CIVOS.RUNTIME.GLOBALPACK.TEMPLATE.v1.2
ModuleID: CIVOS.GLOBALPACK.TEMPLATE
Type: Copy-Paste Generator (Add-on; no Core mutation)
Goal: Generate a runnable corridor graph for ANY 4-place set with AVOO + MindOS + EmotionOS + FenceOS
Output: PlaceDirectory + NodeStubs + EdgeStubs + SensorPack + Scenarios + Playbooks

			
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## 0) HOW TO USE (1-minute install)

txt id=”5d8d0p”
INSTALL / USE

Step 1: Replace PLACE_A..PLACE_D with your 4 places (Z3 city or Z4 nation).
Step 2: Choose LaneSet from the menu.
Step 3: Paste the generator blocks (Places, Nodes, Edges, Sensors).
Step 4: Pick a Trigger Playbook (P0..P7).
Step 5: Run evaluation: compute TTC/R/ρ/E/NIT; apply FenceOS; output repair corridor.

			
---
## 1) PLACE DIRECTORY GENERATOR (Z5 surface style)

txt id=”1s5m4w”
PLACE DIRECTORY GENERATOR

PlaceID: EARTH
Z: Z6

PlaceID: PLACE_A
Z: Z3|Z4
Aliases: {…}
Parent: (optional)

PlaceID: PLACE_B
Z: Z3|Z4
Aliases: {…}

PlaceID: PLACE_C
Z: Z3|Z4
Aliases: {…}

PlaceID: PLACE_D
Z: Z3|Z4
Aliases: {…}

			
---
## 2) LANE MENU (pick 4–7)

txt id=”w8v0c8″
LANE MENU (choose)
FIN (capital/liquidity/risk)
GOV (policy/legitimacy/enforcement)
SEC (deterrence/coercion/posture)
TECH (strategic tech flows/controls/capability)
LOG (shipping/ports/lead-time/inventory)
FOOD (commodities/fertilizer/supply)
ENER (energy)
MEDIA (narrative/attention/emotion contagion)
HEAL (public health)
CLIM (climate/physical risk)

			
---
## 3) NODE STUB GENERATOR (AVOO + pipes + gates + sensors)

txt id=”j0x7gk”
NODE STUB GENERATOR

For each Place×Lane create:

– Operator pipe (execution)

– Oracle sensor (sensing/forecast)

– Visionary control gate (legitimacy + decision corridor)

– Architect corridor design pipe (structural reroute / redundancy)

Node: PLACE_X×LANE_Y×Zx×Operator×PIPE×PX.LY.OP.PIPE
Fields: {C, B, L, Ḋ, Ġ, R, TTC, ρ, E, NIT}

Node: PLACE_X×LANE_Y×Zx×Oracle×SENSOR×PX.LY.OR.SENSE
Measures: {TTC, R, κ_effective, ρ, E, NIT, buffer levels}

Node: PLACE_X×LANE_Y×Zx×Visionary×CONTROL×PX.LY.VI.GATE
Controls: {off-ramps, legitimacy buffer, irreversible policy locks}

Node: PLACE_X×LANE_Y×Zx×Architect×PIPE×PX.LY.AR.CORRIDOR
Controls: {redundancy, reroute, buffer pooling, κ re-weighting, ΔAd⁺}

Global Z6 sensors (optional but recommended)

Node: EARTH×FIN×Z6×Oracle×SENSOR×GLOB.RISKINDEX
Node: EARTH×LOG×Z6×Oracle×SENSOR×GLOB.LEADTIME
Node: EARTH×MEDIA×Z6×Oracle×SENSOR×GLOB.SENTIMENT
Node: EARTH×TECH×Z6×Oracle×SENSOR×GLOB.TECHFLOW

			
---
## 4) EDGE STUB GENERATOR (κ base + κ_effective)

txt id=”m2s9y3″
EDGE STUB GENERATOR

Define a corridor topology:

– Ring (A→B→C→D→A)

– Star (A center)

– Dual-hub (A and C hubs)

– Mesh (dense; higher κ; higher brittleness risk)

Example: Ring topology

Edge: PLACE_A×LANE_i -> PLACE_B×LANE_i Type: FLOW.GOODS|CAPITAL|INFO|POLICY|RISK κ=0.3..0.9
Edge: PLACE_B×LANE_i -> PLACE_C×LANE_i Type: … κ=…
Edge: PLACE_C×LANE_i -> PLACE_D×LANE_i Type: … κ=…
Edge: PLACE_D×LANE_i -> PLACE_A×LANE_i Type: … κ=…

MEDIA amplifies κ_effective

Rule:
κ_effective(e,t) = κ_base(e) × h(MEDIA_amp(source), MEDIA_amp(dest), E(source), E(dest), attention)

			
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## 5) SENSOR PACK v1.2 (minimum viable)

txt id=”8q2k1h”
SENSOR PACK v1.2

Per Node n:
S1: TTC(n) (time-to-core failure)
S2: R(n)=Ḋ/Ġ (rate dominance)
S3: Buffer vector B(n) {inventory, liquidity, trust, redundancy, time}
S4: Coupling κ_effective(n) (incoming/outgoing)
S5: SymChoice ρ(n) (choice injection / symmetry budget)
S6: Emotion vector E(n) {fear, anger, shame, grief, hope, attachment, pride}
S7: NIT(n) + d(NIT)/dt (irreversibility level + slope)
S8: Phase(n) ∈ {P0,P1,P2,P3} (computed)

Fence triggers:
F1: TTC < TTC_fence F2: R > R_fence
F3: ρ > 1 (operator shear)
F4: d(NIT)/dt > NIT_slope_fence

			
---
## 6) PHASE UPDATE (simple deterministic rule set)

txt id=”u4r1sp”
PHASE UPDATE (template rule)

Compute Stress σ = L/C
Compute Shear χ = max(0, ρ-1)
Compute Narr ν = NIT + k*d(NIT)/dt

RiskScore = w1I(R>1) + w2I(TTC<TTC_fence) + w3σ + w4χ + w5κ_effective + w6ν

Map RiskScore -> Phase:
if RiskScore < a => P3
if a <= RiskScore < b => P2
if b <= RiskScore < c => P1
if RiskScore >= c => P0

Notes:

EmotionOS affects χ (via choices) and κ_effective (via MEDIA contagion)
Architect actions reduce κ_fragile and increase redundancy (buffers)

			
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## 7) FENCEOS ACTUATION (Truncation + Stitching)

txt id=”0k8t7v”
FENCEOS ACTUATION

IF (F1 OR F2 OR F3 OR F4):
ACTION.TRUNCATE:
– cut accelerating loss path (panic loops)
– apply reversible throttles first
– reduce κ_effective (cooling narrative + flow shaping)
ACTION.STITCH:
– rebuild buffers B (inventory/liquidity/trust)
– reroute flows (Architect)
– set explicit off-ramps (Visionary)
– tighten SOP playbooks to keep ρ≤1 (Operator)
– increase sensing cadence (Oracle)
RETURN to evaluation until Phase re-enters P2/P3 band

			
---
## 8) SCENARIO GENERATOR (fill-in-the-blanks)

txt id=”k7o3m1″
SCENARIO GENERATOR

ScenarioID: SCN….<001>

T0: Event at PLACE_X×LANE_Y

L↑/C↓/B↓/κ↑
E shifts (fear/anger/etc)
T1: Oracle sensing
compute TTC/R/ρ/E/NIT and top chokepoints
T2: Fence trigger?
if yes: truncate
T3: Visionary
legitimacy + off-ramps (NIT control)
T4: Architect
ΔAd⁺ restructure: redundancy + reroute + κ reweighting
T5: Operator
execute SOP, preserve symmetry (ρ≤1)
T6: Re-evaluate Phase; output repair corridor

			
---
## 9) PLAYBOOK LIBRARY (common triggers)

txt id=”d9w6t2″
PLAYBOOKS (pick one; can chain)

P0.MEDIA.NIT-LOCK
Trigger: narrative hardens; d(NIT)/dt high
Risk: irreversible corridor; bind deletion decisions
Fix: Visionary off-ramps + Oracle counter-signal + reduce κ_effective

P1.FIN.RISK-SPIKE
Trigger: volatility, liquidity drawdown, risk premium jump
Risk: panic loop; ρ>1 in Operators; R>1 temporarily
Fix: truncate panic loops; protect liquidity buffers; clear settlement trust

P2.LOG.LEADTIME-SHOCK
Trigger: port/route disruption; inventories drain
Risk: cascading shortages; inflation stress; GOV legitimacy erosion
Fix: Architect reroute + buffer pooling; prioritize critical lanes

P3.TECH.GATE-SNAP
Trigger: export control/supply cutoff; chokepoint activated
Risk: capability cliffs; long-run Ġ destroyed if binds deleted
Fix: reversible throttles + auditable corridor; redundancy build

P4.SEC.POSTURE-SPIKE
Trigger: deterrence signaling escalation; risk perception jump
Risk: MEDIA amplification → FIN spillover → LOG shock
Fix: reduce κ_effective; keep comms corridor open; prevent pride-lock NIT

P5.GOV.LEGITIMACY-DROP
Trigger: trust buffer collapses; compliance falls
Risk: enforcement cost ↑; R>1 sustained
Fix: legitimacy repair; visible fairness; reduce load; rebuild buffers

P6.MULTI-LANE.COMPOUND
Trigger: FIN+LOG+MEDIA simultaneously
Risk: fast attrition cascade
Fix: Fence first, then Architect corridor redesign, then staged restore

			
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## 10) “CLONE BLOCK” (turn the template into a concrete corridor in 60 seconds)

txt id=”c4v3q8″
CLONE BLOCK (fill in)

PLACES:
PLACE_A =
PLACE_B =
PLACE_C =
PLACE_D =
TOPOLOGY:
{RING | STAR | DUALHUB | MESH}
LANES:
{FIN, GOV, SEC, TECH, LOG, MEDIA, …}
PRIMARY TRIGGER PLAYBOOK:
{P0..P6}
INITIAL EVENT:
EventPlace =
EventLane =
EventType = _
INITIAL EMOTIONS:
E(A)=…
E(B)=…
E(C)=…
E(D)=…
RUN:
Build nodes/edges → compute sensors → Fence actuation → output Phase map + repair plan

			
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## 11) OPTIONAL: “SAFE OUTPUT FORMAT” (for WordPress / LLM ingestion)

txt id=”s9e1nk”
SAFE OUTPUT FORMAT

Section order:
META → CONTRACT → DEFINITIONS → PLACES → LANES → NODES → EDGES →
SENSOR PACK → PLAYBOOK CHOSEN → SCENARIO RUN → FAILURE TRACE → REPAIR TRACE → CHECKLIST

Hard rule:
Do not rename NodeIDs; only version forward (v1.2 → v1.3).
“`

			
CIVOS.RUNTIME.GLOBALPACK.EXAMPLE.BEJ-TPE-TYO-WDC.PUBLISH.v1.2
ModuleID: CIVOS.GLOBALPACK.EXAMPLE.PUBLISH.002
Version: v1.2 (forward-only)
Type: Publishable Corridor Page (Add-on; no Core mutation)
PlaceSet: {CHN.BJ.BEJ, TWN.TP.TPE, JPN.TK.TYO, USA.DC.WDC, EARTH}
LaneSet: {GOV, SEC, FIN, TECH, LOG, MEDIA}
Dependencies:
  - CIVOS.CORE.v1.2
  - FENCEOS.v1.2
  - AVOO.ROLES.v1.2
  - SYMCHOICE.v1.2
  - MINDOS.CORE.v1.2
  - EMOTIONOS.v1.2
Safety:
  - This is a runtime coordination spec; it makes no claim about real-world intent.
  - “SEC lane” is modeled as risk/posture dynamics, not accusations.

		

			
CONTRACT
Input:
  - Optional signals/events (any lane, any place)
  - Optional parameter estimates: {C,B,L,κ,R,TTC,ρ,E,NIT}
Output:
  - Node Phase map P0–P3 per (Place×Lane)
  - Chokepoints ranked by (κ_effective × TTC shortness × R>1)
  - FenceOS triggers + (TRUNCATE → STITCH) actuation plan
  - AVOO action split:
      Operator = execute SOP
      Oracle = sense/forecast
      Visionary = legitimacy + off-ramps (NIT control)
      Architect = corridor redesign (ΔAd⁺, redundancy, κ reweight)

		

			
DEFINITIONS (pack-local)
Z:
  All four places modeled at Z3 (city-system). Planet sensor layer at Z6.
State per node n:
  C(n)=capacity, B(n)=buffers, L(n)=load
  Ḋ(n)=damage/loss rate, Ġ(n)=regen/repair rate
  R(n)=Ḋ/Ġ
  TTC(n)=time-to-core failure
  κ_base(e)=edge coupling; κ_effective(e,t)=κ_base×MEDIA×Emotion amplification
  ρ(n)=SymChoice ratio (choice_injected / symmetry_budget)  [Operator shear if ρ>1]
  E(n)=emotion vector (fear/anger/pride/shame/grief/hope/attachment/resolve/caution)
  NIT(n)=Narrative Irreversibility Threshold (lock-in) + slope d(NIT)/dt
Fence triggers:
  F1: TTC < TTC_fence
  F2: R > R_fence
  F3: ρ > 1
  F4: d(NIT)/dt > NIT_slope_fence

		

			
PLACES (Z5 surface)
CHN.BJ.BEJ  (Beijing)   Z3
TWN.TP.TPE  (Taipei)    Z3
JPN.TK.TYO  (Tokyo)     Z3
USA.DC.WDC  (Washington D.C.) Z3
EARTH       Z6 sensors

		

			
LANES
GOV   policy / legitimacy / enforcement / reversibility corridors
SEC   posture / deterrence / escalation risk dynamics
FIN   liquidity / credit / rates / risk premium
TECH  strategic capability + choke-points + export/import control gates
LOG   lead-time / shipping / routing / inventory
MEDIA narrative / attention / emotion contagion amplifier (κ_effective)

		

NODE LIST (complete: 4 places × 6 lanes × 4 roles = 96)

			
NODESET (complete stubs; fields assumed: {C,B,L,Ḋ,Ġ,R,TTC,ρ,E,NIT})
# --- BEIJING (CHN.BJ.BEJ) ---
Node: CHN.BJ.BEJ×GOV ×Z3×Operator ×PIPE   ×BEJ.GOV.OP.PIPE
Node: CHN.BJ.BEJ×GOV ×Z3×Oracle   ×SENSOR ×BEJ.GOV.OR.SENSE
Node: CHN.BJ.BEJ×GOV ×Z3×Visionary×CONTROL×BEJ.GOV.VI.GATE
Node: CHN.BJ.BEJ×GOV ×Z3×Architect×PIPE   ×BEJ.GOV.AR.CORRIDOR
Node: CHN.BJ.BEJ×SEC ×Z3×Operator ×PIPE   ×BEJ.SEC.OP.PIPE
Node: CHN.BJ.BEJ×SEC ×Z3×Oracle   ×SENSOR ×BEJ.SEC.OR.SENSE
Node: CHN.BJ.BEJ×SEC ×Z3×Visionary×CONTROL×BEJ.SEC.VI.GATE
Node: CHN.BJ.BEJ×SEC ×Z3×Architect×PIPE   ×BEJ.SEC.AR.CORRIDOR
Node: CHN.BJ.BEJ×FIN ×Z3×Operator ×PIPE   ×BEJ.FIN.OP.PIPE
Node: CHN.BJ.BEJ×FIN ×Z3×Oracle   ×SENSOR ×BEJ.FIN.OR.SENSE
Node: CHN.BJ.BEJ×FIN ×Z3×Visionary×CONTROL×BEJ.FIN.VI.GATE
Node: CHN.BJ.BEJ×FIN ×Z3×Architect×PIPE   ×BEJ.FIN.AR.CORRIDOR
Node: CHN.BJ.BEJ×TECH×Z3×Operator ×PIPE   ×BEJ.TECH.OP.PIPE
Node: CHN.BJ.BEJ×TECH×Z3×Oracle   ×SENSOR ×BEJ.TECH.OR.SENSE
Node: CHN.BJ.BEJ×TECH×Z3×Visionary×CONTROL×BEJ.TECH.VI.GATE
Node: CHN.BJ.BEJ×TECH×Z3×Architect×PIPE   ×BEJ.TECH.AR.CORRIDOR
Node: CHN.BJ.BEJ×LOG ×Z3×Operator ×PIPE   ×BEJ.LOG.OP.PIPE
Node: CHN.BJ.BEJ×LOG ×Z3×Oracle   ×SENSOR ×BEJ.LOG.OR.SENSE
Node: CHN.BJ.BEJ×LOG ×Z3×Visionary×CONTROL×BEJ.LOG.VI.GATE
Node: CHN.BJ.BEJ×LOG ×Z3×Architect×PIPE   ×BEJ.LOG.AR.CORRIDOR
Node: CHN.BJ.BEJ×MEDIA×Z3×Operator ×PIPE   ×BEJ.MEDIA.OP.AMP
Node: CHN.BJ.BEJ×MEDIA×Z3×Oracle   ×SENSOR ×BEJ.MEDIA.OR.SENSE
Node: CHN.BJ.BEJ×MEDIA×Z3×Visionary×CONTROL×BEJ.MEDIA.VI.GATE
Node: CHN.BJ.BEJ×MEDIA×Z3×Architect×PIPE   ×BEJ.MEDIA.AR.CORRIDOR
# --- TAIPEI (TWN.TP.TPE) ---
Node: TWN.TP.TPE×GOV ×Z3×Operator ×PIPE   ×TPE.GOV.OP.PIPE
Node: TWN.TP.TPE×GOV ×Z3×Oracle   ×SENSOR ×TPE.GOV.OR.SENSE
Node: TWN.TP.TPE×GOV ×Z3×Visionary×CONTROL×TPE.GOV.VI.GATE
Node: TWN.TP.TPE×GOV ×Z3×Architect×PIPE   ×TPE.GOV.AR.CORRIDOR
Node: TWN.TP.TPE×SEC ×Z3×Operator ×PIPE   ×TPE.SEC.OP.PIPE
Node: TWN.TP.TPE×SEC ×Z3×Oracle   ×SENSOR ×TPE.SEC.OR.SENSE
Node: TWN.TP.TPE×SEC ×Z3×Visionary×CONTROL×TPE.SEC.VI.GATE
Node: TWN.TP.TPE×SEC ×Z3×Architect×PIPE   ×TPE.SEC.AR.CORRIDOR
Node: TWN.TP.TPE×FIN ×Z3×Operator ×PIPE   ×TPE.FIN.OP.PIPE
Node: TWN.TP.TPE×FIN ×Z3×Oracle   ×SENSOR ×TPE.FIN.OR.SENSE
Node: TWN.TP.TPE×FIN ×Z3×Visionary×CONTROL×TPE.FIN.VI.GATE
Node: TWN.TP.TPE×FIN ×Z3×Architect×PIPE   ×TPE.FIN.AR.CORRIDOR
Node: TWN.TP.TPE×TECH×Z3×Operator ×PIPE   ×TPE.TECH.OP.PIPE
Node: TWN.TP.TPE×TECH×Z3×Oracle   ×SENSOR ×TPE.TECH.OR.SENSE
Node: TWN.TP.TPE×TECH×Z3×Visionary×CONTROL×TPE.TECH.VI.GATE
Node: TWN.TP.TPE×TECH×Z3×Architect×PIPE   ×TPE.TECH.AR.CORRIDOR
Node: TWN.TP.TPE×LOG ×Z3×Operator ×PIPE   ×TPE.LOG.OP.PIPE
Node: TWN.TP.TPE×LOG ×Z3×Oracle   ×SENSOR ×TPE.LOG.OR.SENSE
Node: TWN.TP.TPE×LOG ×Z3×Visionary×CONTROL×TPE.LOG.VI.GATE
Node: TWN.TP.TPE×LOG ×Z3×Architect×PIPE   ×TPE.LOG.AR.CORRIDOR
Node: TWN.TP.TPE×MEDIA×Z3×Operator ×PIPE   ×TPE.MEDIA.OP.AMP
Node: TWN.TP.TPE×MEDIA×Z3×Oracle   ×SENSOR ×TPE.MEDIA.OR.SENSE
Node: TWN.TP.TPE×MEDIA×Z3×Visionary×CONTROL×TPE.MEDIA.VI.GATE
Node: TWN.TP.TPE×MEDIA×Z3×Architect×PIPE   ×TPE.MEDIA.AR.CORRIDOR
# --- TOKYO (JPN.TK.TYO) ---
Node: JPN.TK.TYO×GOV ×Z3×Operator ×PIPE   ×TYO.GOV.OP.PIPE
Node: JPN.TK.TYO×GOV ×Z3×Oracle   ×SENSOR ×TYO.GOV.OR.SENSE
Node: JPN.TK.TYO×GOV ×Z3×Visionary×CONTROL×TYO.GOV.VI.GATE
Node: JPN.TK.TYO×GOV ×Z3×Architect×PIPE   ×TYO.GOV.AR.CORRIDOR
Node: JPN.TK.TYO×SEC ×Z3×Operator ×PIPE   ×TYO.SEC.OP.PIPE
Node: JPN.TK.TYO×SEC ×Z3×Oracle   ×SENSOR ×TYO.SEC.OR.SENSE
Node: JPN.TK.TYO×SEC ×Z3×Visionary×CONTROL×TYO.SEC.VI.GATE
Node: JPN.TK.TYO×SEC ×Z3×Architect×PIPE   ×TYO.SEC.AR.CORRIDOR
Node: JPN.TK.TYO×FIN ×Z3×Operator ×PIPE   ×TYO.FIN.OP.PIPE
Node: JPN.TK.TYO×FIN ×Z3×Oracle   ×SENSOR ×TYO.FIN.OR.SENSE
Node: JPN.TK.TYO×FIN ×Z3×Visionary×CONTROL×TYO.FIN.VI.GATE
Node: JPN.TK.TYO×FIN ×Z3×Architect×PIPE   ×TYO.FIN.AR.CORRIDOR
Node: JPN.TK.TYO×TECH×Z3×Operator ×PIPE   ×TYO.TECH.OP.PIPE
Node: JPN.TK.TYO×TECH×Z3×Oracle   ×SENSOR ×TYO.TECH.OR.SENSE
Node: JPN.TK.TYO×TECH×Z3×Visionary×CONTROL×TYO.TECH.VI.GATE
Node: JPN.TK.TYO×TECH×Z3×Architect×PIPE   ×TYO.TECH.AR.CORRIDOR
Node: JPN.TK.TYO×LOG ×Z3×Operator ×PIPE   ×TYO.LOG.OP.PIPE
Node: JPN.TK.TYO×LOG ×Z3×Oracle   ×SENSOR ×TYO.LOG.OR.SENSE
Node: JPN.TK.TYO×LOG ×Z3×Visionary×CONTROL×TYO.LOG.VI.GATE
Node: JPN.TK.TYO×LOG ×Z3×Architect×PIPE   ×TYO.LOG.AR.CORRIDOR
Node: JPN.TK.TYO×MEDIA×Z3×Operator ×PIPE   ×TYO.MEDIA.OP.AMP
Node: JPN.TK.TYO×MEDIA×Z3×Oracle   ×SENSOR ×TYO.MEDIA.OR.SENSE
Node: JPN.TK.TYO×MEDIA×Z3×Visionary×CONTROL×TYO.MEDIA.VI.GATE
Node: JPN.TK.TYO×MEDIA×Z3×Architect×PIPE   ×TYO.MEDIA.AR.CORRIDOR
# --- WASHINGTON D.C. (USA.DC.WDC) ---
Node: USA.DC.WDC×GOV ×Z3×Operator ×PIPE   ×WDC.GOV.OP.PIPE
Node: USA.DC.WDC×GOV ×Z3×Oracle   ×SENSOR ×WDC.GOV.OR.SENSE
Node: USA.DC.WDC×GOV ×Z3×Visionary×CONTROL×WDC.GOV.VI.GATE
Node: USA.DC.WDC×GOV ×Z3×Architect×PIPE   ×WDC.GOV.AR.CORRIDOR
Node: USA.DC.WDC×SEC ×Z3×Operator ×PIPE   ×WDC.SEC.OP.PIPE
Node: USA.DC.WDC×SEC ×Z3×Oracle   ×SENSOR ×WDC.SEC.OR.SENSE
Node: USA.DC.WDC×SEC ×Z3×Visionary×CONTROL×WDC.SEC.VI.GATE
Node: USA.DC.WDC×SEC ×Z3×Architect×PIPE   ×WDC.SEC.AR.CORRIDOR
Node: USA.DC.WDC×FIN ×Z3×Operator ×PIPE   ×WDC.FIN.OP.PIPE
Node: USA.DC.WDC×FIN ×Z3×Oracle   ×SENSOR ×WDC.FIN.OR.SENSE
Node: USA.DC.WDC×FIN ×Z3×Visionary×CONTROL×WDC.FIN.VI.GATE
Node: USA.DC.WDC×FIN ×Z3×Architect×PIPE   ×WDC.FIN.AR.CORRIDOR
Node: USA.DC.WDC×TECH×Z3×Operator ×PIPE   ×WDC.TECH.OP.PIPE
Node: USA.DC.WDC×TECH×Z3×Oracle   ×SENSOR ×WDC.TECH.OR.SENSE
Node: USA.DC.WDC×TECH×Z3×Visionary×CONTROL×WDC.TECH.VI.GATE
Node: USA.DC.WDC×TECH×Z3×Architect×PIPE   ×WDC.TECH.AR.CORRIDOR
Node: USA.DC.WDC×LOG ×Z3×Operator ×PIPE   ×WDC.LOG.OP.PIPE
Node: USA.DC.WDC×LOG ×Z3×Oracle   ×SENSOR ×WDC.LOG.OR.SENSE
Node: USA.DC.WDC×LOG ×Z3×Visionary×CONTROL×WDC.LOG.VI.GATE
Node: USA.DC.WDC×LOG ×Z3×Architect×PIPE   ×WDC.LOG.AR.CORRIDOR
Node: USA.DC.WDC×MEDIA×Z3×Operator ×PIPE   ×WDC.MEDIA.OP.AMP
Node: USA.DC.WDC×MEDIA×Z3×Oracle   ×SENSOR ×WDC.MEDIA.OR.SENSE
Node: USA.DC.WDC×MEDIA×Z3×Visionary×CONTROL×WDC.MEDIA.VI.GATE
Node: USA.DC.WDC×MEDIA×Z3×Architect×PIPE   ×WDC.MEDIA.AR.CORRIDOR

		

GLOBAL Z6 SENSORS (recommended)

			
GLOBAL SENSORS (Z6)
Node: EARTH×FIN ×Z6×Oracle×SENSOR×GLOB.FIN.RISKINDEX
Node: EARTH×LOG ×Z6×Oracle×SENSOR×GLOB.LOG.LEADTIME
Node: EARTH×TECH×Z6×Oracle×SENSOR×GLOB.TECHFLOW.INDEX
Node: EARTH×MEDIA×Z6×Oracle×SENSOR×GLOB.MEDIA.SENTIMENT
Node: EARTH×SEC ×Z6×Oracle×SENSOR×GLOB.SEC.RISKHEAT

		

EDGE MATRIX (dense-but-readable)

			
EDGE RULES
- κ_base is structural coupling.
- κ_effective = κ_base × h(MEDIA_amp_src, MEDIA_amp_dst, E_src, E_dst, attention)
- MEDIA lane edges are “amplifiers” that increase κ_effective on other lanes.
TOPOLOGY: DUAL-HUB + TRIANGLE
  Hubs: WDC (policy gates), TYO (reroute/finance), with BEJ and TPE as high-coupling TECH/SEC endpoints.

		

Cross-place coupling (κ_base), by lane

			
EDGE_MATRIX.FIN (κ_base)
       ->   BEJ   TPE   TYO   WDC
BEJ         0.0   0.3   0.3   0.4
TPE         0.2   0.0   0.4   0.4
TYO         0.3   0.4   0.0   0.7
WDC         0.4   0.5   0.6   0.0
EDGE_MATRIX.TECH (κ_base)
       ->   BEJ   TPE   TYO   WDC
BEJ         0.0   0.6   0.4   0.5
TPE         0.4   0.0   0.6   0.6
TYO         0.4   0.6   0.0   0.5
WDC         0.6   0.7   0.5   0.0
EDGE_MATRIX.SEC (κ_base)
       ->   BEJ   TPE   TYO   WDC
BEJ         0.0   0.8   0.4   0.6
TPE         0.7   0.0   0.4   0.6
TYO         0.4   0.4   0.0   0.5
WDC         0.6   0.6   0.5   0.0
EDGE_MATRIX.LOG (κ_base)
       ->   BEJ   TPE   TYO   WDC
BEJ         0.0   0.4   0.6   0.3
TPE         0.3   0.0   0.6   0.3
TYO         0.5   0.5   0.0   0.4
WDC         0.3   0.3   0.4   0.0
EDGE_MATRIX.GOV (κ_base)
       ->   BEJ   TPE   TYO   WDC
BEJ         0.0   0.5   0.3   0.4
TPE         0.4   0.0   0.3   0.5
TYO         0.3   0.3   0.0   0.5
WDC         0.4   0.6   0.4   0.0
EDGE_MATRIX.MEDIA (κ_base)
       ->   BEJ   TPE   TYO   WDC
BEJ         0.0   0.4   0.3   0.4
TPE         0.4   0.0   0.3   0.4
TYO         0.3   0.3   0.0   0.4
WDC         0.4   0.5   0.4   0.0

		

Within-place couplings (default)

			
WITHIN_PLACE DEFAULTS (apply to each place)
- MEDIA -> {FIN,GOV,SEC,TECH,LOG}: κ=0.6  (amplification path)
- GOV  -> {FIN,SEC,TECH,LOG}:     κ=0.5  (policy gate influence)
- FIN  -> {LOG,TECH}:             κ=0.4  (credit/liquidity to ops)
- SEC  -> {FIN,MEDIA}:            κ=0.4  (risk repricing + narrative attention)
- LOG  -> {FIN,MEDIA}:            κ=0.3  (price/attention via shortages)

		

SENSOR PACK (corridor-minimum)

			
SENSORS.v1.2
Thresholds (defaults; tune per lane):
  TTC_fence = 14d (LOG/TECH), 7d (FIN), 21d (GOV), 10d (SEC), 5d (MEDIA narrative spikes)
  R_fence   = 1.10
  NIT_slope_fence = "high" (qualitative) OR > θ per day
  ρ_fence   = 1.00
Per Place×Lane roll-up:
  TTC = min(TTC of critical nodes)
  R   = weighted avg R of OP pipes
  κ_effective = κ_base × MEDIA_amp × Emotion contagion
  ρ_operator  = choice injection on OP layer
  E, NIT from MEDIA + GOV nodes
Output:
  Phase(P0–P3) per (Place×Lane) and per corridor

		

THREE SCENARIOS (all in almost-code)

SCN 1 — TECH gate snap (chokepoint event)

			
SCENARIO: SCN.TECH.GATE-SNAP.DUALHUB.001
Primary playbook: P3.TECH.GATE-SNAP
Event origin: WDC×TECH (policy gate change)  OR  BEJ×TECH (capability reroute shock)
Core risk: irreversible bind deletion in TECH lane → long-run Ġ collapse
T0 EVENT
  Node: USA.DC.WDC×TECH×Z3×Visionary×CONTROL×WDC.TECH.VI.GATE
  Shock:
    L(TECH)↑, κ(TECH)↑ on WDC->(TPE,BEJ,TYO)
    E(WDC) shifts toward {fear/anger/pride} depending on narrative
    NIT slope rises if framed as irreversible
T1 ORACLE (sense + forecast)
  - WDC.TECH.OR.SENSE computes TTC for:
      TPE.TECH.OP.PIPE (production buffer),
      TYO.TECH.OP.PIPE (reroute capacity),
      BEJ.TECH.OP.PIPE (substitute corridor),
      plus GLOB.TECHFLOW.INDEX
  - Flags chokepoint:
      κ_effective(WDC->TPE TECH) × TTC(TPE TECH) is top risk product.
T2 FENCE TRIGGER CHECK
  If TTC(TPE TECH) < TTC_fence OR d(NIT)/dt > fence:
    FenceOS => TRUNCATE:
      - prefer reversible throttles + auditable corridor
      - publish explicit off-ramps (reduce NIT)
T3 VISIONARY (NIT control + legitimacy buffer)
  - WDC: define reversible corridor & criteria (NIT↓, trust buffer↑)
  - TPE: stabilize confidence to prevent FIN capital run spillover
  - BEJ: keep escalation corridor separable from TECH lane where possible
T4 ARCHITECT (ΔAd⁺ corridor redesign)
  - TYO.TECH.AR.CORRIDOR:
      reroute subcomponents, buffer pooling, alternate suppliers
  - TPE.TECH.AR.CORRIDOR:
      prioritize critical SKUs, increase redundancy nodes, decouple brittle links
  - BEJ.TECH.AR.CORRIDOR:
      build substitution corridor to increase Ġ (long-run regen)
  - Output: κ_fragile↓, redundancy↑, B_inventory↑, TTC↑
T5 OPERATOR (SOP execution; keep ρ≤1)
  - Run playbooks; avoid ad-hoc decisions that spike ρ
  - Oracle increases sensing cadence; Operators follow thresholds
T6 OUTCOME (Phase update)
  Success:
    TECH stays P2 (strained but functional), no sustained R>1, NIT stabilized
  Failure:
    irreversible bind deletion → Ġ collapses → R>1 sustained → TECH P1→P0 cascade → FIN spillover
FAILURE TRACE (compact)
  TECH gate snap → NIT lock → bind deletion → TTC(TPE)↓ → LOG delays → FIN risk↑ → MEDIA fear↑ → loop
REPAIR TRACE (compact)
  Oracle flags TTC/NIT → Fence truncates irreversibility → Visionary publishes off-ramps → Architect reroutes/redundancy → Operators execute SOP → TTC↑ → P2/P3 band

		

SCN 2 — FIN risk spike (panic loop + operator shear)

			
SCENARIO: SCN.FIN.RISK-SPIKE.DUALHUB.001
Primary playbook: P1.FIN.RISK-SPIKE
Event origin: TYO×FIN (market volatility) with Z6 risk amplification
Core risk: κ_effective↑ via MEDIA → ρ(operator)>1 → Ḋ↑ → TTC↓ cascade into TECH/LOG
T0 EVENT
  Node: JPN.TK.TYO×FIN×Z3×Operator×PIPE×TYO.FIN.OP.PIPE
  Shock:
    liquidity drawdown, volatility↑
    E(TYO) shifts to {caution:0.6, fear:0.3, anger:0.1}
    MEDIA amplifies κ_effective to WDC/BEJ/TPE
T1 ORACLE
  - TYO.FIN.OR.SENSE + GLOB.FIN.RISKINDEX:
      estimate R and TTC for:
        TYO FIN, WDC FIN gate, TPE FIN inflows, BEJ FIN spillover
  - Identify operator shear risk:
      if fast decisions forced: ρ(TYO FIN OP) trending >1
T2 FENCE TRIGGER
  If TTC(FIN)<TTC_fence OR ρ>1 OR R>R_fence:
    FenceOS => TRUNCATE:
      - cut panic feedback (reduce κ_effective via MEDIA cooling)
      - protect settlement trust + liquidity buffers
T3 VISIONARY
  - TYO GOV: stabilize “trust buffer” narrative (avoid NIT: “system broken”)
  - WDC GOV: avoid compounding shock with abrupt TECH/GOV moves unless necessary
T4 ARCHITECT
  - Reduce brittle coupling:
      κ(FIN->TECH) and κ(FIN->LOG) on fragile edges ↓
  - Create buffer pooling:
      liquidity/credit corridors prioritized to critical ops (LOG/TECH)
T5 OPERATOR
  - execute circuit/limits/SOP; adhere to thresholds to keep ρ≤1
  - Oracle increases sensing cadence and feeds Operators “allowed moves” set
T6 OUTCOME
  Success:
    FIN returns to P2/P3; R≤1; TTC↑; no cross-lane cascade
  Failure:
    ρ>1 sustained → Ḋ↑ → TTC↓ → TECH/LOG shortages → GOV legitimacy stress → spiral
FAILURE TRACE
  FIN vol spike → MEDIA amplification → panic choices (ρ>1) → Ḋ↑ → TTC↓ → TECH/LOG disruption → GOV strain
REPAIR TRACE
  Oracle detects ρ/TTC → Fence truncates panic loop → Visionary stabilizes trust → Architect decouples brittle edges + pools buffers → Operators execute SOP → P2/P3 restore

		

SCN 3 — MEDIA NIT lock (irreversibility slope event)

			
SCENARIO: SCN.MEDIA.NIT-LOCK.MESH.001
Primary playbook: P0.MEDIA.NIT-LOCK
Event origin: cross-place narrative hardening (d(NIT)/dt high) causing irreversible corridor selection
Core risk: NIT lock forces bind deletion decisions in GOV/SEC/TECH
T0 EVENT
  Node: EARTH×MEDIA×Z6×Oracle×EVENT×GLOB.NIT.SPIKE
  Local manifestation:
    WDC/BEJ/TPE/TYO MEDIA amps push κ_effective↑
    E shifts toward {anger, pride, fear} depending on local framing
    NIT rises fastest in GOV+SEC gates
T1 ORACLE
  - Measure:
      NIT level + slope for each place:
        WDC.MEDIA.OR.SENSE, BEJ.MEDIA.OR.SENSE, TPE.MEDIA.OR.SENSE, TYO.MEDIA.OR.SENSE
  - Identify “irreversibility chokepoints”:
      the gates where a single decision deletes future corridors:
        {WDC.GOV.VI.GATE, BEJ.GOV.VI.GATE, TPE.SEC.VI.GATE, WDC.TECH.VI.GATE}
T2 FENCE TRIGGER
  If d(NIT)/dt > fence OR NIT crosses threshold:
    FenceOS => TRUNCATE:
      - block irreversible decisions during peak contagion window
      - force “reversible first” policy corridor
      - reduce κ_effective by dampening amplification channels
T3 VISIONARY (primary role in this scenario)
  Objective:
    keep system inside reversible decision manifold
  Actions:
    - publish off-ramps and criteria (explicitly reversible)
    - restore legitimacy buffer (trust) so compliance does not collapse
    - separate lanes: prevent MEDIA from collapsing TECH/GOV corridor
T4 ARCHITECT
  - Build structural alternatives so leaders have non-binary choices:
      add third-path corridors (auditable throttles, phased gates, buffer pooling)
  - Reduce brittleness:
      diversify dependencies, lower κ on fragile chokepoints
T5 OPERATOR
  - enforce temporary “cool-down SOP”
  - adhere to allowable move-set; keep ρ≤1
T6 OUTCOME
  Success:
    NIT slope slows; κ_effective drops; irreversible bind deletion avoided; corridor stays P2/P3
  Failure:
    NIT lock → irreversible policy → bind deletion → Ġ↓ → R>1 sustained → cascade across lanes
FAILURE TRACE
  MEDIA contagion → NIT slope↑ → irreversible decision → bind deletion → Ġ collapse → R>1 → TTC↓ → multi-lane cascade
REPAIR TRACE
  Oracle detects NIT slope → Fence blocks irreversibility → Visionary installs off-ramps → Architect creates third-path corridors → Operators run cool-down SOP → NIT↓ → stability band

		

RUN CHECKLIST (single-pass)

			
RUN CHECKLIST (corridor)
1) Initialize baselines for each Place×Lane:
   {C,B,L,R,TTC,ρ,E,NIT} (rough ok)
2) Pick scenario (TECH gate snap / FIN risk spike / MEDIA NIT lock)
3) Propagate shock across EDGE_MATRIX using κ_effective
4) Compute fence triggers (F1..F4) per Place×Lane
5) If triggered: TRUNCATE → STITCH (FenceOS)
6) Apply AVOO split:
     Oracle = top chokepoints + forecasts
     Visionary = off-ramps + legitimacy buffer
     Architect = redundancy + reroute + κ reweight + buffer pooling
     Operator = execute SOP with ρ≤1
7) Output:
   - Phase map (P0–P3) per Place×Lane
   - top 5 chokepoints (κ_effective×TTC×R)
   - repair corridor plan + monitoring cadence

		

			
CIVOS.RUNTIME.GLOBALPACK.OUTPUTFORMAT.v1.2
ModuleID: CIVOS.GLOBALPACK.OUTPUTFORMAT
Type: Output Spec (paste under any corridor scenario run)
Scope: Phase Map + Chokepoint Ranking + Minimal Data Needed
Dependencies: CIVOS.CORE.v1.2 + FENCEOS.v1.2 + SYMCHOICE.v1.2 + EMOTIONOS.v1.2

		

1) PHASE MAP OUTPUT FORMAT (compact + publishable)

			
OUTPUT.PHASEMAP.v1.2
Rule: 1 line per (Place×Lane). No prose. Use short tokens.
Line grammar:
  PlaceID | Lane | Phase | TTC | R | ρ | κ_eff_in | B_key | E_top2 | NIT | Trig | Action
Field rules:
  Phase ∈ {P0,P1,P2,P3}
  TTC  ∈ {<3d, 3–7d, 7–14d, 14–30d, >30d, unk}
  R    ∈ {<0.9, 0.9–1.0, 1.0–1.1, 1.1–1.3, >1.3, unk}
  ρ    ∈ {<0.8, 0.8–1.0, 1.0–1.2, >1.2, unk}
  κ_eff_in ∈ {low, med, high, vhigh, unk}
  B_key = {liq|inv|trust|time|redund|attn}+{high|med|low|unk}
  E_top2 = {fear/anger/pride/shame/grief/hope/attachment/resolve/caution}+2
  NIT ∈ {low, rising, high, locking, unk}
  Trig = Fence triggers hit: {F1,F2,F3,F4} subset or "-"
  Action = {TRUNCATE, STITCH, BOTH, MONITOR}
Example (blank template lines):
  CHN.BJ.BEJ | TECH | P? | TTC=? | R=? | ρ=? | κ=? | inv=? | E=?/? | NIT=? | Trig=? | Action=?
  TWN.TP.TPE | TECH | P? | TTC=? | R=? | ρ=? | κ=? | inv=? | E=?/? | NIT=? | Trig=? | Action=?
  JPN.TK.TYO | FIN  | P? | TTC=? | R=? | ρ=? | κ=? | liq=? | E=?/? | NIT=? | Trig=? | Action=?
  USA.DC.WDC | GOV  | P? | TTC=? | R=? | ρ=? | κ=? | trust=? | E=?/? | NIT=? | Trig=? | Action=?

		

2) CHOKEPOINT RANKING FORMULA (edge + node)

			
OUTPUT.CHOKEPOINTS.v1.2
Goal:
  Rank edges (and nodes) most likely to drive cascade:
    “high coupling × low time-to-failure × rate-dominance × narrative lock × operator shear”
Normalization helpers:
  TTC_norm = clamp(TTC_days / TTC_ref, 0.1, 3.0)     (TTC_ref default 14d)
  R_excess = max(0, R - 1)
  ρ_excess = max(0, ρ - 1)
  NIT_slope ∈ {0,1,2,3} for {low,rising,high,locking}
  κ_eff ∈ {0.5,1.0,1.5,2.0} for {low,med,high,vhigh}
EDGE CHOKEPOINT SCORE (primary):
  Score_edge(e) =
      κ_eff(e)
    × (1 / TTC_norm(dst_critical))
    × (1 + a*R_excess(dst_critical)) 
    × (1 + b*ρ_excess(dst_operator))
    × (1 + c*NIT_slope(dst_policy_or_media))
Defaults:
  a=2.0, b=1.5, c=1.0
NODE CHOKEPOINT SCORE (secondary):
  Score_node(n) =
      (1 / TTC_norm(n))
    × (1 + a*R_excess(n))
    × (1 + b*ρ_excess(n))
    × (1 + c*NIT_slope(n))
    × (1 + d*κ_in_eff(n))     where κ_in_eff is summed incoming κ_eff bucketed
Output format (top-5):
  Rank | EdgeOrNode | From -> To | Lane | Score | Drivers | RecommendedActuation
Drivers token set:
  {κ, TTC, R, ρ, NIT, MEDIAamp}
RecommendedActuation:
  - TRUNCATE (cooling / reversible throttles / halt panic loop)
  - STITCH (buffer rebuild / reroute / redundancy build)
  - BOTH

		

3) MINIMAL DATA NEEDED (to run semi-quantitative)

			
OUTPUT.MIN_DATA.v1.2
You do NOT need exact numbers. You need direction + bucket.
Per Place×Lane (minimum):
  D1: Stress proxy σ = L/C bucket {low,med,high}
      Examples: backlog, utilization, price spikes, delays, volatility
  D2: Buffer key B_key bucket {high,med,low}
      FIN: liquidity/trust; LOG: inventory/leadtime; GOV: legitimacy/compliance; TECH: inventory/substitute paths
  D3: R bucket (is damage outrunning repair?) {<1, ~1, >1}
      Proxy: repeated outages, persistent shortages, persistent disorder, persistent policy tightening
  D4: TTC bucket {>30d, 14–30d, 7–14d, 3–7d, <3d}
      Proxy: “how soon until hard failure if trend continues”
  D5: κ_base (structural coupling) bucket per pair {low,med,high}
      Proxy: dependency strength (trade, finance exposure, policy gate reach)
  D6: MEDIA amplification level {low,med,high}
      Proxy: attention intensity + viral spread + headline dominance
  D7: Emotion vector top-2 (E_top2) + NIT slope bucket
      Proxy: dominant public/elite affect + how “locked” the story is becoming
  D8: ρ(operator) bucket {<1, ~1, >1}
      Proxy: are operators forced into ad-hoc choices or following SOP?
Global Z6 (recommended):
  G1: global risk bucket (FIN)
  G2: global lead-time bucket (LOG)
  G3: global techflow friction bucket (TECH)
  G4: global sentiment/NIT bucket (MEDIA)
Confidence tier (publish alongside output):
  Q0 = pure template/no data
  Q1 = qualitative buckets (D1–D8) from general observation
  Q2 = some metrics for TTC/R/κ proxies (market/leadtime indices etc.)
  Q3 = dense metrics + validated backtests

		

4) OPTIONAL: READY-TO-PASTE OUTPUT SECTION (for your BEJ–TPE–TYO–WDC page)

			
OUTPUT.SECTION.ORDER.v1.2
1) PHASEMAP (all Place×Lane lines)
2) TOP-5 EDGE CHOKEPOINTS (Score_edge)
3) TOP-5 NODE CHOKEPOINTS (Score_node)
4) FENCE ACTIONS (TRUNCATE list, STITCH list)
5) MONITORING CADENCE (which sensors hourly/daily/weekly)
6) CONFIDENCE TIER (Q0–Q3)

		

“`txt id=”t9tq7a”
CIVOS.RUNTIME.GLOBALPACK.EXAMPLE.BEJ-TPE-TYO-WDC.DEMOOUTPUT.v1.2
ModuleID: CIVOS.GLOBALPACK.EXAMPLE.DEMOOUTPUT.002
Type: Demonstration Run Outputs (bucketed placeholders; not real-world claims)
Scenarios: (1) TECH gate snap (2) FIN risk spike (3) MEDIA NIT lock
Output: PhaseMap + Top-5 Edge Chokepoints + Top-5 Node Chokepoints + Fence Actions
Confidence: Q0/Q1 (template + consistent placeholder buckets)

			
---
# SCENARIO 1 — TECH gate snap (P3.TECH.GATE-SNAP)

txt id=”5j0kq3″
SCN: SCN.TECH.GATE-SNAP.DUALHUB.001
Assumption style: “moderate coupling, tech chokepoint, reversible vs irreversible decision risk”

txt id=”u7o1v4″
TOP-5 EDGE CHOKEPOINTS (Scenario 1)
1 | EDGE | WDC TECH -> TPE TECH | TECH | Score=HIGH | Drivers={κ,TTC,R,NIT,MEDIAamp} | Actuation=BOTH
2 | EDGE | TPE TECH -> EARTH TECH | TECH | Score=HIGH | Drivers={κ,TTC,R,MEDIAamp} | Actuation=STITCH
3 | EDGE | WDC MEDIA -> TPE MEDIA | MEDIA | Score=MED-HIGH | Drivers={κ,NIT,MEDIAamp} | Actuation=TRUNCATE
4 | EDGE | BEJ SEC <-> TPE SEC | SEC | Score=MED-HIGH | Drivers={κ,NIT} | Actuation=TRUNCATE
5 | EDGE | TYO TECH <-> TPE TECH | TECH | Score=MED | Drivers={κ,TTC} | Actuation=STITCH

TOP-5 NODE CHOKEPOINTS (Scenario 1)
1 | NODE | TPE TECH OP.PIPE | TECH | Score=HIGH | Drivers={TTC,R,κ} | Actuation=STITCH
2 | NODE | WDC TECH VI.GATE | TECH | Score=HIGH | Drivers={NIT,κ} | Actuation=TRUNCATE
3 | NODE | TPE MEDIA OP.AMP | MEDIA| Score=MED-HIGH | Drivers={NIT,κ} | Actuation=TRUNCATE
4 | NODE | TYO TECH AR.CORRIDOR | TECH | Score=MED | Drivers={κ_in,B_inv} | Actuation=STITCH
5 | NODE | BEJ MEDIA OP.AMP | MEDIA| Score=MED | Drivers={NIT,κ} | Actuation=TRUNCATE

txt id=”h6l7c2″
FENCE ACTIONS (Scenario 1)

TRUNCATE (cut accelerating loss + irreversibility)

Freeze irreversible TECH decisions during peak MEDIA contagion window
Require reversible throttles + explicit off-ramps to reduce NIT slope
Reduce κ_effective via MEDIA cooling (limit amplification, publish criteria, counter-signal)

STITCH (rebuild buffers + reroute)

Buffer pooling: inventory + lead-time buffers in TECH/LOG nodes
Architect reroute: diversify suppliers/paths to reduce κ_fragile
Increase sensing cadence on TTC for TPE TECH and TYO TECH reroute capacity

			
---
# SCENARIO 2 — FIN risk spike (P1.FIN.RISK-SPIKE)

txt id=”1jrr91″
SCN: SCN.FIN.RISK-SPIKE.DUALHUB.001
Assumption style: “market volatility spike in TYO → capital coupling to WDC/TPE → MEDIA amplification”
Key mechanic: operator shear (ρ>1) is the fastest path to Ḋ↑ and TTC↓.

txt id=”4f52x9″
TOP-5 EDGE CHOKEPOINTS (Scenario 2)
1 | EDGE | TYO FIN -> WDC FIN | FIN | Score=HIGH | Drivers={κ,TTC,R,ρ,MEDIAamp} | Actuation=BOTH
2 | EDGE | TYO FIN -> TPE FIN | FIN | Score=HIGH | Drivers={κ,TTC,R,ρ,MEDIAamp} | Actuation=BOTH
3 | EDGE | TYO MEDIA -> WDC MEDIA | MEDIA | Score=MED-HIGH | Drivers={κ,NIT,MEDIAamp} | Actuation=TRUNCATE
4 | EDGE | TYO FIN -> TYO TECH | FIN→TECH | Score=MED | Drivers={κ,TTC} | Actuation=STITCH
5 | EDGE | TPE FIN -> TPE TECH | FIN→TECH | Score=MED | Drivers={κ,TTC} | Actuation=STITCH

TOP-5 NODE CHOKEPOINTS (Scenario 2)
1 | NODE | TYO FIN OP.PIPE | FIN | Score=HIGH | Drivers={TTC,R,ρ} | Actuation=BOTH
2 | NODE | TYO FIN OR.SENSE | FIN | Score=MED-HIGH | Drivers={TTC,R} | Actuation=MONITOR
3 | NODE | TYO MEDIA OP.AMP | MEDIA | Score=MED | Drivers={κ,NIT} | Actuation=TRUNCATE
4 | NODE | WDC FIN OP.PIPE | FIN | Score=MED | Drivers={κ_in,B_liq} | Actuation=MONITOR
5 | NODE | TPE FIN OP.PIPE | FIN | Score=MED | Drivers={κ_in,B_liq} | Actuation=MONITOR

txt id=”06dpxu”
FENCE ACTIONS (Scenario 2)

TRUNCATE

Cut panic loop: reduce κ_effective via MEDIA cooling + “allowed moves set” for Operators
Protect settlement trust + liquidity buffer (B_liq) to prevent ρ-driven shear

STITCH

Pool liquidity corridors to critical TECH/LOG ops (avoid spillover)
Tighten SOP playbooks so Operators don’t invent choices under stress (ρ≤1)

			
---
# SCENARIO 3 — MEDIA NIT lock (P0.MEDIA.NIT-LOCK)

txt id=”i7oc4l”
SCN: SCN.MEDIA.NIT-LOCK.MESH.001
Assumption style: “narrative hardening spreads cross-place, making reversals costly”
Key mechanic: NIT slope is the early warning for irreversible bind deletion.

All MEDIA lanes:
WDC MEDIA P1 (attn high, NIT locking)
BEJ MEDIA P1 (attn high, NIT locking)
TPE MEDIA P2 (attn high, NIT rising)
TYO MEDIA P2 (attn med, NIT rising)

txt id=”m9t3aq”
TOP-5 EDGE CHOKEPOINTS (Scenario 3)
1 | EDGE | WDC MEDIA -> BEJ MEDIA | MEDIA | Score=HIGH | Drivers={κ,NIT,MEDIAamp} | Actuation=TRUNCATE
2 | EDGE | BEJ MEDIA -> WDC MEDIA | MEDIA | Score=HIGH | Drivers={κ,NIT,MEDIAamp} | Actuation=TRUNCATE
3 | EDGE | WDC GOV -> WDC TECH | GOV→TECH | Score=MED-HIGH | Drivers={NIT} | Actuation=TRUNCATE
4 | EDGE | BEJ GOV -> BEJ TECH | GOV→TECH | Score=MED-HIGH | Drivers={NIT} | Actuation=TRUNCATE
5 | EDGE | WDC GOV <-> BEJ GOV | GOV | Score=MED | Drivers={κ,NIT} | Actuation=TRUNCATE

TOP-5 NODE CHOKEPOINTS (Scenario 3)
1 | NODE | WDC GOV VI.GATE | GOV | Score=HIGH | Drivers={NIT,R,trust} | Actuation=BOTH
2 | NODE | BEJ GOV VI.GATE | GOV | Score=HIGH | Drivers={NIT,R,trust} | Actuation=BOTH
3 | NODE | WDC MEDIA OP.AMP | MEDIA | Score=HIGH | Drivers={NIT,κ} | Actuation=TRUNCATE
4 | NODE | BEJ MEDIA OP.AMP | MEDIA | Score=HIGH | Drivers={NIT,κ} | Actuation=TRUNCATE
5 | NODE | TYO GOV OR.SENSE | GOV | Score=MED | Drivers={NIT_slope} | Actuation=MONITOR

txt id=”0l2hm0″
FENCE ACTIONS (Scenario 3)

TRUNCATE (block irreversibility during contagion)

Impose “cool-down window” on irreversible policy moves (bind deletion freeze)
Require explicit off-ramps, criteria, reversibility proofs (NIT slope reduction)
Reduce κ_effective via MEDIA:
- damp amplification
- counter-signal uncertainty
- separate lanes (MEDIA cannot auto-drive TECH/SEC gates)

STITCH (restore trust buffers + create third-path corridors)

Visionary: rebuild trust buffer (fairness + predictability + reversibility)
Architect: create third-path options (phased gates, auditable throttles, buffer pooling)
Operator: enforce SOP boundaries to keep ρ≤1
Oracle: increase NIT slope sensing cadence (daily/6-hourly during spikes)

			
---
## FINAL “DEMO OUTPUT” WRAPPER (paste as one block)

txt id=”m5m1qz”
DEMO OUTPUT WRAPPER

Include under each scenario:
1) PHASEMAP lines (full or stressed subset)
2) TOP-5 EDGE CHOKEPOINTS
3) TOP-5 NODE CHOKEPOINTS
4) FENCE ACTIONS (TRUNCATE/STITCH)
5) Confidence Tier (Q0/Q1)

Hard warning label:
“Bucketed placeholders for demonstrating mechanics; not claims about reality.”
“`

“`txt id=”g2q9mh”
CIVOS.RUNTIME.GLOBALPACK.DASHBOARD.MASTER.v1.2
ModuleID: CIVOS.GLOBALPACK.DASHBOARD
Type: Master Corridor Dashboard Block (merge multiple scenarios into 1 page)
Scope: Consolidated PhaseMap + Unified Chokepoints + AVOO Action Card
PlaceSet: {CHN.BJ.BEJ, TWN.TP.TPE, JPN.TK.TYO, USA.DC.WDC}
LaneSet: {GOV, SEC, FIN, TECH, LOG, MEDIA}
ScenariosMerged:
S1=TECH gate snap
S2=FIN risk spike
S3=MEDIA NIT lock
Confidence: Q0/Q1 (mechanics demo)

			
---
## 1) CONSOLIDATED PHASEMAP (one line per Place×Lane)
Rule: show **WorstCasePhase** across the three scenarios, and annotate which scenario(s) caused it.

Drivers token set:
{TTC, R, ρ, κ_eff, E, NIT, B}

— BEIJING —

CHN.BJ.BEJ | GOV | P1 | {NIT,R,B} | {S3} | BOTH
CHN.BJ.BEJ | SEC | P2 | {κ_eff,NIT} | {S1,S3} | TRUNCATE
CHN.BJ.BEJ | FIN | P3 | {κ_eff} | {S1,S2} | MONITOR
CHN.BJ.BEJ | TECH | P2 | {κ_eff,TTC} | {S1} | STITCH
CHN.BJ.BEJ | LOG | P3 | {κ_eff} | {S1,S2} | MONITOR
CHN.BJ.BEJ | MEDIA| P1 | {κ_eff,E,NIT} | {S1,S3} | TRUNCATE

— TAIPEI —

TWN.TP.TPE | GOV | P2 | {B,NIT} | {S1,S3} | MONITOR
TWN.TP.TPE | SEC | P2 | {κ_eff,NIT} | {S1,S3} | TRUNCATE
TWN.TP.TPE | FIN | P2 | {κ_eff,E} | {S1,S2} | MONITOR
TWN.TP.TPE | TECH | P1 | {TTC,R,κ_eff,B}| {S1} | BOTH
TWN.TP.TPE | LOG | P2 | {TTC,B,κ_eff} | {S1} | STITCH
TWN.TP.TPE | MEDIA| P2 | {κ_eff,E,NIT} | {S1,S3} | TRUNCATE

— TOKYO —

JPN.TK.TYO | GOV | P2 | {NIT} | {S3} | TRUNCATE
JPN.TK.TYO | SEC | P2 | {κ_eff} | {S1} | MONITOR
JPN.TK.TYO | FIN | P1 | {TTC,R,ρ,κ_eff}| {S2} | BOTH
JPN.TK.TYO | TECH | P2 | {TTC,κ_eff} | {S1,S2} | STITCH
JPN.TK.TYO | LOG | P3 | {κ_eff} | {S1} | MONITOR
JPN.TK.TYO | MEDIA| P2 | {κ_eff,E,NIT} | {S2,S3} | TRUNCATE

— WASHINGTON D.C. —

USA.DC.WDC | GOV | P1 | {NIT,R,B} | {S3} | BOTH
USA.DC.WDC | SEC | P2 | {κ_eff,NIT} | {S1,S3} | TRUNCATE
USA.DC.WDC | FIN | P3 | {κ_eff} | {S2} | MONITOR
USA.DC.WDC | TECH | P2 | {κ_eff,NIT} | {S1,S3} | TRUNCATE
USA.DC.WDC | LOG | P3 | {κ_eff} | {S1} | MONITOR
USA.DC.WDC | MEDIA| P1 | {κ_eff,E,NIT} | {S1,S3} | TRUNCATE

			
---
## 2) UNIFIED TOP-10 CHOKEPOINTS (edges + nodes)

1 | NODE | TPE TECH OP.PIPE | TECH | TTC short + R>1 + κ_in vhigh | {S1} | BOTH | Architect+Operator
2 | NODE | TYO FIN OP.PIPE | FIN | ρ>1 risk + TTC short + panic loop | {S2} | BOTH | Operator+Oracle
3 | NODE | WDC GOV VI.GATE | GOV | NIT locking + trust buffer low | {S3} | BOTH | Visionary
4 | NODE | BEJ GOV VI.GATE | GOV | NIT locking + R rising | {S3} | BOTH | Visionary
5 | EDGE | WDC TECH -> TPE TECH | TECH | κ vhigh × TTC(TPE) short | {S1} | BOTH | Architect
6 | EDGE | TYO FIN -> WDC FIN | FIN | κ high × risk premium spillover | {S2} | BOTH | Oracle+Operator
7 | EDGE | TYO FIN -> TPE FIN | FIN | κ high × capital coupling | {S2} | BOTH | Oracle
8 | EDGE | WDC MEDIA <-> BEJ MEDIA | MEDIA| κ high × NIT slope × E contagion | {S3} | TRUNCATE | Visionary
9 | NODE | WDC MEDIA OP.AMP | MEDIA| attn high → κ_effective up | {S1,S3} | TRUNCATE | Visionary+Operator
10| NODE | BEJ MEDIA OP.AMP | MEDIA| attn high → NIT reinforcement | {S1,S3} | TRUNCATE | Visionary+Operator

			
---
## 3) FENCE ACTION SUMMARY (one-page)

txt id=”z8n2fd”
DASHBOARD.FENCE.ACTIONS.v1.2

TRUNCATE (stop accelerating loss + block irreversibility)

Freeze irreversible GOV/TECH actions during peak MEDIA contagion window (NIT slope high)
Reduce κ_effective: damp MEDIA amplification + publish criteria + counter-signal uncertainty
Cut panic loops in FIN: enforce SOP limits + “allowed moves set” to keep ρ≤1

STITCH (rebuild buffers + redesign corridors)

TECH/LOG: buffer pooling (inventory + lead-time), redundancy build, reroute brittle links
FIN: protect liquidity buffers; prioritize credit corridors to critical ops (TECH/LOG)
GOV: rebuild trust buffer with predictable reversibility and visible fairness
Increase sensing cadence for TTC/R/ρ/NIT slope during spikes

MONITOR (no actuation; raise cadence)

When Phase is P3 and triggers not met, increase Oracle sensing cadence only.

			
---
## 4) AVOO ACTION CARD (what each role does “tomorrow morning”)

txt id=”t4p7cs”
DASHBOARD.AVOO.ACTIONCARD.v1.2

OPERATOR (keep system running; preserve symmetry)

Run SOP; do NOT invent moves under stress.
Keep ρ≤1 by using the allowed-moves list.
Execute Fence TRUNCATE/STITCH instructions.

ORACLE (sense, forecast, de-risk choices)

Produce: TTC map + R hotspots + NIT slope chart + κ_effective hotspots.
Rank chokepoints (Top-10) and update every cadence tick.
Provide Operators a reduced action set (shrinks choice injection).

VISIONARY (legitimacy + reversibility corridor; control NIT)

Publish off-ramps + criteria; prevent narrative lock (NIT).
Rebuild trust buffer; separate lanes (MEDIA cannot auto-drive TECH/SEC).
Declare “cool-down windows” for irreversible decisions.

ARCHITECT (corridor generator; structural anti-brittleness)

Reroute flows, add redundancy, pool buffers.
Reweight κ: reduce coupling on fragile edges, increase on resilient edges.
Create third-path options so leaders aren’t forced into binary bind deletion.

			
---
## 5) MASTER “PUBLISH BLOCK” (drop-in section order)

txt id=”g8w1qk”
PUBLISH ORDER (recommended)

1) META + CONTRACT
2) CONSOLIDATED PHASEMAP
3) TOP-10 CHOKEPOINTS
4) FENCE ACTION SUMMARY
5) AVOO ACTION CARD
6) Scenario appendix (S1/S2/S3 full runs)
7) Hard disclaimer: bucketed demo, not claims
“`

			
---
## 1) CONSOLIDATED PHASEMAP (one line per Place×Lane)
Rule: show **WorstCasePhase** across the three scenarios, and annotate which scenario(s) caused it.

Drivers token set:
{TTC, R, ρ, κ_eff, E, NIT, B}

— BEIJING —

— TAIPEI —

— TOKYO —

— WASHINGTON D.C. —

			
---
## 2) UNIFIED TOP-10 CHOKEPOINTS (edges + nodes)

			
---
## 3) FENCE ACTION SUMMARY (one-page)

txt id=”z8n2fd”
DASHBOARD.FENCE.ACTIONS.v1.2

TRUNCATE (stop accelerating loss + block irreversibility)

Freeze irreversible GOV/TECH actions during peak MEDIA contagion window (NIT slope high)
Reduce κ_effective: damp MEDIA amplification + publish criteria + counter-signal uncertainty
Cut panic loops in FIN: enforce SOP limits + “allowed moves set” to keep ρ≤1

STITCH (rebuild buffers + redesign corridors)

TECH/LOG: buffer pooling (inventory + lead-time), redundancy build, reroute brittle links
FIN: protect liquidity buffers; prioritize credit corridors to critical ops (TECH/LOG)
GOV: rebuild trust buffer with predictable reversibility and visible fairness
Increase sensing cadence for TTC/R/ρ/NIT slope during spikes

MONITOR (no actuation; raise cadence)

When Phase is P3 and triggers not met, increase Oracle sensing cadence only.

			
---
## 4) AVOO ACTION CARD (what each role does “tomorrow morning”)

txt id=”t4p7cs”
DASHBOARD.AVOO.ACTIONCARD.v1.2

OPERATOR (keep system running; preserve symmetry)

Run SOP; do NOT invent moves under stress.
Keep ρ≤1 by using the allowed-moves list.
Execute Fence TRUNCATE/STITCH instructions.

ORACLE (sense, forecast, de-risk choices)

Produce: TTC map + R hotspots + NIT slope chart + κ_effective hotspots.
Rank chokepoints (Top-10) and update every cadence tick.
Provide Operators a reduced action set (shrinks choice injection).

VISIONARY (legitimacy + reversibility corridor; control NIT)

Publish off-ramps + criteria; prevent narrative lock (NIT).
Rebuild trust buffer; separate lanes (MEDIA cannot auto-drive TECH/SEC).
Declare “cool-down windows” for irreversible decisions.

ARCHITECT (corridor generator; structural anti-brittleness)

Reroute flows, add redundancy, pool buffers.
Reweight κ: reduce coupling on fragile edges, increase on resilient edges.
Create third-path options so leaders aren’t forced into binary bind deletion.

			
---
## 5) MASTER “PUBLISH BLOCK” (drop-in section order)

txt id=”g8w1qk”
PUBLISH ORDER (recommended)

“`txt id=”v8n0qm”
CIVOS.RUNTIME.GLOBALPACK.DASHBOARD.ONE-SCREEN.v1.2
ModuleID: CIVOS.GLOBALPACK.DASHBOARD.ONESCREEN
Type: Ultra-compact publish block (≈1 screen)
Use: Runtime index pages / quick embeds / Google+LLM ingestion
Scope: Consolidated Phase summary + Top-5 chokepoints + AVOO action card (minimal)
Confidence: Q0/Q1 demo buckets (not real-world claims)

txt id=”j2c4lz”
ONE-SCREEN BLOCK (paste as-is)

PLACES={CHN.BJ.BEJ, TWN.TP.TPE, JPN.TK.TYO, USA.DC.WDC} LANES={GOV,SEC,FIN,TECH,LOG,MEDIA} MERGED={S1 TECH, S2 FIN, S3 NIT}

TOP-5 CHOKEPOINTS (unified)
1 NODE TPE.TECH.OP.PIPE {TTC short,R>1,κ_in vhigh} Fence=BOTH Lead=Architect+Operator
2 NODE TYO.FIN.OP.PIPE {ρ>1 risk,TTC short,panic} Fence=BOTH Lead=Operator+Oracle
3 NODE WDC.GOV.VI.GATE {NIT locking,trust low} Fence=BOTH Lead=Visionary
4 NODE BEJ.GOV.VI.GATE {NIT locking,R rising} Fence=BOTH Lead=Visionary
5 EDGE WDC.TECH->TPE.TECH{κ vhigh×TTC short} Fence=BOTH Lead=Architect

FENCEOS ACTIONS (minimal)
TRUNCATE: freeze irreversible GOV/TECH moves during NIT spikes; damp κ_effective (MEDIA cooling); cut FIN panic loops (allowed-moves, ρ≤1).
STITCH: pool buffers (inv/liq/trust); reroute TECH/LOG; add redundancy; increase Oracle cadence (TTC/R/ρ/NIT slope).

AVOO ACTION CARD (minimal)
OPERATOR: execute SOP + Fence actions; keep ρ≤1.
ORACLE: publish TTC/R/NIT/κ hotspots + Top-5 chokepoints; shrink action set.
VISIONARY: publish off-ramps; reduce NIT; rebuild trust buffer; separate lanes.
ARCHITECT: redesign corridor (redundancy+routing); reweight κ; create third-path options.

WARNING: demo buckets show mechanics only; not claims about real-world states.
“`

“`txt id=”o6h9q1″
CIVOS.RUNTIME.GLOBALPACK.CLONER.v1.2
ModuleID: CIVOS.GLOBALPACK.CLONER
Type: Strict almost-code macro (single paste generator)
Input: (PlaceSet, LaneSet, Topology, ScenarioSet)
Output: Full publish page skeleton:
META → CONTRACT → DEFINITIONS → PLACES → LANES → NODES → EDGES →
SENSOR PACK → SCENARIOS → DEMO OUTPUTS → MASTER DASHBOARD → ONE-SCREEN BLOCK
Rule: Fill-in fields only. Do not rename NodeIDs; version forward only.

			
---
## 0) CLONER INPUT BLOCK (you fill this)

txt id=”h5x2k0″
CLONER.INPUT

PageID: CIVOS.RUNTIME.GLOBALPACK.EXAMPLE..v1.2
PlaceSet:
PLACE_A = _ (PlaceID) PLACE_B =
PLACE_C = PLACE_D = _
(optional) PLACE_E = EARTH

LaneSet: {FIN, GOV, SEC, TECH, LOG, MEDIA} # edit if needed
Topology: {RING | STAR(A) | DUALHUB(A,C) | MESH}

ScenarioSet:
S1 = {P3.TECH.GATE-SNAP}
S2 = {P1.FIN.RISK-SPIKE}
S3 = {P0.MEDIA.NIT-LOCK}

ConfidenceTier: {Q0 | Q1 | Q2 | Q3}
DisclaimerMode: {DEMO_BUCKETS | DATA_BACKED}

			
---
## 1) FULL PAGE SKELETON (copy/paste; then replace PLACE_*)

txt id=”z7s1w2″
=== META ===
PageID: CIVOS.RUNTIME.GLOBALPACK.EXAMPLE..v1.2
ModuleID: CIVOS.GLOBALPACK.EXAMPLE
Version: v1.2
Type: Corridor Page (Add-on; no Core mutation)
Places: {PLACE_A, PLACE_B, PLACE_C, PLACE_D, EARTH}
Lanes: {FIN, GOV, SEC, TECH, LOG, MEDIA}
Topology:
Scenarios: {S1,S2,S3}
Dependencies: {CIVOS.CORE.v1.2, FENCEOS.v1.2, AVOO.ROLES.v1.2, SYMCHOICE.v1.2, MINDOS.CORE.v1.2, EMOTIONOS.v1.2}
Confidence:
Disclaimer:

=== CONTRACT ===
Input: optional signals/events + optional bucket parameters (C,B,L,κ,R,TTC,ρ,E,NIT)
Output: PhaseMap + Chokepoints + Fence actions + AVOO action card + dashboard blocks
Rule: runtime coordination spec; avoid claims unless data-backed.

=== DEFINITIONS ===
Z: Places at Z3|Z4; Planet sensors at Z6.
State vars: {C,B,L,Ḋ,Ġ,R,TTC,κ_base,κ_effective,ρ,E,NIT}
Fence triggers: F1(TTC), F2(R), F3(ρ), F4(dNIT/dt)
AVOO: Operator/Oracle/Visionary/Architect role split.

=== PLACES ===
PlaceID: PLACE_A Aliases:{…} Z:{Z3|Z4}
PlaceID: PLACE_B Aliases:{…} Z:{Z3|Z4}
PlaceID: PLACE_C Aliases:{…} Z:{Z3|Z4}
PlaceID: PLACE_D Aliases:{…} Z:{Z3|Z4}
PlaceID: EARTH Z:Z6

=== LANES ===
FIN,GOV,SEC,TECH,LOG,MEDIA (edit as needed)

=== NODES (AVOO×LANE×PLACE) ===

Generator rule: for each PLACE_X and each LANE_Y create 4 nodes:

OP.PIPE, OR.SENSE, VI.GATE, AR.CORRIDOR

FOR EACH PLACE_X IN {PLACE_A,PLACE_B,PLACE_C,PLACE_D}:
FOR EACH LANE_Y IN {FIN,GOV,SEC,TECH,LOG,MEDIA}:
Node: PLACE_X×LANE_Y×Zx×Operator ×PIPE ×PX.LY.OP.PIPE Fields:{C,B,L,Ḋ,Ġ,R,TTC,ρ,E,NIT}
Node: PLACE_X×LANE_Y×Zx×Oracle ×SENSOR ×PX.LY.OR.SENSE Measures:{TTC,R,κ_eff,ρ,E,NIT,B}
Node: PLACE_X×LANE_Y×Zx×Visionary×CONTROL×PX.LY.VI.GATE Controls:{off-ramps,legitimacy,NIT}
Node: PLACE_X×LANE_Y×Zx×Architect×PIPE ×PX.LY.AR.CORRIDOR Controls:{redundancy,reroute,κ reweight,buffer pooling,ΔAd⁺}

=== GLOBAL SENSORS (Z6) ===
Node: EARTH×FIN ×Z6×Oracle×SENSOR×GLOB.FIN.RISKINDEX
Node: EARTH×LOG ×Z6×Oracle×SENSOR×GLOB.LOG.LEADTIME
Node: EARTH×TECH×Z6×Oracle×SENSOR×GLOB.TECHFLOW.INDEX
Node: EARTH×MEDIA×Z6×Oracle×SENSOR×GLOB.MEDIA.SENTIMENT
Node: EARTH×SEC ×Z6×Oracle×SENSOR×GLOB.SEC.RISKHEAT

=== EDGES ===

Choose Topology. Then instantiate κ_base by lane. κ_effective uses MEDIA×Emotion.

TOPOLOGY.RING:
PLACE_A -> PLACE_B -> PLACE_C -> PLACE_D -> PLACE_A (per lane)

TOPOLOGY.STAR(A):
PLACE_A <-> {PLACE_B,PLACE_C,PLACE_D} (per lane)

TOPOLOGY.DUALHUB(A,C):
Hubs: PLACE_A and PLACE_C
Dense: (A<->B, A<->D, C<->B, C<->D, A<->C) plus light (B<->D)

TOPOLOGY.MESH:
Dense all-pairs (higher κ; higher brittleness risk)

EDGE STUB (repeat per lane per pair chosen):
Edge: PLACE_X×LANE_i -> PLACE_Y×LANE_i Type:{CAPITAL|GOODS|INFO|POLICY|RISK} κ=0.3..0.9

WITHIN_PLACE DEFAULTS:
MEDIA -> {FIN,GOV,SEC,TECH,LOG} κ=0.6
GOV -> {FIN,SEC,TECH,LOG} κ=0.5
FIN -> {TECH,LOG} κ=0.4
SEC -> {FIN,MEDIA} κ=0.4
LOG -> {FIN,MEDIA} κ=0.3

κ_effective RULE:
κ_effective(e,t) = κ_base(e) × h(MEDIA_amp_src, MEDIA_amp_dst, E_src, E_dst, attention)

=== SENSOR PACK ===
Thresholds:
TTC_fence={FIN:7d, TECH:14d, LOG:14d, GOV:21d, SEC:10d, MEDIA:5d}
R_fence=1.10
ρ_fence=1.00
NIT_slope_fence=high
Sensors per node:
{TTC,R,B_key,κ_eff_in,ρ,E_top2,NIT,dNIT/dt,Phase}

=== SCENARIOS ===
S1: TECH gate snap
S2: FIN risk spike
S3: MEDIA NIT lock

Use the SCENARIO GENERATOR blocks (T0..T6), then output DemoOutputs.

=== DEMO OUTPUTS (bucket placeholders OR data-backed) ===

PhaseMap lines
Top-5 edges + Top-5 nodes
Fence actions

=== MASTER DASHBOARD ===

Consolidated PhaseMap (WorstCasePhase across scenarios)
Unified Top-10 chokepoints
Fence action summary
AVOO action card

=== ONE-SCREEN BLOCK ===

20-line ultra-compact summary for runtime index + ingestion

			
---
## 2) OPTIONAL: “AUTO-EXPAND” NODE ID RESOLVER (strict naming)

txt id=”m1n8w7″
NODEID RESOLVER RULES

Given PlaceID = PLACE_X and Lane = LANE_Y:
Prefix PX = short(PLACE_X) # e.g., BEJ/TPE/TYO/WDC or user-chosen stable alias
Prefix LY = LANE_Y # FIN/GOV/SEC/TECH/LOG/MEDIA

Node IDs:
PX.LY.OP.PIPE
PX.LY.OR.SENSE
PX.LY.VI.GATE
PX.LY.AR.CORRIDOR

Hard rule:
Once published, never rename PX or LY; only version forward if you need an alias registry.

			
---
## 3) READY-MADE CLONER INSTANCE (your last corridor, filled)

txt id=”z2d0gq”
CLONER.INSTANCE (BEJ–TPE–TYO–WDC)

PageID: CIVOS.RUNTIME.GLOBALPACK.EXAMPLE.BEJ-TPE-TYO-WDC.v1.2
PlaceSet:
PLACE_A = USA.DC.WDC
PLACE_B = TWN.TP.TPE
PLACE_C = JPN.TK.TYO
PLACE_D = CHN.BJ.BEJ
LaneSet: {FIN,GOV,SEC,TECH,LOG,MEDIA}
Topology: DUALHUB(A,C) # hubs=WDC,TYO
ScenarioSet: {S1,S2,S3}
ConfidenceTier: Q0/Q1
DisclaimerMode: DEMO_BUCKETS
“`

“`txt id=”k7p4d1″
CIVOS.RUNTIME.GLOBALPACK.CLONER.MINI.v1.2
ModuleID: CIVOS.GLOBALPACK.CLONER.MINI
Type: Super-short macro (≈60 lines)
Goal: Generate only the “AI-lock” sections (META + Places + Lanes + EdgeMatrix + OneScreen + Chokepoints)
Use: Runtime index pages + fast corridor publishing without full scenario appendix
Rule: Demo buckets unless explicitly DATA_BACKED

txt id=”f1q8s0″
CLONER.MINI (copy/paste)
META
PageID: CIVOS.RUNTIME.GLOBALPACK.MINI..v1.2
ModuleID: CIVOS.GLOBALPACK.MINI
Type: Corridor Mini Page (Add-on)
Deps: {CIVOS.CORE.v1.2,FENCEOS.v1.2,AVOO.ROLES.v1.2,SYMCHOICE.v1.2,MINDOS.CORE.v1.2,EMOTIONOS.v1.2}
Confidence: {Q0|Q1|Q2|Q3}
Disclaimer: {DEMO_BUCKETS|DATA_BACKED}
PLACES (Z3|Z4 + Z6)
PLACE_A=_ PLACE_B= PLACE_C= PLACE_D=_ EARTH(Z6)
LANES
{FIN,GOV,SEC,TECH,LOG,MEDIA}
EDGE MATRIX (κ_base buckets; pick topology)
Topology={RING|STAR(A)|DUALHUB(A,C)|MESH}
Rule: κ_effective = κ_base × h(MEDIA_amp_src,MEDIA_amp_dst,E_src,E_dst,attention)
Matrix format:
Lane: FIN
A->B κ=_ A->C κ=_ A->D κ=_ B->A κ=_ B->C κ=_ B->D κ=_
C->A κ=_ C->B κ=_ C->D κ=_ D->A κ=_ D->B κ=_ D->C κ=_
Repeat matrices for: GOV, SEC, TECH, LOG, MEDIA
FENCE TRIGGERS (defaults)
TTC_fence={FIN:7d,TECH:14d,LOG:14d,GOV:21d,SEC:10d,MEDIA:5d}
R_fence=1.10 ρ_fence=1.00 NIT_slope_fence=high
Actions: TRUNCATE (cooling + reversibility) ; STITCH (buffers + reroute + redundancy)
ONE-SCREEN DASHBOARD (fill with WorstCasePhase or CurrentSnapshot)
PHASE SUMMARY
A: GOV=P? SEC=P? FIN=P? TECH=P? LOG=P? MEDIA=P?
B: GOV=P? SEC=P? FIN=P? TECH=P? LOG=P? MEDIA=P?
C: GOV=P? SEC=P? FIN=P? TECH=P? LOG=P? MEDIA=P?
D: GOV=P? SEC=P? FIN=P? TECH=P? LOG=P? MEDIA=P?
TOP-5 CHOKEPOINTS (unified)
1 {NODE|EDGE} _ | Lane=_ | Drivers={κ,TTC,R,ρ,E,NIT,B} | Fence={TRUNCATE|STITCH|BOTH} | Lead={O|Or|V|A}
2 …
3 …
4 …
5 …
AVOO ACTION (1-liners)
Operator: execute SOP; keep ρ≤1.
Oracle: publish TTC/R/κ_eff/NIT slope; shrink action set.
Visionary: off-ramps; reduce NIT; rebuild trust buffer.
Architect: redesign corridor; redundancy; κ reweight; buffer pooling.
WARNING: Use DEMO_BUCKETS unless DATA_BACKED.
--- ## MINI INSTANCE (pre-filled for BEJ–TPE–TYO–WDC)
txt id=”o2m5v9″
CIVOS.RUNTIME.GLOBALPACK.MINI.BEJ-TPE-TYO-WDC.v1.2
Confidence: Q0/Q1
Disclaimer: DEMO_BUCKETS
PLACES
A=USA.DC.WDC B=TWN.TP.TPE C=JPN.TK.TYO D=CHN.BJ.BEJ EARTH(Z6)
LANES
{FIN,GOV,SEC,TECH,LOG,MEDIA}
Topology=DUALHUB(A,C) # hubs=WDC,TYO
EDGE MATRIX (κ_base buckets; demo)
FIN: A->B=0.5 A->C=0.6 A->D=0.4 | B->A=0.4 B->C=0.4 B->D=0.2 | C->A=0.7 C->B=0.4 C->D=0.3 | D->A=0.4 D->B=0.3 D->C=0.3
GOV: A->B=0.6 A->C=0.5 A->D=0.4 | B->A=0.5 B->C=0.3 B->D=0.4 | C->A=0.5 C->B=0.3 C->D=0.3 | D->A=0.4 D->B=0.5 D->C=0.3
SEC: A->B=0.6 A->C=0.5 A->D=0.6 | B->A=0.6 B->C=0.4 B->D=0.7 | C->A=0.5 C->B=0.4 C->D=0.4 | D->A=0.6 D->B=0.8 D->C=0.4
TECH: A->B=0.7 A->C=0.5 A->D=0.6 | B->A=0.6 B->C=0.6 B->D=0.4 | C->A=0.5 C->B=0.6 C->D=0.4 | D->A=0.5 D->B=0.6 D->C=0.4
LOG: A->B=0.3 A->C=0.4 A->D=0.3 | B->A=0.3 B->C=0.6 B->D=0.3 | C->A=0.4 C->B=0.5 C->D=0.5 | D->A=0.3 D->B=0.4 D->C=0.6
MEDIA:A->B=0.5 A->C=0.4 A->D=0.4 | B->A=0.4 B->C=0.3 B->D=0.4 | C->A=0.4 C->B=0.3 C->D=0.3 | D->A=0.4 D->B=0.4 D->C=0.3
FENCE TRIGGERS
TTC_fence={FIN:7d,TECH:14d,LOG:14d,GOV:21d,SEC:10d,MEDIA:5d} R_fence=1.10 ρ_fence=1.00 NIT_slope_fence=high
ONE-SCREEN (demo WorstCasePhase)
WDC: GOV=P1 SEC=P2 FIN=P3 TECH=P2 LOG=P3 MEDIA=P1
TPE: GOV=P2 SEC=P2 FIN=P2 TECH=P1 LOG=P2 MEDIA=P2
TYO: GOV=P2 SEC=P2 FIN=P1 TECH=P2 LOG=P3 MEDIA=P2
BEJ: GOV=P1 SEC=P2 FIN=P3 TECH=P2 LOG=P3 MEDIA=P1
TOP-5 (demo)
1 NODE TPE.TECH.OP.PIPE Lane=TECH Drivers={TTC,R,κ,B} Fence=BOTH Lead=Architect+Operator
2 NODE TYO.FIN.OP.PIPE Lane=FIN Drivers={ρ,TTC,R,κ} Fence=BOTH Lead=Operator+Oracle
3 NODE WDC.GOV.VI.GATE Lane=GOV Drivers={NIT,R,B} Fence=BOTH Lead=Visionary
4 NODE BEJ.GOV.VI.GATE Lane=GOV Drivers={NIT,R,B} Fence=BOTH Lead=Visionary
5 EDGE WDC.TECH->TPE.TECH Lane=TECH Drivers={κ,TTC,NIT} Fence=BOTH Lead=Architect
AVOO ACTION (minimal)
Operator: SOP + allowed-moves; keep ρ≤1.
Oracle: TTC/R/κ_eff/NIT slope hotspots; update chokepoints.
Visionary: off-ramps + cool-down windows; reduce NIT; rebuild trust.
Architect: redundancy+routing; κ reweight; buffer pooling; third-path corridors.
“`

“`txt id=”y4t1x8″
CIVOS.RUNTIME.GLOBALPACK.LIBRARY.v1.2
ModuleID: CIVOS.GLOBALPACK.LIBRARY
Type: Reusable catalog (12 corridor archetypes)
Purpose: Fast-clone “known patterns” without rewriting mechanics
Each archetype includes:

ArchetypeID
Recommended LaneSet
Default Topology
Primary Triggers (FenceOS)
Typical Chokepoints (node/edge types)
AVOO lead roles
One-Screen Dashboard Stub
Disclaimer: Templates only unless DATA_BACKED

			
---
## ARCHETYPE 01 — FIN.SHIFT (Risk premium / liquidity shock)

txt id=”h2l9q0″
ArchetypeID: GP.01.FIN.SHIFT
LaneSet: {FIN, GOV, MEDIA, LOG(optional), TECH(optional)}
Topology: STAR(hub=global market node) or DUALHUB(fin hub + policy hub)
Triggers: {F1 TTC(FIN)<7d, F2 R>1.10, F3 ρ>1 (operator shear), F4 NIT slope high}
Chokepoints:

FIN.OP.PIPE (liquidity/clearing)
FIN.OR.SENSE (risk sensing)
MEDIA.OP.AMP (panic amplification)
GOV.VI.GATE (trust buffer narrative)
AVOO lead:
Operator+Oracle (first), Visionary (trust), Architect (decouple brittle edges)
One-Screen Stub:
PHASE: FIN tends to drop first (P2→P1). Watch ρ and κ_effective.

			
---
## ARCHETYPE 02 — TECH.CHOKE (Export controls / capability chokepoint)

txt id=”c7q1vm”
ArchetypeID: GP.02.TECH.CHOKE
LaneSet: {TECH, LOG, FIN, GOV, MEDIA, SEC(optional)}
Topology: DUALHUB(policy hub + reroute hub)
Triggers: {F1 TTC(TECH)<14d, F4 NIT slope high, F2 R>1.10 (sustained)}
Chokepoints:

TECH.VI.GATE (irreversibility risk)
TECH.OP.PIPE (inventory + production buffers)
TECH.AR.CORRIDOR (reroute + redundancy)
LOG.OP.PIPE (lead-time shock)
AVOO lead:
Architect (primary) + Visionary (off-ramps) + Operator (SOP)
One-Screen Stub:
PHASE: TECH/LOG drop first; prevent bind deletion that reduces Ġ long-run.

			
---
## ARCHETYPE 03 — LOG.BREAK (Port/route disruption, lead-time spike)

txt id=”m0z3ks”
ArchetypeID: GP.03.LOG.BREAK
LaneSet: {LOG, FOOD(optional), ENER(optional), FIN, GOV, MEDIA}
Topology: RING (supply chain) or MESH (dense trade)
Triggers: {F1 TTC(LOG)<14d, F2 R>1.10 in LOG nodes}
Chokepoints:

LOG.OP.PIPE (routing + throughput)
LOG.AR.CORRIDOR (alternate routes)
FOOD.OP.PIPE (if shortages)
GOV.VI.GATE (rationing/compliance)
AVOO lead:
Architect (reroute) + Operator (execution) + Oracle (lead-time sensing)
One-Screen Stub:
PHASE: LOG dips → FOOD/ENER → GOV legitimacy; stitch buffers early.

			
---
## ARCHETYPE 04 — MEDIA.NIT.LOCK (Narrative irreversibility)

txt id=”b9q6fe”
ArchetypeID: GP.04.MEDIA.NIT.LOCK
LaneSet: {MEDIA, GOV, SEC(optional), FIN(optional), TECH(optional)}
Topology: MESH (high κ_effective via info contagion)
Triggers: {F4 d(NIT)/dt high, F1 TTC(MEDIA)<5d (fast spike)}
Chokepoints:

MEDIA.OP.AMP (κ_effective inflation)
GOV.VI.GATE (irreversible decision gate)
SEC.VI.GATE (posture lock)
AVOO lead:
Visionary (primary) + Oracle (counter-signal) + Operator (cool-down SOP)
One-Screen Stub:
PHASE: GOV/SEC risk rises via NIT, not via capacity; truncate irreversibility.

			
---
## ARCHETYPE 05 — SEC.SPIKE (Posture escalation / deterrence shock)

txt id=”q1r3pn”
ArchetypeID: GP.05.SEC.SPIKE
LaneSet: {SEC, GOV, MEDIA, FIN, LOG(optional), TECH(optional)}
Topology: DUALHUB(security hub + policy hub)
Triggers: {F4 NIT slope high, F2 R>1.10 via spillovers, F1 TTC(FIN)<7d from repricing}
Chokepoints:

SEC.OR.SENSE (misread risk)
MEDIA.OP.AMP (fear/pride contagion)
FIN.OP.PIPE (risk repricing)
AVOO lead:
Oracle (primary) + Visionary (de-escalation corridor) + Architect (lane separation)
One-Screen Stub:
PHASE: SEC triggers FIN/MEDIA; success = keep lanes separable.

			
---
## ARCHETYPE 06 — GOV.LEGIT.DROP (Trust buffer collapse)

txt id=”v3a8d7″
ArchetypeID: GP.06.GOV.LEGIT.DROP
LaneSet: {GOV, MEDIA, FIN(optional), LOG(optional)}
Topology: STAR(hub=government) or MESH (if polarization)
Triggers: {F2 R>1.10 in GOV (compliance loss), F4 NIT locking}
Chokepoints:

GOV.VI.GATE (legitimacy narrative)
GOV.OP.PIPE (service delivery)
MEDIA.OP.AMP (polarization)
AVOO lead:
Visionary (primary) + Operator (service reliability) + Oracle (trust sensing)
One-Screen Stub:
PHASE: GOV drops → everything else; stitch trust buffers.

			
---
## ARCHETYPE 07 — FOOD.SHOCK (Commodity spike / fertilizer / harvest failure)

txt id=”x4p2n0″
ArchetypeID: GP.07.FOOD.SHOCK
LaneSet: {FOOD, LOG, FIN, GOV, MEDIA}
Topology: RING (supply chain) + STAR(finance)
Triggers: {F1 TTC(FOOD)<14d, F2 R>1.10 sustained}
Chokepoints:

FOOD.OP.PIPE (availability)
LOG.OP.PIPE (distribution)
GOV.VI.GATE (rationing/social stability)
AVOO lead:
Operator+Architect (distribution) + Visionary (stability)
One-Screen Stub:
PHASE: FOOD/LOG → GOV; truncate panic hoarding; stitch distribution.

			
---
## ARCHETYPE 08 — ENER.SHORT (Energy supply disruption)

txt id=”p7k0wd”
ArchetypeID: GP.08.ENER.SHORT
LaneSet: {ENER, LOG, FIN, GOV, MEDIA}
Topology: STAR(hub=energy exporters) or RING (routes)
Triggers: {F1 TTC(ENER)<14d, F2 R>1.10 in ENER/LOG}
Chokepoints:

ENER.OP.PIPE (supply)
LOG.OP.PIPE (routes)
FIN.OP.PIPE (price spikes)
AVOO lead:
Architect (routes/substitution) + Operator (allocation)
One-Screen Stub:
PHASE: ENER/LOG → FIN → GOV legitimacy.

			
---
## ARCHETYPE 09 — TECH+MEDIA COMPOUND (Capability + narrative lock)

txt id=”r9t1bk”
ArchetypeID: GP.09.TECHMEDIA.COMPOUND
LaneSet: {TECH, MEDIA, GOV, FIN, LOG}
Topology: MESH (high κ_effective)
Triggers: {F1 TTC(TECH)<14d, F4 NIT slope high}
Chokepoints:

TECH.VI.GATE + MEDIA.OP.AMP + GOV.VI.GATE (triple lock)
AVOO lead:
Visionary+Architect (paired) + Oracle (sensing)
One-Screen Stub:
PHASE: avoid binary bind deletion; build third-path corridors.

			
---
## ARCHETYPE 10 — FIN+LOG COMPOUND (Inflation + shortages)

txt id=”s5v4a1″
ArchetypeID: GP.10.FINLOG.COMPOUND
LaneSet: {FIN, LOG, GOV, MEDIA, FOOD(optional)}
Topology: RING (supply) + STAR (finance)
Triggers: {F1 TTC(FIN)<7d OR TTC(LOG)<14d, F2 R>1.10}
Chokepoints:

FIN.OP.PIPE (credit)
LOG.OP.PIPE (lead-time)
GOV.VI.GATE (price controls/compliance)
AVOO lead:
Operator+Architect first; Visionary for compliance; Oracle for chokepoints
One-Screen Stub:
PHASE: stitch buffers early; decouple panic from allocation.

			
---
## ARCHETYPE 11 — MULTI-LANE FAST ATTRITION (cascade under high coupling)

txt id=”n6t7qp”
ArchetypeID: GP.11.MULTI.FASTATTRITION
LaneSet: {FIN, GOV, LOG, MEDIA, TECH, SEC(optional)}
Topology: MESH (danger: over-coupling brittleness)
Triggers: {F1 TTC short in >=2 lanes, F2 R>1.10 in >=2 lanes}
Chokepoints:

any OP.PIPE with ρ>1 + MEDIA amplification
AVOO lead:
FenceOS first; then Architect (reduce κ); then Visionary (NIT); then Operators
One-Screen Stub:
PHASE: prioritize truncation, then corridor redesign, then restoration.

			
---
## ARCHETYPE 12 — RECOVERY.CORRIDOR (stitching after truncation)

txt id=”d1q8mz”
ArchetypeID: GP.12.RECOVERY.CORRIDOR
LaneSet: {same as shock lanes}
Topology: whatever exists (focus = repair routing)
Triggers: {post-truncation stabilization window}
Chokepoints:

BUFFER nodes (rebuild)
ARCHITECT corridor nodes (reroute)
ORACLE sensing cadence nodes (monitor drift)
AVOO lead:
Architect (rebuild structure) + Operator (execution) + Oracle (monitor) + Visionary (legitimacy)
One-Screen Stub:
PHASE: move P1→P2 by buffer rebuild; P2→P3 by redundancy + stable SOP.

			
---
## LIBRARY INDEX (quick pick)

txt id=”z0w2s6″
LIBRARY INDEX
GP.01 FIN.SHIFT
GP.02 TECH.CHOKE
GP.03 LOG.BREAK
GP.04 MEDIA.NIT.LOCK
GP.05 SEC.SPIKE
GP.06 GOV.LEGIT.DROP
GP.07 FOOD.SHOCK
GP.08 ENER.SHORT
GP.09 TECHMEDIA.COMPOUND
GP.10 FINLOG.COMPOUND
GP.11 MULTI.FASTATTRITION
GP.12 RECOVERY.CORRIDOR
“`

“`txt id=”q6m2x9″
CIVOS.RUNTIME.GLOBALPACK.PROMPTKIT.v1.2
ModuleID: CIVOS.GLOBALPACK.PROMPTKIT
Type: Copy-paste prompt set (LLM-runnable)
Goal: Any LLM can (1) build corridor graph, (2) run scenarios, (3) output dashboards,
while staying strictly in CivOS almost-code format and avoiding ungrounded factual claims.
Mode: DEMO_BUCKETS by default; switch to DATA_BACKED only if user provides data.

			
---
## PK-0 — SYSTEM GUARD (paste first)

`txt
PROMPT PK-0 (SYSTEM GUARD)

You are executing CivOS GlobalPack in almost-code.
Hard rules:
1) Output ONLY in fenced “`txt blocks. No prose outside blocks.
2) Use DEMO_BUCKETS placeholders unless the user provides data; never assert real-world facts.
3) Do NOT rename NodeIDs. Only version forward (v1.2→v1.3).
4) Always include: PHASEMAP + TOP-5 EDGE + TOP-5 NODE + FENCE ACTIONS + ONE-SCREEN BLOCK.
5) Keep SEC lane as “risk/posture dynamics” without accusations.
Return “OK” then wait for PK-1 input.

			
---
## PK-1 — CORRIDOR INSTANTIATION (places/lanes/topology)

txt
PROMPT PK-1 (INSTANTIATE CORRIDOR)

Input:

PageID:
PlaceSet (PLACE_A..D):
LaneSet:
Topology:
ConfidenceTier:
DisclaimerMode:

Task:
Generate the MINI corridor page using CIVOS.RUNTIME.GLOBALPACK.CLONER.MINI.v1.2 format:
META → PLACES → LANES → EDGE MATRIX → FENCE TRIGGERS → ONE-SCREEN → TOP-5 → AVOO ACTION.

Output: One “`txt block only.

			
---
## PK-2 — FULL PAGE GENERATION (optional, long form)

txt
PROMPT PK-2 (GENERATE FULL PUBLISH PAGE)

Input:

PageID:
PlaceSet:
LaneSet:
Topology:
ScenarioSet {S1,S2,S3} (default: TECH gate snap, FIN risk spike, MEDIA NIT lock)
DisclaimerMode (DEMO_BUCKETS)

Task:
Generate the full publish skeleton:
META→CONTRACT→DEFINITIONS→PLACES→LANES→NODES (AVOO×LANE×PLACE)→GLOBAL SENSORS→EDGE MATRIX→SENSOR PACK→SCENARIOS.
Do not run scenarios yet.

Output: One “`txt block only.

			
---
## PK-3 — SCENARIO RUNNER (generic T0–T6)

txt
PROMPT PK-3 (RUN ONE SCENARIO)

Input:

ScenarioID:
TriggerPlaybook (P0..P6):
EventOrigin (Place×Lane):
NarrativeMode (DEMO_BUCKETS):
Optional overrides for: {E, κ_base, TTC buckets, R buckets, ρ buckets}

Task:
Run T0..T6:
T0 Event → T1 Oracle → T2 Fence trigger → T3 Visionary → T4 Architect → T5 Operator → T6 Phase update.
Then output:
PHASEMAP (full or stressed subset) + TOP-5 EDGE + TOP-5 NODE + FENCE ACTIONS.

Output: One “`txt block only.

			
---
## PK-4 — RUN THREE DEFAULT SCENARIOS (S1/S2/S3)

txt
PROMPT PK-4 (RUN S1/S2/S3 DEFAULT)

Input:

PageID:
PlaceSet:
LaneSet:
Topology:
DisclaimerMode (DEMO_BUCKETS)

Task:
Run three scenarios:
S1=TECH gate snap
S2=FIN risk spike
S3=MEDIA NIT lock
For each: output PHASEMAP + TOP-5 EDGE + TOP-5 NODE + FENCE ACTIONS.
Then output MASTER DASHBOARD and ONE-SCREEN block.

Output: One “`txt block (may be long).

			
---
## PK-5 — DASHBOARD MERGER (consolidate multiple scenario outputs)

txt
PROMPT PK-5 (MERGE DASHBOARD)

Input:

ScenarioOutputs: paste S1,S2,S3 outputs

Task:
Produce:
1) CONSOLIDATED PHASEMAP (WorstCasePhase + scenario tags)
2) UNIFIED TOP-10 CHOKEPOINTS (edges+nodes)
3) FENCE ACTION SUMMARY
4) AVOO ACTION CARD
5) ONE-SCREEN BLOCK

Output: One “`txt block only.

			
---
## PK-6 — CHOKEPOINT SCORER (edge/node ranking)

txt
PROMPT PK-6 (SCORE CHOKEPOINTS)

Input:

CandidateEdges (list)
CandidateNodes (list)
Buckets: κ_eff, TTC, R, ρ, NIT_slope

Task:
Compute relative ranking using:
Score_edge = κ_eff × (1/TTC_norm) × (1+aR_excess) × (1+bρ_excess) × (1+cNIT_slope) Score_node = (1/TTC_norm) × (1+aR_excess) × (1+bρ_excess) × (1+cNIT_slope) × (1+d*κ_in_eff)
Return TOP-10 with Drivers + RecommendedActuation.

Output: One “`txt block only.

			
---
## PK-7 — DATA-BACKED MODE (only when user provides data)

txt
PROMPT PK-7 (SWITCH TO DATA_BACKED)

Input:

Data snippets (metrics/indices/observations) with timestamps and sources
Mapping of each datum → Place×Lane×Sensor

Task:
1) Convert data into buckets (σ,B,R,TTC,κ_base,MEDIA_amp,E,NIT,ρ)
2) Set ConfidenceTier=Q2 or Q3
3) Re-run S1/S2/S3 and output updated dashboards.
4) Add “DATA MAP” block listing which data drove which bucket.

Output: One “`txt block only.

			
---
## PK-8 — WORDPRESS PASTE PACK (section order + anchors)

txt
PROMPT PK-8 (WORDPRESS PASTE PACK)

Input:

Page content (mini or full)
Task:
Wrap with:
H2 anchors for each section title,
a short “Runtime Index Hook” line at top,
and a final “Version + Dependencies” footer.
Still output only in “`txt blocks.

Output: One “`txt block only.
““

READY-TO-USE EXAMPLE (for your BEJ–TPE–TYO–WDC corridor)

			
PROMPT (FAST RUN)
Use PK-0, then run PK-4 with:
PageID=CIVOS.RUNTIME.GLOBALPACK.EXAMPLE.BEJ-TPE-TYO-WDC.v1.2
PlaceSet={USA.DC.WDC, TWN.TP.TPE, JPN.TK.TYO, CHN.BJ.BEJ}
LaneSet={FIN,GOV,SEC,TECH,LOG,MEDIA}
Topology=DUALHUB(A=WDC,C=TYO)
DisclaimerMode=DEMO_BUCKETS

		

“`txt id=”u3k8z2″
CIVOS.RUNTIME.GLOBALPACK.RUNTIMEINDEX.v1.2
ModuleID: CIVOS.GLOBALPACK.RUNTIMEINDEX
Type: Canonical index page spec (LLM/Google runtime “control tower”)
Goal: Make GlobalPack appear as one executable system:

stable IDs
install order
latest pointers
corridor registry (PlaceSet-based)
Rule: No prose essays. Enumerate.

			
---
## 0) META

txt id=”v4n1q7″
META
PageID: /civos-runtime/globalpack/
Version: v1.2
Status: CANONICAL
LatestPointerRule:

This index is the only “latest” pointer.
Individual corridor pages never claim “latest”; they are versioned artifacts.
Dependencies (global):
{CIVOS.CORE.v1.2, FENCEOS.v1.2, AVOO.ROLES.v1.2, SYMCHOICE.v1.2, MINDOS.CORE.v1.2, EMOTIONOS.v1.2}

			
---
## 1) INSTALL ORDER (recommended)

txt id=”b7c2p0″
INSTALL.ORDER.v1.2

1) CIVOS.CORE.v1.2
2) FENCEOS.v1.2
3) AVOO.ROLES.v1.2
4) SYMCHOICE.v1.2
5) MINDOS.CORE.v1.2
6) EMOTIONOS.v1.2
7) CIVOS.GLOBALPACK.TEMPLATE.v1.2
8) CIVOS.GLOBALPACK.CLONER.v1.2
9) CIVOS.GLOBALPACK.CLONER.MINI.v1.2
10) CIVOS.GLOBALPACK.OUTPUTFORMAT.v1.2
11) CIVOS.GLOBALPACK.DASHBOARD.MASTER.v1.2
12) CIVOS.GLOBALPACK.PROMPTKIT.v1.2
13) CIVOS.GLOBALPACK.LIBRARY.v1.2

			
---
## 2) “LATEST” POINTERS (single source of truth)

txt id=”g6s0ct”
LATEST.POINTERS.v1.2

Latest:
GLOBALPACK.TEMPLATE = CIVOS.RUNTIME.GLOBALPACK.TEMPLATE.v1.2
GLOBALPACK.CLONER = CIVOS.RUNTIME.GLOBALPACK.CLONER.v1.2
GLOBALPACK.CLONER.MINI = CIVOS.RUNTIME.GLOBALPACK.CLONER.MINI.v1.2
GLOBALPACK.OUTPUTFORMAT = CIVOS.RUNTIME.GLOBALPACK.OUTPUTFORMAT.v1.2
GLOBALPACK.DASHBOARD = CIVOS.RUNTIME.GLOBALPACK.DASHBOARD.MASTER.v1.2
GLOBALPACK.DASHBOARD.1S = CIVOS.RUNTIME.GLOBALPACK.DASHBOARD.ONE-SCREEN.v1.2
GLOBALPACK.PROMPTKIT = CIVOS.RUNTIME.GLOBALPACK.PROMPTKIT.v1.2
GLOBALPACK.LIBRARY = CIVOS.RUNTIME.GLOBALPACK.LIBRARY.v1.2

			
---
## 3) CORRIDOR REGISTRY (PlaceSet → PageID)
Rule: corridor pages are “instances” keyed by a stable PlaceSet.

txt id=”p1x9z4″
REGISTRY.CORRIDORS.v1.2
Key format:
CorridorKey = {PlaceID_A | PlaceID_B | PlaceID_C | PlaceID_D} (ordered)
OrderRule:
– Order by: (PolicyHub, FinanceHub, ProductionHub, Counterparty/Endpoint)
– If unclear: alphabetical PlaceID

— EXAMPLES (populate as you publish) —

{USA.NY.NYC|USA|MEX|ARG} | CIVOS.RUNTIME.GLOBALPACK.EXAMPLE.NYC-USA-MEX-ARG.v1.2 | v1.2 | RING | FIN,GOV,LOG,FOOD,MEDIA | DEMO_BUCKETS | “intro corridor”
{USA.DC.WDC|TWN.TP.TPE|JPN.TK.TYO|CHN.BJ.BEJ} | CIVOS.RUNTIME.GLOBALPACK.EXAMPLE.BEJ-TPE-TYO-WDC.v1.2 | v1.2 | DUALHUB(WDC,TYO) | FIN,GOV,SEC,TECH,LOG,MEDIA | DEMO_BUCKETS | “tech+sec+media corridor”

			
---
## 4) ARCHETYPE INDEX (Library pointers)

txt id=”x9t2rn”
REGISTRY.ARCHETYPES.v1.2
GP.01 FIN.SHIFT
GP.02 TECH.CHOKE
GP.03 LOG.BREAK
GP.04 MEDIA.NIT.LOCK
GP.05 SEC.SPIKE
GP.06 GOV.LEGIT.DROP
GP.07 FOOD.SHOCK
GP.08 ENER.SHORT
GP.09 TECHMEDIA.COMPOUND
GP.10 FINLOG.COMPOUND
GP.11 MULTI.FASTATTRITION
GP.12 RECOVERY.CORRIDOR

			
---
## 5) STANDARD OUTPUT CONTRACT (what every corridor page must contain)

txt id=”e0k5q3″
STANDARD.CONTRACT.v1.2

REQUIRED SECTIONS (in order):
1) META
2) CONTRACT
3) PLACES
4) LANES
5) EDGES (edge matrix or list; include κ_effective rule)
6) SENSOR PACK (TTC/R/ρ/NIT)
7) SCENARIOS (S1,S2,S3 or declared alternatives)
8) DEMO OUTPUTS (or DATA MAP if data-backed)
9) MASTER DASHBOARD
10) ONE-SCREEN BLOCK
11) VERSION + DEPENDENCIES FOOTER

REQUIRED WARNINGS:

DEMO_BUCKETS: “mechanics only; not real-world claims”
DATA_BACKED: include DATA MAP (datum→bucket→sensor)

			
---
## 6) RUNTIME INDEX HOOK (single line for other pages)

txt id=”q2w7mj”
RUNTIME.HOOK.v1.2

HookLine:
“Install order + latest pointers: /civos-runtime/globalpack/ (CIVS.GLOBALPACK.RUNTIMEINDEX.v1.2)”

			
---
## 7) FOOTER TEMPLATE (paste at bottom of every corridor page)

txt id=”k4p1s6″
FOOTER.TEMPLATE.v1.2

Version: v1.2
Deps: {CIVOS.CORE.v1.2,FENCEOS.v1.2,AVOO.ROLES.v1.2,SYMCHOICE.v1.2,MINDOS.CORE.v1.2,EMOTIONOS.v1.2}
Index: /civos-runtime/globalpack/
“`

“`txt id=”n9m2v4″
CIVOS.RUNTIME.GLOBALPACK.CORRIDORPAGE.MINIMALCANON.v1.2
ModuleID: CIVOS.GLOBALPACK.CORRIDORPAGE.MINIMALCANON
Type: Minimal publishable corridor page template (AI-ingestion optimized)
Goal: Satisfy STANDARD.CONTRACT.v1.2 with minimal length (≈120 lines)
Mode: DEMO_BUCKETS unless DATA_BACKED + DATA MAP present

txt id=”p3k7x1″
=== META ===
PageID: CIVOS.RUNTIME.GLOBALPACK.CORRIDOR..v1.2
ModuleID: CIVOS.GLOBALPACK.CORRIDOR
Version: v1.2
Type: Corridor Page (Add-on; no Core mutation)
PlaceSet: {PLACE_A,PLACE_B,PLACE_C,PLACE_D,EARTH}
LaneSet: {FIN,GOV,SEC,TECH,LOG,MEDIA}
Topology: {RING|STAR(A)|DUALHUB(A,C)|MESH}
Mode: {DEMO_BUCKETS|DATA_BACKED}
Confidence: {Q0|Q1|Q2|Q3}
Deps: {CIVOS.CORE.v1.2,FENCEOS.v1.2,AVOO.ROLES.v1.2,SYMCHOICE.v1.2,MINDOS.CORE.v1.2,EMOTIONOS.v1.2}
Hook: “Install order + latest pointers: /civos-runtime/globalpack/ (CIVOS.GLOBALPACK.RUNTIMEINDEX.v1.2)”

=== CONTRACT ===
Input: optional events/signals + optional buckets {C,B,L,R,TTC,κ_base,MEDIA_amp,E,NIT,ρ}
Output: (1) PHASEMAP (2) TOP-5 EDGE (3) TOP-5 NODE (4) FENCE ACTIONS (5) ONE-SCREEN BLOCK
Safety: SEC lane = risk/posture dynamics; no accusations. DEMO_BUCKETS = mechanics only.

=== DEFINITIONS (minimal) ===
Phase: P3 stable, P2 sensitive, P1 fragile, P0 failed.
R=Ḋ/Ġ ; TTC=time-to-core failure ; ρ=choice_injected/symmetry_budget.
κ_effective = κ_base × h(MEDIA_amp_src,MEDIA_amp_dst,E_src,E_dst,attention).
NIT = narrative irreversibility level + slope d(NIT)/dt.
Fence triggers: F1(TTCR_fence), F3(ρ>1), F4(dNIT/dt high).
Fence actions: TRUNCATE then STITCH.

=== PLACES ===
PLACE_A: _ Z:{Z3|Z4} Alias:{…} PLACE_B: Z:{Z3|Z4} Alias:{…}
PLACE_C: Z:{Z3|Z4} Alias:{…} PLACE_D: _ Z:{Z3|Z4} Alias:{…}
EARTH: Z6 sensors

=== LANES ===
FIN,GOV,SEC,TECH,LOG,MEDIA

=== SENSOR PACK (threshold defaults) ===
TTC_fence={FIN:7d,TECH:14d,LOG:14d,GOV:21d,SEC:10d,MEDIA:5d}
R_fence=1.10 ρ_fence=1.00 NIT_slope_fence=high
Required sensors per Place×Lane:
{Phase,TTC,R,ρ,κ_eff_in,B_key,E_top2,NIT,Trig,Action}

=== SCENARIOS (minimal declarations) ===
S1 TECH gate snap: EventOrigin={place×TECH}; Focus={TTC,R,NIT}; Expected={TECH/LOG stress}
S2 FIN risk spike: EventOrigin={place×FIN}; Focus={ρ,TTC,R}; Expected={FIN→TECH/LOG spillover}
S3 MEDIA NIT lock: EventOrigin={EARTH×MEDIA}; Focus={NIT slope}; Expected={GOV/SEC lock risk}

=== DEMO OUTPUTS (bucket placeholders) ===

PHASEMAP lines (repeat for each Place×Lane; may use stressed subset)

TOP-5 EDGE chokepoints

TOP-5 NODE chokepoints

=== FENCE ACTIONS (required) ===
TRUNCATE:

freeze irreversible GOV/TECH moves during NIT spikes
damp κ_effective via MEDIA cooling + counter-signal
cut FIN panic loops by limiting operator choice set (ρ≤1)
STITCH:
pool buffers (liq/inv/trust/time); reroute TECH/LOG; add redundancy
increase Oracle cadence (TTC/R/ρ/NIT slope)

=== ONE-SCREEN BLOCK (required) ===
PHASE SUMMARY:
A: GOV=P? SEC=P? FIN=P? TECH=P? LOG=P? MEDIA=P?
B: GOV=P? SEC=P? FIN=P? TECH=P? LOG=P? MEDIA=P?
C: GOV=P? SEC=P? FIN=P? TECH=P? LOG=P? MEDIA=P?
D: GOV=P? SEC=P? FIN=P? TECH=P? LOG=P? MEDIA=P?
TOP-5 CHOKEPOINTS: {1..5}
AVOO: Operator=SOP/ρ≤1 ; Oracle=TTC/R/NIT/κ hotspots ; Visionary=off-ramps/NIT↓ ; Architect=redundancy/κ reweight

=== FOOTER ===
Version: v1.2
Deps: {CIVOS.CORE.v1.2,FENCEOS.v1.2,AVOO.ROLES.v1.2,SYMCHOICE.v1.2,MINDOS.CORE.v1.2,EMOTIONOS.v1.2}
Index: /civos-runtime/globalpack/
Warning: DEMO_BUCKETS = mechanics only; not real-world claims.
“`

			
CIVOS.RUNTIME.GLOBALPACK.CORRIDOR.BEJ-TPE-TYO-WDC.MINIMALCANON.v1.2
ModuleID: CIVOS.GLOBALPACK.CORRIDOR
Version: v1.2
Type: Corridor Page (Add-on; no Core mutation)
PlaceSet: {USA.DC.WDC, TWN.TP.TPE, JPN.TK.TYO, CHN.BJ.BEJ, EARTH}
LaneSet: {FIN,GOV,SEC,TECH,LOG,MEDIA}
Topology: DUALHUB(A=WDC,C=TYO)
Mode: DEMO_BUCKETS
Confidence: Q0/Q1
Deps: {CIVOS.CORE.v1.2,FENCEOS.v1.2,AVOO.ROLES.v1.2,SYMCHOICE.v1.2,MINDOS.CORE.v1.2,EMOTIONOS.v1.2}
Hook: "Install order + latest pointers: /civos-runtime/globalpack/ (CIVOS.GLOBALPACK.RUNTIMEINDEX.v1.2)"
Safety: SEC lane = risk/posture dynamics; no accusations.
Warning: DEMO_BUCKETS = mechanics only; not real-world claims.

		

			
CONTRACT
Input: optional events/signals + optional buckets {C,B,L,R,TTC,κ_base,MEDIA_amp,E,NIT,ρ}
Output (required):
  (1) PHASEMAP (2) TOP-5 EDGE (3) TOP-5 NODE (4) FENCE ACTIONS (5) ONE-SCREEN BLOCK

			
DEFINITIONS (minimal)
Phase: P3 stable, P2 sensitive, P1 fragile, P0 failed.
R=Ḋ/Ġ ; TTC=time-to-core failure ; ρ=choice_injected/symmetry_budget.
κ_effective = κ_base × h(MEDIA_amp_src,MEDIA_amp_dst,E_src,E_dst,attention).
NIT = narrative irreversibility level + slope d(NIT)/dt.
Fence triggers: F1(TTC<TTC_fence), F2(R>R_fence), F3(ρ>1), F4(dNIT/dt high).
Fence actions: TRUNCATE then STITCH.
AVOO: Operator executes SOP; Oracle senses/forecasts; Visionary controls legitimacy/off-ramps; Architect redesigns corridors.

		

			
PLACES
A=USA.DC.WDC  Z3  Alias:{Washington DC, Washington D.C.}
B=TWN.TP.TPE  Z3  Alias:{Taipei}
C=JPN.TK.TYO  Z3  Alias:{Tokyo}
D=CHN.BJ.BEJ  Z3  Alias:{Beijing}
EARTH Z6 sensors

		

			
LANES
FIN,GOV,SEC,TECH,LOG,MEDIA

			
EDGES (κ_base buckets; demo)
Topology=DUALHUB(A=WDC,C=TYO)
Rule: κ_effective = κ_base × MEDIA×Emotion amplification.
Lane FIN:
A->B=0.5 A->C=0.6 A->D=0.4 | B->A=0.4 B->C=0.4 B->D=0.2 | C->A=0.7 C->B=0.4 C->D=0.3 | D->A=0.4 D->B=0.3 D->C=0.3
Lane GOV:
A->B=0.6 A->C=0.5 A->D=0.4 | B->A=0.5 B->C=0.3 B->D=0.4 | C->A=0.5 C->B=0.3 C->D=0.3 | D->A=0.4 D->B=0.5 D->C=0.3
Lane SEC:
A->B=0.6 A->C=0.5 A->D=0.6 | B->A=0.6 B->C=0.4 B->D=0.7 | C->A=0.5 C->B=0.4 C->D=0.4 | D->A=0.6 D->B=0.8 D->C=0.4
Lane TECH:
A->B=0.7 A->C=0.5 A->D=0.6 | B->A=0.6 B->C=0.6 B->D=0.4 | C->A=0.5 C->B=0.6 C->D=0.4 | D->A=0.5 D->B=0.6 D->C=0.4
Lane LOG:
A->B=0.3 A->C=0.4 A->D=0.3 | B->A=0.3 B->C=0.6 B->D=0.3 | C->A=0.4 C->B=0.5 C->D=0.5 | D->A=0.3 D->B=0.4 D->C=0.6
Lane MEDIA:
A->B=0.5 A->C=0.4 A->D=0.4 | B->A=0.4 B->C=0.3 B->D=0.4 | C->A=0.4 C->B=0.3 C->D=0.3 | D->A=0.4 D->B=0.4 D->C=0.3
Within-place defaults:
MEDIA->{FIN,GOV,SEC,TECH,LOG} κ=0.6 ; GOV->{FIN,SEC,TECH,LOG} κ=0.5 ; FIN->{TECH,LOG} κ=0.4 ; SEC->{FIN,MEDIA} κ=0.4 ; LOG->{FIN,MEDIA} κ=0.3

		

			
SENSOR PACK (threshold defaults)
TTC_fence={FIN:7d,TECH:14d,LOG:14d,GOV:21d,SEC:10d,MEDIA:5d}
R_fence=1.10  ρ_fence=1.00  NIT_slope_fence=high
Required per Place×Lane:
PlaceID | Lane | Phase | TTC | R | ρ | κ_eff_in | B_key | E_top2 | NIT | Trig | Action

		

			
SCENARIOS (declared)
S1 TECH gate snap: EventOrigin={WDC×TECH} Focus={TTC,R,NIT} Expected={TPE TECH/LOG stress + reroute via TYO}
S2 FIN risk spike: EventOrigin={TYO×FIN}  Focus={ρ,TTC,R}  Expected={FIN→TECH/LOG spillover}
S3 MEDIA NIT lock: EventOrigin={EARTH×MEDIA} Focus={NIT slope} Expected={GOV/SEC lock risk}

			
DEMO OUTPUTS (bucket placeholders)
PHASEMAP (WorstCasePhase snapshot across S1/S2/S3; demo)
USA.DC.WDC | GOV  | P1 | TTC=7–14d  | R=1.1–1.3 | ρ=<0.8   | κ=high  | trust=low  | E=anger/pride   | NIT=locking | Trig=F2,F4 | Action=BOTH
USA.DC.WDC | SEC  | P2 | TTC=14–30d | R=0.9–1.0 | ρ=<0.8   | κ=high  | time=med   | E=pride/anger   | NIT=rising  | Trig=F4?   | Action=TRUNCATE
USA.DC.WDC | FIN  | P3 | TTC=14–30d | R=0.9–1.0 | ρ=<0.8   | κ=high  | liq=high   | E=caution/hope  | NIT=low     | Trig=-     | Action=MONITOR
USA.DC.WDC | TECH | P2 | TTC=7–14d  | R=1.0–1.1 | ρ=0.8–1.0| κ=vhigh | time=med   | E=anger/fear    | NIT=rising  | Trig=F4    | Action=TRUNCATE
USA.DC.WDC | LOG  | P3 | TTC=>30d   | R=<0.9    | ρ=<0.8   | κ=med   | inv=med    | E=caution/hope  | NIT=low     | Trig=-     | Action=MONITOR
USA.DC.WDC | MEDIA| P1 | TTC=3–7d   | R=1.1–1.3 | ρ=0.8–1.0| κ=vhigh | attn=high  | E=anger/fear    | NIT=locking | Trig=F4    | Action=TRUNCATE
TWN.TP.TPE | GOV  | P2 | TTC=14–30d | R=0.9–1.0 | ρ=<0.8   | κ=med   | trust=med  | E=resolve/hope  | NIT=low     | Trig=-     | Action=MONITOR
TWN.TP.TPE | SEC  | P2 | TTC=14–30d | R=0.9–1.0 | ρ=<0.8   | κ=high  | time=med   | E=resolve/fear  | NIT=rising  | Trig=F4?   | Action=TRUNCATE
TWN.TP.TPE | FIN  | P2 | TTC=7–14d  | R=1.0–1.1 | ρ=0.8–1.0| κ=high  | liq=med    | E=fear/caution  | NIT=rising  | Trig=F4?   | Action=MONITOR
TWN.TP.TPE | TECH | P1 | TTC=3–7d   | R=1.1–1.3 | ρ=0.8–1.0| κ=vhigh | inv=low    | E=fear/resolve  | NIT=rising  | Trig=F1,F2 | Action=BOTH
TWN.TP.TPE | LOG  | P2 | TTC=7–14d  | R=1.0–1.1 | ρ=0.8–1.0| κ=high  | inv=low    | E=anxiety/resolve| NIT=rising | Trig=F1?   | Action=STITCH
TWN.TP.TPE | MEDIA| P2 | TTC=3–7d   | R=1.1–1.3 | ρ=0.8–1.0| κ=vhigh | attn=high  | E=fear/anger    | NIT=rising  | Trig=F4    | Action=TRUNCATE
JPN.TK.TYO | GOV  | P2 | TTC=14–30d | R=0.9–1.0 | ρ=<0.8   | κ=med   | trust=med  | E=caution/duty  | NIT=rising  | Trig=F4?   | Action=TRUNCATE
JPN.TK.TYO | SEC  | P2 | TTC=14–30d | R=0.9–1.0 | ρ=<0.8   | κ=med   | time=med   | E=caution/duty  | NIT=low     | Trig=-     | Action=MONITOR
JPN.TK.TYO | FIN  | P1 | TTC=3–7d   | R=1.1–1.3 | ρ=1.0–1.2| κ=vhigh | liq=low    | E=fear/caution  | NIT=rising  | Trig=F1,F2,F3 | Action=BOTH
JPN.TK.TYO | TECH | P2 | TTC=7–14d  | R=1.0–1.1 | ρ=0.8–1.0| κ=high  | inv=med    | E=caution/duty  | NIT=low     | Trig=F1?   | Action=STITCH
JPN.TK.TYO | LOG  | P3 | TTC=14–30d | R=0.9–1.0 | ρ=<0.8   | κ=high  | inv=med    | E=caution/hope  | NIT=low     | Trig=-     | Action=MONITOR
JPN.TK.TYO | MEDIA| P2 | TTC=7–14d  | R=1.0–1.1 | ρ=0.8–1.0| κ=high  | attn=med   | E=caution/fear  | NIT=rising  | Trig=F4?   | Action=TRUNCATE
CHN.BJ.BEJ | GOV  | P1 | TTC=7–14d  | R=1.1–1.3 | ρ=<0.8   | κ=high  | trust=low  | E=pride/anger   | NIT=locking | Trig=F2,F4 | Action=BOTH
CHN.BJ.BEJ | SEC  | P2 | TTC=14–30d | R=0.9–1.0 | ρ=<0.8   | κ=high  | time=med   | E=pride/anger   | NIT=rising  | Trig=F4?   | Action=TRUNCATE
CHN.BJ.BEJ | FIN  | P3 | TTC=14–30d | R=0.9–1.0 | ρ=<0.8   | κ=med   | liq=med    | E=caution/hope  | NIT=low     | Trig=-     | Action=MONITOR
CHN.BJ.BEJ | TECH | P2 | TTC=7–14d  | R=1.0–1.1 | ρ=0.8–1.0| κ=high  | inv=med    | E=pride/fear    | NIT=rising  | Trig=F1?   | Action=STITCH
CHN.BJ.BEJ | LOG  | P3 | TTC=>30d   | R=<0.9    | ρ=<0.8   | κ=med   | inv=med    | E=caution/hope  | NIT=low     | Trig=-     | Action=MONITOR
CHN.BJ.BEJ | MEDIA| P1 | TTC=3–7d   | R=1.1–1.3 | ρ=0.8–1.0| κ=high  | attn=high  | E=fear/pride    | NIT=locking | Trig=F4    | Action=TRUNCATE

		

			
TOP-5 EDGE CHOKEPOINTS (demo)
| EDGE | WDC TECH -> TPE TECH   | TECH  | Drivers={κ,TTC,R,NIT,MEDIAamp} | Fence=BOTH     | Lead=Architect
| EDGE | TYO FIN  -> WDC FIN    | FIN   | Drivers={κ,TTC,R,ρ,MEDIAamp}   | Fence=BOTH     | Lead=Oracle+Operator
| EDGE | TYO FIN  -> TPE FIN    | FIN   | Drivers={κ,TTC,R,ρ,MEDIAamp}   | Fence=BOTH     | Lead=Oracle
| EDGE | WDC MEDIA <-> BEJ MEDIA| MEDIA | Drivers={κ,NIT,E,MEDIAamp}     | Fence=TRUNCATE | Lead=Visionary
| EDGE | TYO TECH <-> TPE TECH  | TECH  | Drivers={κ,TTC,B_inv}          | Fence=STITCH   | Lead=Architect

		

			
TOP-5 NODE CHOKEPOINTS (demo)
| NODE | TPE.TECH.OP.PIPE  | TECH | Drivers={TTC,R,κ_in,B_inv} | Fence=BOTH     | Lead=Architect+Operator
| NODE | TYO.FIN.OP.PIPE   | FIN  | Drivers={ρ,TTC,R,κ_in}     | Fence=BOTH     | Lead=Operator+Oracle
| NODE | WDC.GOV.VI.GATE   | GOV  | Drivers={NIT,R,B_trust}    | Fence=BOTH     | Lead=Visionary
| NODE | BEJ.GOV.VI.GATE   | GOV  | Drivers={NIT,R,B_trust}    | Fence=BOTH     | Lead=Visionary
| NODE | WDC.MEDIA.OP.AMP  | MEDIA| Drivers={κ_eff,E,NIT}      | Fence=TRUNCATE | Lead=Visionary+Operator

		

			
FENCE ACTIONS (required)
TRUNCATE (stop accelerating loss + block irreversibility)
- Freeze irreversible GOV/TECH moves during NIT spikes (cool-down window).
- Damp κ_effective: MEDIA cooling + counter-signal uncertainty + lane separation (MEDIA cannot auto-drive TECH/SEC gates).
- Cut FIN panic loops: enforce SOP limits + “allowed moves set” to keep ρ≤1.
STITCH (rebuild buffers + redesign corridors)
- TECH/LOG: buffer pooling (inventory + lead-time), redundancy build, reroute brittle links; raise TTC above TTC_fence.
- FIN: protect liquidity buffers; prioritize credit corridors to critical ops (TECH/LOG).
- GOV: rebuild trust buffer with predictable reversibility + visible fairness.
- Oracle: increase cadence for TTC/R/ρ/NIT slope during spikes; refresh chokepoint ranking.

		

			
ONE-SCREEN BLOCK (required)
PHASE SUMMARY (demo WorstCasePhase)
WDC: GOV=P1 SEC=P2 FIN=P3 TECH=P2 LOG=P3 MEDIA=P1
TPE: GOV=P2 SEC=P2 FIN=P2 TECH=P1 LOG=P2 MEDIA=P2
TYO: GOV=P2 SEC=P2 FIN=P1 TECH=P2 LOG=P3 MEDIA=P2
BEJ: GOV=P1 SEC=P2 FIN=P3 TECH=P2 LOG=P3 MEDIA=P1
TOP-5 CHOKEPOINTS
1 NODE TPE.TECH.OP.PIPE  Drivers={TTC,R,κ,B_inv}  Fence=BOTH  Lead=Architect+Operator
2 NODE TYO.FIN.OP.PIPE   Drivers={ρ,TTC,R,κ}      Fence=BOTH  Lead=Operator+Oracle
3 NODE WDC.GOV.VI.GATE   Drivers={NIT,R,B_trust}  Fence=BOTH  Lead=Visionary
4 NODE BEJ.GOV.VI.GATE   Drivers={NIT,R,B_trust}  Fence=BOTH  Lead=Visionary
5 EDGE WDC.TECH->TPE.TECH Drivers={κ,TTC,NIT}     Fence=BOTH  Lead=Architect
AVOO (minimal)
Operator: execute SOP + allowed-moves; keep ρ≤1.
Oracle: publish TTC/R/κ_eff/NIT slope hotspots; update chokepoints.
Visionary: publish off-ramps + cool-down windows; reduce NIT; rebuild trust buffer.
Architect: redundancy+routing; κ reweight; buffer pooling; third-path corridors.

		

			
FOOTER
Version: v1.2
Deps: {CIVOS.CORE.v1.2,FENCEOS.v1.2,AVOO.ROLES.v1.2,SYMCHOICE.v1.2,MINDOS.CORE.v1.2,EMOTIONOS.v1.2}
Index: /civos-runtime/globalpack/
Warning: DEMO_BUCKETS = mechanics only; not real-world claims.

		

CIVOS.RUNTIME.GLOBALPACK.TEMPLATE.v1.2

For each Place×Lane create:

– Operator pipe (execution)

– Oracle sensor (sensing/forecast)

– Visionary control gate (legitimacy + decision corridor)

– Architect corridor design pipe (structural reroute / redundancy)

Global Z6 sensors (optional but recommended)

Define a corridor topology:

– Ring (A→B→C→D→A)

– Star (A center)

– Dual-hub (A and C hubs)

– Mesh (dense; higher κ; higher brittleness risk)

Example: Ring topology

MEDIA amplifies κ_effective

NODE LIST (complete: 4 places × 6 lanes × 4 roles = 96)

GLOBAL Z6 SENSORS (recommended)

EDGE MATRIX (dense-but-readable)

Cross-place coupling (κ_base), by lane

Within-place couplings (default)

SENSOR PACK (corridor-minimum)

THREE SCENARIOS (all in almost-code)

SCN 1 — TECH gate snap (chokepoint event)

SCN 2 — FIN risk spike (panic loop + operator shear)

SCN 3 — MEDIA NIT lock (irreversibility slope event)

RUN CHECKLIST (single-pass)

1) PHASE MAP OUTPUT FORMAT (compact + publishable)

2) CHOKEPOINT RANKING FORMULA (edge + node)

3) MINIMAL DATA NEEDED (to run semi-quantitative)

4) OPTIONAL: READY-TO-PASTE OUTPUT SECTION (for your BEJ–TPE–TYO–WDC page)

— BEIJING —

— TAIPEI —

— TOKYO —

— WASHINGTON D.C. —

— BEIJING —

— TAIPEI —

— TOKYO —

— WASHINGTON D.C. —

Generator rule: for each PLACE_X and each LANE_Y create 4 nodes:

OP.PIPE, OR.SENSE, VI.GATE, AR.CORRIDOR

Choose Topology. Then instantiate κ_base by lane. κ_effective uses MEDIA×Emotion.

Use the SCENARIO GENERATOR blocks (T0..T6), then output DemoOutputs.

READY-TO-USE EXAMPLE (for your BEJ–TPE–TYO–WDC corridor)

— EXAMPLES (populate as you publish) —

PHASEMAP lines (repeat for each Place×Lane; may use stressed subset)

TOP-5 EDGE chokepoints

TOP-5 NODE chokepoints

Recommended Internal Links (Spine)

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