID: "ERCO.DEP:USA-NYC:OIL:LiquidFuelsLogistics:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C2"
  DominantAxes: ["β","γ","Φ","σ","κ"]
  Bottlenecks: ["corridor","storage"]
  SinkCoupling: "high"
  ControlEnvelope: "G1"
  TransitionTime.Template: "12–72 months (fleet change + charging infra) [sensor]"
  SensorPointers:
    β:["β01_DaysOfFuelReserves"]
    γ:["γ04_CorridorDisruptionRate"]
    σ:["σ01_EnergyMixTransitionRate","D04_TransitionTimeEstimate"]
    κ:["κ01_EmissionRate"]
  ModeSignatures: ["M1","M2","MM"]
# WATER
DependencyRecord:
  DependencyID: "ERCO.DEP:USA-NYC:WATR:WaterSupplyCatskills:v1"
  Class: "ERCO.RC.B"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","γ","κ","β"]
  Bottlenecks: ["corridor","materials","manufacturing"]
  SinkCoupling: "medium"
  ControlEnvelope: "G1"
  TransitionTime.Template: "12–84 months (supply augmentation) [sensor]"
  SensorPointers:
    Φ:["Φ05_GridStressIndex"]     # pump power sensitivity proxy
    γ:["γ01_IncidentFrequency","D09_RepairLatency"]
    κ:["κ03_PollutionLoadIndex"]
    β:["β03_SpareCapacityPercent"]
  ModeSignatures: ["M1","MS","MM"]
# FOOD
DependencyRecord:
  DependencyID: "ERCO.DEP:USA-NYC:FOOD:RegionalFoodCorridors:v1"
  Class: "ERCO.RC.B"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","κ"]
  Bottlenecks: ["corridor","storage"]
  SinkCoupling: "medium"
  ControlEnvelope: "G1"
  TransitionTime.Template: "6–24 months (supplier diversification) [sensor]"
  SensorPointers:
    β:["β02_StorageToLoadDuration"]
    γ:["γ04_CorridorDisruptionRate"]
    κ:["κ03_PollutionLoadIndex"]
  ModeSignatures: ["M1","M2","MM"]
# PORT / AIR
DependencyRecord:
  DependencyID: "ERCO.DEP:USA-NYC:PORT:PortNJNYCorridor:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C2"
  DominantAxes: ["γ","Φ","β"]
  Bottlenecks: ["corridor","manufacturing"]
  SinkCoupling: "medium"
  ControlEnvelope: "G1"
  TransitionTime.Template: "12–48 months [sensor]"
  SensorPointers: {γ:["γ04_CorridorDisruptionRate"], Φ:["Φ04_CriticalMaterialsThroughput"], β:["β03_SpareCapacityPercent"]}
  ModeSignatures: ["M1","M3"]
DependencyRecord:
  DependencyID: "ERCO.DEP:USA-NYC:AIR:AirportsCorridor:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C2"
  DominantAxes: ["γ","β","Φ"]
  Bottlenecks: ["corridor","fuel"]
  SinkCoupling: "high"
  ControlEnvelope: "G1"
  TransitionTime.Template: "12–60 months [sensor]"
  SensorPointers: {γ:["γ04_CorridorDisruptionRate"], β:["β01_DaysOfFuelReserves"]}
  ModeSignatures: ["M1"]
# DIGITAL
DependencyRecord:
  DependencyID: "ERCO.DEP:USA-NYC:DIGI:DigitalBackboneCables:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C2"
  DominantAxes: ["Φ","β","γ","σ"]
  Bottlenecks: ["corridor","materials","manufacturing"]
  SinkCoupling: "low"
  ControlEnvelope: "G2"
  TransitionTime.Template: "6–36 months (route diversity) [sensor]"
  SensorPointers:
    β:["β04_RedundancyIndex"]
    γ:["γ04_CorridorDisruptionRate","γ02_EnforcementLatency"]
    σ:["σ02_ManufacturingRampSlope"]
  ModeSignatures: ["M1","M3"]
# WASTE / SINK
DependencyRecord:
  DependencyID: "ERCO.DEP:USA-NYC:WSTE:WastewaterTreatmentSink:v1"
  Class: "ERCO.RC.E"
  CouplingLevel: "C2"
  DominantAxes: ["κ","γ","Φ"]
  Bottlenecks: ["manufacturing","materials"]
  SinkCoupling: "high"
  ControlEnvelope: "G2"
  TransitionTime.Template: "12–72 months [sensor]"
  SensorPointers:
    κ:["κ03_PollutionLoadIndex","κ04_WasteStorageSaturation"]
    γ:["γ01_IncidentFrequency","D09_RepairLatency"]
  ModeSignatures: ["MS","M1","MM"]
# HAZARD CONTROL (γ producer)
DependencyRecord:
  DependencyID: "ERCO.DEP:USA-NYC:HAZR:StormSurgeFloodControl:v1"
  Class: "ERCO.RC.D"     # tech/control gated protection capacity
  CouplingLevel: "C3"
  DominantAxes: ["γ","β","Φ","κ","σ"]
  Bottlenecks: ["manufacturing","materials","governance"]
  SinkCoupling: "high"
  ControlEnvelope: "G2"
  TransitionTime.Template: "24–120 months [sensor]"
  SensorPointers:
    γ:["γ02_EnforcementLatency","γ01_IncidentFrequency"]
    β:["β03_SpareCapacityPercent"]
    κ:["κ03_PollutionLoadIndex"]
    σ:["σ02_ManufacturingRampSlope"]
  ModeSignatures: ["M1","MM"]
# MATERIAL BOTTLENECK
DependencyRecord:
  DependencyID: "ERCO.DEP:USA-NYC:MTRL:TransformersSupplyChain:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C2"
  DominantAxes: ["σ","β","Φ","γ"]
  Bottlenecks: ["materials","manufacturing","corridor"]
  SinkCoupling: "low"
  ControlEnvelope: "G1"
  TransitionTime.Template: "6–48 months [sensor]"
  SensorPointers:
    σ:["σ02_ManufacturingRampSlope","D05_SubstitutionPipelineBacklog"]
    β:["β04_RedundancyIndex"]
  ModeSignatures: ["M2","M1","MM"]
# -------------------------
# 4B) SINGAPORE Dependency Set v1
# -------------------------
DependencySet:
  SetID: "ERCO.DependencySet:SGP-SIN:Core:v1"
DependencyRecord:
  DependencyID: "ERCO.DEP:SGP-SIN:GAS:NaturalGasPower:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","σ","κ"]
  Bottlenecks: ["corridor","contracts","storage"]
  SinkCoupling: "high"
  ControlEnvelope: "G2"
  TransitionTime.Template: "24–120 months (diversify/firm/replace) [sensor]"
  SensorPointers:
    Φ:["Φ03_LoadToCapacityRatio","Φ05_GridStressIndex"]
    β:["β01_DaysOfFuelReserves"]
    σ:["σ01_EnergyMixTransitionRate","D04_TransitionTimeEstimate","D05_SubstitutionPipelineBacklog"]
    γ:["γ04_CorridorDisruptionRate","γ02_EnforcementLatency"]
    κ:["κ01_EmissionRate"]
  ModeSignatures: ["M1","M2","MM"]
DependencyRecord:
  DependencyID: "ERCO.DEP:SGP-SIN:ELEC:ElectricityGridSP:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","σ"]
  Bottlenecks: ["materials","manufacturing","knowledge"]
  SinkCoupling: "medium"
  ControlEnvelope: "G2"
  TransitionTime.Template: "12–60 months [sensor]"
  SensorPointers:
    Φ:["Φ03_LoadToCapacityRatio","Φ05_GridStressIndex"]
    β:["β04_RedundancyIndex","β03_SpareCapacityPercent"]
    γ:["γ01_IncidentFrequency","D09_RepairLatency"]
    σ:["σ02_ManufacturingRampSlope"]
  ModeSignatures: ["M1","M3","MM"]
DependencyRecord:
  DependencyID: "ERCO.DEP:SGP-SIN:OIL:RefiningFuelTradingBunkers:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C2"
  DominantAxes: ["γ","Φ","β","σ","κ"]
  Bottlenecks: ["corridor","market","control"]
  SinkCoupling: "high"
  ControlEnvelope: "G2"
  TransitionTime.Template: "12–84 months [sensor]"
  SensorPointers:
    γ:["γ04_CorridorDisruptionRate"]
    β:["β01_DaysOfFuelReserves"]
    κ:["κ01_EmissionRate"]
    σ:["σ03_CapitalRedeployRate"]
  ModeSignatures: ["M1","M2","MM"]
DependencyRecord:
  DependencyID: "ERCO.DEP:SGP-SIN:WATR:NEWaterDesalination:v1"
  Class: "ERCO.RC.B"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","κ","σ"]
  Bottlenecks: ["capture","materials","manufacturing"]
  SinkCoupling: "high"
  ControlEnvelope: "G1"
  TransitionTime.Template: "12–60 months [sensor]"
  SensorPointers:
    Φ:["Φ05_GridStressIndex"]
    β:["β03_SpareCapacityPercent"]
    γ:["γ01_IncidentFrequency","D09_RepairLatency"]
    κ:["κ04_WasteStorageSaturation","κ03_PollutionLoadIndex"]
    σ:["σ02_ManufacturingRampSlope"]
  ModeSignatures: ["M1","MS","MM"]
DependencyRecord:
  DependencyID: "ERCO.DEP:SGP-SIN:FOOD:FoodImportsColdChain:v1"
  Class: "ERCO.RC.B"
  CouplingLevel: "C3"
  DominantAxes: ["β","γ","Φ","κ"]
  Bottlenecks: ["corridor","storage"]
  SinkCoupling: "medium"
  ControlEnvelope: "G1"
  TransitionTime.Template: "6–24 months (supplier diversity) [sensor]"
  SensorPointers:
    β:["β02_StorageToLoadDuration"]
    γ:["γ04_CorridorDisruptionRate"]
    κ:["κ03_PollutionLoadIndex"]
  ModeSignatures: ["M1","M2","MM"]
DependencyRecord:
  DependencyID: "ERCO.DEP:SGP-SIN:PORT:PSAPortCorridor:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C3"
  DominantAxes: ["γ","Φ","β"]
  Bottlenecks: ["corridor","control"]
  SinkCoupling: "medium"
  ControlEnvelope: "G2"
  TransitionTime.Template: "12–48 months [sensor]"
  SensorPointers:
    γ:["γ04_CorridorDisruptionRate","γ02_EnforcementLatency"]
    Φ:["Φ04_CriticalMaterialsThroughput"]
    β:["β03_SpareCapacityPercent"]
  ModeSignatures: ["M1","M3","MM"]
DependencyRecord:
  DependencyID: "ERCO.DEP:SGP-SIN:AIR:ChangiAviationCorridor:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C2"
  DominantAxes: ["γ","β","Φ"]
  Bottlenecks: ["corridor","fuel"]
  SinkCoupling: "high"
  ControlEnvelope: "G1"
  TransitionTime.Template: "12–60 months [sensor]"
  SensorPointers:
    γ:["γ04_CorridorDisruptionRate"]
    β:["β01_DaysOfFuelReserves"]
  ModeSignatures: ["M1","M3"]
DependencyRecord:
  DependencyID: "ERCO.DEP:SGP-SIN:DIGI:SubseaCablesIXP:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C3"
  DominantAxes: ["β","γ","Φ","σ"]
  Bottlenecks: ["corridor","materials","manufacturing"]
  SinkCoupling: "low"
  ControlEnvelope: "G2"
  TransitionTime.Template: "6–36 months (route diversity) [sensor]"
  SensorPointers:
    β:["β04_RedundancyIndex"]
    γ:["γ04_CorridorDisruptionRate","γ02_EnforcementLatency"]
    σ:["σ02_ManufacturingRampSlope"]
  ModeSignatures: ["M1","M3","MM"]
DependencyRecord:
  DependencyID: "ERCO.DEP:SGP-SIN:WSTE:IncinerationLandfillSink:v1"
  Class: "ERCO.RC.E"
  CouplingLevel: "C3"
  DominantAxes: ["κ","γ","β","Φ","σ"]
  Bottlenecks: ["land","manufacturing","materials"]
  SinkCoupling: "high"
  ControlEnvelope: "G2"
  TransitionTime.Template: "24–120 months (sink expansion) [sensor]"
  SensorPointers:
    κ:["κ04_WasteStorageSaturation","D07_SinkHeadroom"]
    γ:["γ01_IncidentFrequency","D09_RepairLatency"]
    σ:["D05_SubstitutionPipelineBacklog"]
  ModeSignatures: ["MS","M2","MM"]
DependencyRecord:
  DependencyID: "ERCO.DEP:SGP-SIN:HAZR:HeatRainUrbanDrainageControl:v1"
  Class: "ERCO.RC.D"
  CouplingLevel: "C2"
  DominantAxes: ["γ","κ","Φ","β"]
  Bottlenecks: ["manufacturing","materials","governance"]
  SinkCoupling: "high"
  ControlEnvelope: "G1"
  TransitionTime.Template: "12–72 months [sensor]"
  SensorPointers:
    γ:["γ02_EnforcementLatency"]
    κ:["κ03_PollutionLoadIndex"]
    β:["β03_SpareCapacityPercent"]
  ModeSignatures: ["M1","MM"]
DependencyRecord:
  DependencyID: "ERCO.DEP:SGP-SIN:MTRL:GridAndWaterCriticalParts:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C2"
  DominantAxes: ["σ","β","γ","Φ"]
  Bottlenecks: ["materials","manufacturing","corridor"]
  SinkCoupling: "low"
  ControlEnvelope: "G1"
  TransitionTime.Template: "6–48 months [sensor]"
  SensorPointers:
    σ:["σ02_ManufacturingRampSlope","D05_SubstitutionPipelineBacklog"]
    β:["β04_RedundancyIndex"]
  ModeSignatures: ["M2","M1"]
# ============================================================
# 5) BINDS (complete minimal graph wiring)
# ============================================================
BindPack:
  PackID: "CivOS.ERCO.BindPack.NYC_SIN.v1.0"
# NYC binds: ERCO node -> dependencies
BindRecord.Template:
  From: "ERCO:USA-NYC:{Z}:ENERGYRES:v1.0"
  To:   "ERCO.DEP:USA-NYC:*"
  BindType: "REQUIRES"
  Weight: 0.8
  Notes: "City feasibility requires dependency continuity."
# SIN binds: ERCO node -> dependencies
BindRecord.Template:
  From: "ERCO:SGP-SIN:{Z}:ENERGYRES:v1.0"
  To:   "ERCO.DEP:SGP-SIN:*"
  BindType: "REQUIRES"
  Weight: 0.85
# Cross-lattice binds (integration to CivOS core)
BindRecords:
  - From: "ERCO:USA-NYC:Z3:ENERGYRES:v1.0"
    To: "CivOS.HRL:USA-NYC:Z3:v*"
    BindType: "CONSTRAINS"
    Weight: 0.8
    Notes: "ERCO limits HRL regeneration throughput."
  - From: "ERCO:SGP-SIN:Z3:ENERGYRES:v1.0"
    To: "CivOS.HRL:SGP-SIN:Z3:v*"
    BindType: "CONSTRAINS"
    Weight: 0.85
  - From: "CivOS.EducationOS:USA-NYC:Z1:v*"
    To: "ERCO:USA-NYC:Z3:ENERGYRES:v1.0"
    BindType: "ENABLES"
    Weight: 0.4
    Notes: "skills pipeline lifts σ and γ (build+compliance+repair)."
  - From: "CivOS.EducationOS:SGP-SIN:Z1:v*"
    To: "ERCO:SGP-SIN:Z3:ENERGYRES:v1.0"
    BindType: "ENABLES"
    Weight: 0.5
  - From: "ERCO:USA-NYC:Z3:ENERGYRES:v1.0"
    To: "CivOS.FenceOS.Controller:USA-NYC:Z3:v*"
    BindType: "TRIGGERS"
    Weight: 0.9
    Notes: "Use ERCO.TC alerts for truncation/stitching categories."
  - From: "ERCO:SGP-SIN:Z3:ENERGYRES:v1.0"
    To: "CivOS.FenceOS.Controller:SGP-SIN:Z3:v*"
    BindType: "TRIGGERS"
    Weight: 0.9
  - From: "ERCO:USA-NYC:Z6:ENERGYRES:v1.0"
    To: "CivOS.ChronoHelmAI.Scheduler:USA-NYC:Z6:v*"
    BindType: "FEEDS"
    Weight: 0.7
    Notes: "Provides TTC/SSI + RepairQueue categories."
  - From: "ERCO:SGP-SIN:Z6:ENERGYRES:v1.0"
    To: "CivOS.ChronoHelmAI.Scheduler:SGP-SIN:Z6:v*"
    BindType: "FEEDS"
    Weight: 0.7
# ============================================================
# 6) OPERATOR CHECKLIST (structure-complete verification)
# ============================================================
Checklist:
  - [x] 5 Z6 city nodes created (DXB/NYC/SIN/BJS/TYO)
  - [x] NYC Z0–Z6 nodes created
  - [x] SIN Z0–Z6 nodes created
  - [x] Dependency sets for NYC and SIN enumerated with axes + mode signatures
  - [x] Sensor pointers attached (RECL + ERCO sensor IDs)
  - [x] TransitionTime templates included (sensor-refinable)
  - [x] ERCO.TC hooks implied via ModeSignatures + TTC/SSI compute
  - [x] Binds to HRL + FenceOS + ChronoHelmAI defined
END_PACK

CivOS.AddOn: TransitionTime Templates (standardized)
AddOnID: CivOS.ERCO.TransitionTime.Templates.v1.0
Purpose: Standardize how TransitionTime is stored and later refined by sensors/models.
TransitionTime.TemplateRecord:
  TemplateID: "ERCO.TT:{DependencyID}"
  Fields:
    TT_MinMonths: "<int|sensor>"
    TT_MedMonths: "<int|sensor>"
    TT_MaxMonths: "<int|sensor>"
    Confidence: "<0..1>"
    Drivers:
      - "permitting"
      - "manufacturing lead times"
      - "workforce"
      - "capex availability"
      - "corridor constraints"
      - "regulatory risk"
    UpdateRule:
      "Sensor updates TT_* only; never renames DependencyID."
END_ADDON

CivOS.DirectoryPack: ERCO Dependency Sets (DXB + BJS + TYO) + City Summary Panel
PackID: CivOS.ERCO.CityPack.DepSets.3Cities+Panel.v1.0
Version: v1.0
Status: DRAFT-READY / SENSOR-PENDING
Purpose:
  (A) Provide full dependency node sets for Dubai (ARE-DXB), Beijing (CHN-BJS), Tokyo (JPN-TYO) matching NYC+SIN symmetry.
  (B) Provide a single “City ERCO Summary Panel” template (Z6 dashboard block) pasteable into each CityOS page.
DependsOn:
  - CivOS.RECL.v1.0
  - CivOS.ERCO.v1.0
  - CivOS.ERCO.TC.v1.0
  - CivOS.ERCO.Integration.v1.0
  - CivOS.RECL.Sensors.v1
  - CivOS.ERCO.Sensors.v1
# ============================================================
# 0) STANDARD DEPENDENCY RECORD TEMPLATE (repeatable)
# ============================================================
Template.DependencyRecord.v1:
  Fields:
    DependencyID
    Class: ERCO.RC.A|B|C|D|E
    CouplingLevel: C0..C3
    DominantAxes: [Φ|β|σ|γ|κ]
    Bottlenecks: [capture|storage|materials|manufacturing|knowledge|corridor|governance|market|land]
    SinkCoupling: low|medium|high
    ControlEnvelope: G0..G3
    TransitionTime.Template: "<range months> [sensor refine]"
    SensorPointers: {Φ:[...], β:[...], σ:[...], γ:[...], κ:[...], D:[...]}
    ModeSignatures: [M1|M2|M3|MS|MM]
# ============================================================
# 1) DUBAI (ARE-DXB) Dependency Set v1 (oil-linked + desalination)
# ============================================================
DependencySet:
  SetID: "ERCO.DependencySet:ARE-DXB:Core:v1"
  CityNodeZ6: "ERCO:ARE-DXB:Z6:ENERGYRES:v1.0"
# ELEC
DependencyRecord:
  DependencyID: "ERCO.DEP:ARE-DXB:ELEC:ElectricityGrid:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","σ"]
  Bottlenecks: ["materials","manufacturing","knowledge"]
  SinkCoupling: "medium"
  ControlEnvelope: "G2"
  TransitionTime.Template: "12–60 months [sensor]"
  SensorPointers:
    Φ: ["Φ03_LoadToCapacityRatio","Φ05_GridStressIndex"]
    β: ["β03_SpareCapacityPercent","β04_RedundancyIndex","β02_StorageToLoadDuration"]
    σ: ["σ02_ManufacturingRampSlope","σ01_EnergyMixTransitionRate","D04_TransitionTimeEstimate"]
    γ: ["γ01_IncidentFrequency","γ02_EnforcementLatency","D09_RepairLatency"]
  ModeSignatures: ["M1","M3","MM"]
# GAS (power feed)
DependencyRecord:
  DependencyID: "ERCO.DEP:ARE-DXB:GAS:GasSupplyForPower:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","σ","κ"]
  Bottlenecks: ["corridor","contracts","storage","market"]
  SinkCoupling: "high"
  ControlEnvelope: "G1"
  TransitionTime.Template: "24–120 months (diversify/firm/replace) [sensor]"
  SensorPointers:
    Φ: ["Φ01_UsableEnergyPerCapita","Φ03_LoadToCapacityRatio"]
    β: ["β01_DaysOfFuelReserves"]
    σ: ["σ01_EnergyMixTransitionRate","D05_SubstitutionPipelineBacklog"]
    γ: ["γ04_CorridorDisruptionRate"]
    κ: ["κ01_EmissionRate"]
  ModeSignatures: ["M1","M2","MM"]
# OIL (aviation + bunkers exposure)
DependencyRecord:
  DependencyID: "ERCO.DEP:ARE-DXB:OIL:JetFuelAndBunkers:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C2"
  DominantAxes: ["β","γ","Φ","σ","κ"]
  Bottlenecks: ["corridor","storage","market"]
  SinkCoupling: "high"
  ControlEnvelope: "G1"
  TransitionTime.Template: "12–84 months [sensor]"
  SensorPointers:
    β: ["β01_DaysOfFuelReserves"]
    γ: ["γ04_CorridorDisruptionRate"]
    σ: ["σ03_CapitalRedeployRate"]
    κ: ["κ01_EmissionRate"]
  ModeSignatures: ["M1","M2","MM"]
# WATER (desalination is core)
DependencyRecord:
  DependencyID: "ERCO.DEP:ARE-DXB:WATR:DesalinationWater:v1"
  Class: "ERCO.RC.B"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","κ","σ"]
  Bottlenecks: ["capture","materials","manufacturing","knowledge"]
  SinkCoupling: "high"
  ControlEnvelope: "G1"
  TransitionTime.Template: "12–72 months (augment capacity) [sensor]"
  SensorPointers:
    Φ: ["Φ05_GridStressIndex"]
    β: ["β03_SpareCapacityPercent"]
    γ: ["γ01_IncidentFrequency","D09_RepairLatency"]
    κ: ["κ03_PollutionLoadIndex","κ04_WasteStorageSaturation","D07_SinkHeadroom"]
    σ: ["σ02_ManufacturingRampSlope"]
  ModeSignatures: ["M1","MS","MM"]
# FOOD (import dependent)
DependencyRecord:
  DependencyID: "ERCO.DEP:ARE-DXB:FOOD:FoodImports:v1"
  Class: "ERCO.RC.B"
  CouplingLevel: "C3"
  DominantAxes: ["β","γ","Φ","κ"]
  Bottlenecks: ["corridor","storage"]
  SinkCoupling: "medium"
  ControlEnvelope: "G1"
  TransitionTime.Template: "6–24 months [sensor]"
  SensorPointers:
    β: ["β02_StorageToLoadDuration"]
    γ: ["γ04_CorridorDisruptionRate"]
    κ: ["κ03_PollutionLoadIndex"]
  ModeSignatures: ["M1","M2","MM"]
# PORT
DependencyRecord:
  DependencyID: "ERCO.DEP:ARE-DXB:PORT:JebelAliCorridor:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C3"
  DominantAxes: ["γ","Φ","β"]
  Bottlenecks: ["corridor","control"]
  SinkCoupling: "medium"
  ControlEnvelope: "G2"
  TransitionTime.Template: "12–48 months [sensor]"
  SensorPointers:
    γ: ["γ04_CorridorDisruptionRate","γ02_EnforcementLatency"]
    Φ: ["Φ04_CriticalMaterialsThroughput"]
    β: ["β03_SpareCapacityPercent"]
  ModeSignatures: ["M1","M3","MM"]
# AIR (aviation corridor)
DependencyRecord:
  DependencyID: "ERCO.DEP:ARE-DXB:AIR:AviationCorridor:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C3"
  DominantAxes: ["γ","β","Φ","κ"]
  Bottlenecks: ["corridor","fuel","market"]
  SinkCoupling: "high"
  ControlEnvelope: "G1"
  TransitionTime.Template: "12–60 months [sensor]"
  SensorPointers:
    γ: ["γ04_CorridorDisruptionRate"]
    β: ["β01_DaysOfFuelReserves"]
    κ: ["κ01_EmissionRate"]
  ModeSignatures: ["M1","M2"]
# DIGITAL
DependencyRecord:
  DependencyID: "ERCO.DEP:ARE-DXB:DIGI:SubseaCablesIXP:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C2"
  DominantAxes: ["β","γ","Φ","σ"]
  Bottlenecks: ["corridor","materials","manufacturing"]
  SinkCoupling: "low"
  ControlEnvelope: "G2"
  TransitionTime.Template: "6–36 months [sensor]"
  SensorPointers:
    β: ["β04_RedundancyIndex"]
    γ: ["γ04_CorridorDisruptionRate","γ02_EnforcementLatency"]
    σ: ["σ02_ManufacturingRampSlope"]
  ModeSignatures: ["M1","M3","MM"]
# WASTE/SINK (brine + heat + landfill constraints)
DependencyRecord:
  DependencyID: "ERCO.DEP:ARE-DXB:WSTE:BrineHeatWasteSink:v1"
  Class: "ERCO.RC.E"
  CouplingLevel: "C3"
  DominantAxes: ["κ","γ","β","Φ","σ"]
  Bottlenecks: ["land","governance","materials"]
  SinkCoupling: "high"
  ControlEnvelope: "G2"
  TransitionTime.Template: "24–120 months [sensor]"
  SensorPointers:
    κ: ["κ04_WasteStorageSaturation","D07_SinkHeadroom","κ03_PollutionLoadIndex"]
    γ: ["γ02_EnforcementLatency","D09_RepairLatency"]
    σ: ["D05_SubstitutionPipelineBacklog"]
  ModeSignatures: ["MS","M2","MM"]
# HAZARD CONTROL (heat stress / water security)
DependencyRecord:
  DependencyID: "ERCO.DEP:ARE-DXB:HAZR:HeatStressControl:v1"
  Class: "ERCO.RC.D"
  CouplingLevel: "C2"
  DominantAxes: ["γ","Φ","β","κ"]
  Bottlenecks: ["governance","materials","manufacturing"]
  SinkCoupling: "high"
  ControlEnvelope: "G1"
  TransitionTime.Template: "12–72 months [sensor]"
  SensorPointers:
    γ: ["γ02_EnforcementLatency"]
    Φ: ["Φ05_GridStressIndex"]
    κ: ["κ03_PollutionLoadIndex"]
    β: ["β03_SpareCapacityPercent"]
  ModeSignatures: ["M1","MM"]
# FIN/MACRO (oil production linkage)
DependencyRecord:
  DependencyID: "ERCO.DEP:ARE-DXB:FINM:OilRevenueMacroCoupling:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C2"
  DominantAxes: ["σ","γ","Φ"]
  Bottlenecks: ["market","governance"]
  SinkCoupling: "high"
  ControlEnvelope: "G1"
  TransitionTime.Template: "24–120 months (diversify revenue base) [sensor]"
  SensorPointers:
    σ: ["σ03_CapitalRedeployRate","D05_SubstitutionPipelineBacklog"]
    γ: ["γ02_EnforcementLatency"]
    Φ: ["Φ01_UsableEnergyPerCapita"]
  ModeSignatures: ["M2","MM"]
# ============================================================
# 2) BEIJING (CHN-BJS) Dependency Set v1 (command node + winter heating + air sink)
# ============================================================
DependencySet:
  SetID: "ERCO.DependencySet:CHN-BJS:Core:v1"
  CityNodeZ6: "ERCO:CHN-BJS:Z6:ENERGYRES:v1.0"
# ELEC
DependencyRecord:
  DependencyID: "ERCO.DEP:CHN-BJS:ELEC:NorthChinaGrid:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","σ","κ"]
  Bottlenecks: ["materials","manufacturing","knowledge","corridor"]
  SinkCoupling: "high"
  ControlEnvelope: "G2"
  TransitionTime.Template: "12–60 months [sensor]"
  SensorPointers:
    Φ: ["Φ03_LoadToCapacityRatio","Φ05_GridStressIndex"]
    β: ["β03_SpareCapacityPercent","β04_RedundancyIndex"]
    σ: ["σ02_ManufacturingRampSlope","σ01_EnergyMixTransitionRate"]
    γ: ["γ01_IncidentFrequency","D09_RepairLatency"]
    κ: ["κ03_PollutionLoadIndex","κ01_EmissionRate"]
  ModeSignatures: ["M1","M2","MM"]
# GAS/HEATING (winter demand)
DependencyRecord:
  DependencyID: "ERCO.DEP:CHN-BJS:GAS:WinterHeatingSupply:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","σ","κ"]
  Bottlenecks: ["corridor","storage","market","materials"]
  SinkCoupling: "high"
  ControlEnvelope: "G2"
  TransitionTime.Template: "24–120 months (efficiency+electrification) [sensor]"
  SensorPointers:
    Φ: ["Φ01_UsableEnergyPerCapita"]
    β: ["β01_DaysOfFuelReserves"]
    σ: ["σ04_TechDiffusionHalfLife","D04_TransitionTimeEstimate"]
    γ: ["γ04_CorridorDisruptionRate","γ02_EnforcementLatency"]
    κ: ["κ01_EmissionRate","κ03_PollutionLoadIndex"]
  ModeSignatures: ["M2","M1","MM"]
# WATER (transfer dependence)
DependencyRecord:
  DependencyID: "ERCO.DEP:CHN-BJS:WATR:WaterTransferSupply:v1"
  Class: "ERCO.RC.B"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","γ","β","κ","σ"]
  Bottlenecks: ["corridor","materials","manufacturing","governance"]
  SinkCoupling: "medium"
  ControlEnvelope: "G2"
  TransitionTime.Template: "24–120 months [sensor]"
  SensorPointers:
    γ: ["γ04_CorridorDisruptionRate","D09_RepairLatency"]
    β: ["β03_SpareCapacityPercent"]
    κ: ["κ03_PollutionLoadIndex"]
    σ: ["σ02_ManufacturingRampSlope"]
  ModeSignatures: ["M1","MS","MM"]
# FOOD (national corridors)
DependencyRecord:
  DependencyID: "ERCO.DEP:CHN-BJS:FOOD:NationalFoodCorridors:v1"
  Class: "ERCO.RC.B"
  CouplingLevel: "C2"
  DominantAxes: ["β","γ","Φ","κ"]
  Bottlenecks: ["corridor","storage"]
  SinkCoupling: "medium"
  ControlEnvelope: "G1"
  TransitionTime.Template: "6–24 months [sensor]"
  SensorPointers:
    β: ["β02_StorageToLoadDuration"]
    γ: ["γ04_CorridorDisruptionRate"]
    κ: ["κ03_PollutionLoadIndex"]
  ModeSignatures: ["M1","M2"]
# RAIL/ROAD CORRIDORS (core logistics)
DependencyRecord:
  DependencyID: "ERCO.DEP:CHN-BJS:PORT:RailRoadCorridors:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C3"
  DominantAxes: ["γ","Φ","β","σ"]
  Bottlenecks: ["corridor","manufacturing","materials"]
  SinkCoupling: "medium"
  ControlEnvelope: "G2"
  TransitionTime.Template: "12–60 months [sensor]"
  SensorPointers:
    γ: ["γ04_CorridorDisruptionRate"]
    Φ: ["Φ04_CriticalMaterialsThroughput"]
    β: ["β03_SpareCapacityPercent"]
    σ: ["σ02_ManufacturingRampSlope"]
  ModeSignatures: ["M1","M3","MM"]
# DIGITAL
DependencyRecord:
  DependencyID: "ERCO.DEP:CHN-BJS:DIGI:DataCentersBackbone:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","σ"]
  Bottlenecks: ["materials","manufacturing","knowledge"]
  SinkCoupling: "medium"
  ControlEnvelope: "G2"
  TransitionTime.Template: "6–36 months [sensor]"
  SensorPointers:
    Φ: ["Φ02_NetEnergyIndex"]
    β: ["β04_RedundancyIndex"]
    γ: ["γ01_IncidentFrequency","D09_RepairLatency"]
    σ: ["σ02_ManufacturingRampSlope"]
  ModeSignatures: ["M1","M3","MM"]
# WASTE + AIR SINK (air quality is a major κ constraint)
DependencyRecord:
  DependencyID: "ERCO.DEP:CHN-BJS:WSTE:WastewaterAirQualitySinks:v1"
  Class: "ERCO.RC.E"
  CouplingLevel: "C3"
  DominantAxes: ["κ","γ","Φ","β"]
  Bottlenecks: ["governance","materials","manufacturing"]
  SinkCoupling: "high"
  ControlEnvelope: "G2"
  TransitionTime.Template: "12–84 months [sensor]"
  SensorPointers:
    κ: ["κ03_PollutionLoadIndex","D07_SinkHeadroom"]
    γ: ["γ02_EnforcementLatency","γ01_IncidentFrequency"]
    Φ: ["Φ03_LoadToCapacityRatio"]
  ModeSignatures: ["MS","M2","MM"]
# HAZARD/COMPLIANCE CONTROL (γ producer for air + winter)
DependencyRecord:
  DependencyID: "ERCO.DEP:CHN-BJS:HAZR:AirQualityControlCompliance:v1"
  Class: "ERCO.RC.D"
  CouplingLevel: "C3"
  DominantAxes: ["γ","κ","σ"]
  Bottlenecks: ["governance","knowledge"]
  SinkCoupling: "high"
  ControlEnvelope: "G2"
  TransitionTime.Template: "6–48 months [sensor]"
  SensorPointers:
    γ: ["γ02_EnforcementLatency","γ01_IncidentFrequency"]
    κ: ["κ03_PollutionLoadIndex"]
    σ: ["σ04_TechDiffusionHalfLife"]
  ModeSignatures: ["MS","M2","MM"]
# MATERIAL BOTTLENECK
DependencyRecord:
  DependencyID: "ERCO.DEP:CHN-BJS:MTRL:GridHeatingCriticalParts:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C2"
  DominantAxes: ["σ","β","Φ"]
  Bottlenecks: ["materials","manufacturing"]
  SinkCoupling: "low"
  ControlEnvelope: "G1"
  TransitionTime.Template: "6–48 months [sensor]"
  SensorPointers:
    σ: ["σ02_ManufacturingRampSlope","D05_SubstitutionPipelineBacklog"]
    β: ["β04_RedundancyIndex"]
  ModeSignatures: ["M2","MM"]
# ============================================================
# 3) TOKYO (JPN-TYO) Dependency Set v1 (import energy + quake resilience)
# ============================================================
DependencySet:
  SetID: "ERCO.DependencySet:JPN-TYO:Core:v1"
  CityNodeZ6: "ERCO:JPN-TYO:Z6:ENERGYRES:v1.0"
# ELEC (TEPCO region)
DependencyRecord:
  DependencyID: "ERCO.DEP:JPN-TYO:ELEC:TEPCORegionGrid:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","σ"]
  Bottlenecks: ["materials","manufacturing","knowledge"]
  SinkCoupling: "medium"
  ControlEnvelope: "G2"
  TransitionTime.Template: "12–60 months [sensor]"
  SensorPointers:
    Φ: ["Φ03_LoadToCapacityRatio","Φ05_GridStressIndex"]
    β: ["β04_RedundancyIndex","β03_SpareCapacityPercent","β02_StorageToLoadDuration"]
    γ: ["γ01_IncidentFrequency","D09_RepairLatency"]
    σ: ["σ02_ManufacturingRampSlope","σ01_EnergyMixTransitionRate"]
  ModeSignatures: ["M1","M3","MM"]
# GAS (LNG imports power)
DependencyRecord:
  DependencyID: "ERCO.DEP:JPN-TYO:GAS:LNGImportsPower:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C3"
  DominantAxes: ["Φ","β","γ","σ","κ"]
  Bottlenecks: ["corridor","contracts","storage","market"]
  SinkCoupling: "high"
  ControlEnvelope: "G2"
  TransitionTime.Template: "24–120 months [sensor]"
  SensorPointers:
    β: ["β01_DaysOfFuelReserves"]
    γ: ["γ04_CorridorDisruptionRate"]
    σ: ["σ01_EnergyMixTransitionRate","D04_TransitionTimeEstimate"]
    κ: ["κ01_EmissionRate"]
  ModeSignatures: ["M1","M2","MM"]
# OIL (refined fuels logistics)
DependencyRecord:
  DependencyID: "ERCO.DEP:JPN-TYO:OIL:RefinedFuelsLogistics:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C2"
  DominantAxes: ["β","γ","Φ","σ","κ"]
  Bottlenecks: ["corridor","storage"]
  SinkCoupling: "high"
  ControlEnvelope: "G1"
  TransitionTime.Template: "12–72 months [sensor]"
  SensorPointers:
    β: ["β01_DaysOfFuelReserves"]
    γ: ["γ04_CorridorDisruptionRate"]
    σ: ["σ03_CapitalRedeployRate"]
    κ: ["κ01_EmissionRate"]
  ModeSignatures: ["M1","M2"]
# FOOD
DependencyRecord:
  DependencyID: "ERCO.DEP:JPN-TYO:FOOD:ImportsDomesticMix:v1"
  Class: "ERCO.RC.B"
  CouplingLevel: "C3"
  DominantAxes: ["β","γ","Φ","κ"]
  Bottlenecks: ["corridor","storage"]
  SinkCoupling: "medium"
  ControlEnvelope: "G1"
  TransitionTime.Template: "6–24 months [sensor]"
  SensorPointers:
    β: ["β02_StorageToLoadDuration"]
    γ: ["γ04_CorridorDisruptionRate"]
    κ: ["κ03_PollutionLoadIndex"]
  ModeSignatures: ["M1","M2","MM"]
# PORT (Tokyo Bay)
DependencyRecord:
  DependencyID: "ERCO.DEP:JPN-TYO:PORT:TokyoBayPortCorridors:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C3"
  DominantAxes: ["γ","Φ","β"]
  Bottlenecks: ["corridor","control","manufacturing"]
  SinkCoupling: "medium"
  ControlEnvelope: "G2"
  TransitionTime.Template: "12–48 months [sensor]"
  SensorPointers:
    γ: ["γ04_CorridorDisruptionRate","γ02_EnforcementLatency"]
    Φ: ["Φ04_CriticalMaterialsThroughput"]
    β: ["β03_SpareCapacityPercent"]
  ModeSignatures: ["M1","M3","MM"]
# DIGITAL (subsea links)
DependencyRecord:
  DependencyID: "ERCO.DEP:JPN-TYO:DIGI:SubseaCableBackbone:v1"
  Class: "ERCO.RC.A"
  CouplingLevel: "C3"
  DominantAxes: ["β","γ","Φ","σ"]
  Bottlenecks: ["corridor","materials","manufacturing"]
  SinkCoupling: "low"
  ControlEnvelope: "G2"
  TransitionTime.Template: "6–36 months [sensor]"
  SensorPointers:
    β: ["β04_RedundancyIndex"]
    γ: ["γ04_CorridorDisruptionRate"]
    σ: ["σ02_ManufacturingRampSlope"]
  ModeSignatures: ["M1","M3","MM"]
# WASTE/SINK
DependencyRecord:
  DependencyID: "ERCO.DEP:JPN-TYO:WSTE:IncinerationWasteSinks:v1"
  Class: "ERCO.RC.E"
  CouplingLevel: "C2"
  DominantAxes: ["κ","γ","Φ","β"]
  Bottlenecks: ["land","materials","manufacturing"]
  SinkCoupling: "high"
  ControlEnvelope: "G2"
  TransitionTime.Template: "24–120 months [sensor]"
  SensorPointers:
    κ: ["κ04_WasteStorageSaturation","D07_SinkHeadroom"]
    γ: ["γ01_IncidentFrequency","D09_RepairLatency"]
  ModeSignatures: ["MS","M2","MM"]
# HAZARD CONTROL (earthquake resilience)
DependencyRecord:
  DependencyID: "ERCO.DEP:JPN-TYO:HAZR:EarthquakeResilienceControl:v1"
  Class: "ERCO.RC.D"
  CouplingLevel: "C3"
  DominantAxes: ["γ","β","σ","Φ"]
  Bottlenecks: ["governance","materials","manufacturing","knowledge"]
  SinkCoupling: "medium"
  ControlEnvelope: "G2"
  TransitionTime.Template: "24–120 months [sensor]"
  SensorPointers:
    γ: ["γ02_EnforcementLatency","γ01_IncidentFrequency"]
    β: ["β04_RedundancyIndex","β03_SpareCapacityPercent"]
    σ: ["σ02_ManufacturingRampSlope","D05_SubstitutionPipelineBacklog"]
  ModeSignatures: ["M1","M3","MM"]
# MATERIAL BOTTLENECK
DependencyRecord:
  DependencyID: "ERCO.DEP:JPN-TYO:MTRL:TransformersAndSpareParts:v1"
  Class: "ERCO.RC.C"
  CouplingLevel: "C2"
  DominantAxes: ["σ","β","Φ"]
  Bottlenecks: ["materials","manufacturing"]
  SinkCoupling: "low"
  ControlEnvelope: "G1"
  TransitionTime.Template: "6–48 months [sensor]"
  SensorPointers:
    σ: ["σ02_ManufacturingRampSlope","D05_SubstitutionPipelineBacklog"]
    β: ["β04_RedundancyIndex"]
  ModeSignatures: ["M2","MM"]
# ============================================================
# 4) CITY ERCO SUMMARY PANEL (paste block)
# ============================================================
CivOS.Panel: CityERCO.SummaryPanel
PanelID: CivOS.Panel.CityERCO.Z6.v1.0
Purpose: One-block “control dashboard” summary for each city’s Z6 page.
Usage: Paste into CityOS / City Directory pages; connect to sensors later.
Panel.Template:
  Title: "ERCO Z6 Control Panel — {CityName} ({ISO3}-{CityID})"
  NodeRef: "ERCO:{ISO3}-{CityID}:Z6:ENERGYRES:v1.0"
  Display:
    Axes:
      - Φ: {Value:"sensor", Threshold:"compute", Margin:"compute", Trend:"compute", TTC:"compute"}
      - β: {Value:"sensor", Threshold:"compute (TransitionTime)", Margin:"compute", Trend:"compute", TTC:"compute"}
      - σ: {Value:"sensor", Threshold:"compute", Margin:"compute", Trend:"compute", TTC:"compute"}
      - γ: {Value:"sensor", Threshold:"compute", Margin:"compute", Trend:"compute", TTC:"compute"}
      - κ: {Value:"sensor", Threshold:"compute", Margin:"compute", Trend:"compute", TTC:"compute"}
    System:
      - SSI: "compute"
      - CoincidenceCount: "compute"
      - ModeLabel: "compute"
      - TTC_system: "compute"
      - StabilityBand: "compute (SAFE/DRIFT/BREACH/CASCADE_RISK)"
  CriticalDependencies:
    Format:
      - DependencyID
      - DominantAxes
      - TransitionTime
      - ModeSignatures
      - TopSensors (pointers)
  FenceHooks:
    - TriggerRule: "Use ERCO.TC.FenceTrigger"
    - Output: "SuggestedFenceModeCategories (diagnostic only)"
  FailureTrace (1-line):
    Template:
      "{DominantDependency} shear → {AxisBreaches} → SSI↑ → Fence trigger → truncation+stitching conditions"
Panel.Example.RenderSchema (no values):
  City: "{CityName}"
  ERCO.Node: "{NodeRef}"
  Axes: "Φ β σ γ κ"
  Status: "{StabilityBand} | Mode: {ModeLabel} | TTC: {TTC_system}"
  Top3Risks:
    - "{Dependency1} (axes={...}, mode={...})"
    - "{Dependency2} (axes={...}, mode={...})"
    - "{Dependency3} (axes={...}, mode={...})"
  SuggestedFenceModes:
    - "{TRUNCATE_LOAD|BUILD_BUFFER|ACCEL_SUBSTITUTION|STABILIZE_CONTROL|RELIEVE_SINK}"
END_PACK

CivOS.AddOn: Symmetry Enforcement — 5 City Parity Check
AddOnID: CivOS.ERCO.CityPack.ParityCheck.v1.0
Purpose: Ensure all 5 cities share the same dependency category skeleton (so Google/LLMs see a coherent executable structure).
ParityRule:
  For each city Z6 node:
    Must have at least one dependency node for:
      [CAT.ELEC, CAT.GAS, CAT.OIL, CAT.WATR, CAT.FOOD, CAT.PORT, CAT.AIR, CAT.DIGI, CAT.WSTE, CAT.HAZR, CAT.MTRL]
    Exceptions:
      - Inland command nodes (e.g., Beijing) may replace CAT.PORT/CAT.AIR with CAT.PORT="RailRoadCorridors" and keep CAT.AIR optional.
    Enforcement:
      Missing category => create placeholder dependency node with TransitionTime.Template + SensorPointers.
END_ADDON