Percolation · PEI (Pressure-to-Equilibrium Intelligence)
Use Case Demo: Port Aurelia Chokepoint Crisis
A technical walkthrough of the scenario intelligence platform.
Designed for a live-demo or clickable prototype environment, this page walks a design partner, enterprise client, or internal stakeholder through the exact Port Aurelia scenario step by step.
Date
[Date]
Presenter
[Name]
Audience
[Design Partner Name]
Slide 01
Live-demo walkthrough
Agenda
01
Platform Overview
5 min
02
Live Scenario Walkthrough: Port Aurelia Crisis
15 min
03
Technical Architecture and Integration
5 min
04
Q&A / Next Steps
Open
The World Before PEI
You have data. You lack the mechanism of transmission.
Standard risk stacks can flag that a chokepoint is under pressure. They still stop short of showing which node breaks first, where losses concentrate, and which intervention changes the path.
Mock dashboard
Red alertAlert state
Geopolitical Tension: Port Aurelia
What standard tools tell you
What standard tools do not tell you
The gap
We see the storm. We cannot see the damage path.
Cited basis
[1]World Bank (2025): Global trade growth is running at the slowest pace in a decade.
[2]Lloyd's (2024): Trade-route conflict scenarios imply up to $14.5T in global economic loss.
PEI Operator Console
This is the PEI Operator Console.
The operator lands on a pressure-native control surface: system health, active signals, scenario launch, and a preview of burden transfer are visible in one place.
Demo action
Click "Scenario Launcher" -> Select "Port Aurelia Closure - 14-Day Simulation."
World-State Health Index
78/100 (Elevated)
Active Pressure Signals
Port Aurelia Tension: 92% Breakpoint Probability
Scenario launcher
Port Aurelia Closure - 14-Day Simulation
Burden Transfer Map preview shows early yellow edges around the chokepoint before the cascade is fully visible.
A. World-State Health Index
Aggregate fragility score of the entire modeled system. Current state: 78/100.
B. Active Pressure Signals
Real-time feeds flagging rising tension, including Port Aurelia at 92% breakpoint probability.
C. Scenario Launcher
Dropdown to select pre-built scenarios or create a custom shock.
D. Burden Transfer Map Preview
Miniature force graph showing a mostly stable system with early yellow edges around the chokepoint.
Step 1 - Define the Shock
Define the pressure vector.
The scenario configurator turns a geopolitical headline into a structured pressure vector that the model can propagate through the network.
Demo action
Click "Run Scenario."
Shock Type
Chokepoint Closure
Location
Port Aurelia
Duration
14 days (initial estimate)
Severity
Complete blockage (no traffic)
Include Secondary Effects
Insurance repricing, government response, rerouting behavior
01
World-State Model (NetworkX/Neo4j) is queried: find all nodes dependent on Port Aurelia within 3 hops.
02
Predictive Layer (PyMC) is primed with prior probabilities based on historical chokepoint events.
03
Agent Policy Layer is loaded with institutional actors: 3 insurers, 50 importers, 200 suppliers, and 2 governments.
Cited basis
[3]UNCTAD (2024): Strategic maritime chokepoints remain one of the largest systemic threats to trade-dependent economies.
Step 2 - Simulation Execution
Running 10,000 parallel futures.
Once launched, the system fans out thousands of slightly varied futures across the compute layer, runs the full agent-based model, and streams early decisions while the scenario is still executing.
Demo action
Simulation completes. System prompts: "View Results."
Execution status
Simulating T=0 to T=90 days...
Monte Carlo paths
10,000
Time horizon
T=0 to T=90 days
Execution fabric
Ray cluster + Mesa/LangGraph agents
Live log stream
[Ray Worker 42] T+2: InsurerAgent 'GlobalRe' -> Action: Reprice War Risk (+300%)
[Ray Worker 17] T+2: ImporterAgent 'ElectroCorp' -> Action: Absorb Margin (Buffer 2% remaining)
[Ray Worker 88] T+5: GovernmentAgent 'Ministry of Trade' -> State: Monitoring (No trigger yet)
[Ray Worker 03] T+7: LogisticsNode 'Midwest Logistics Inc' -> Warning: Cash buffer < 5 days.Ray distributes 10,000 slightly varied simulations across the cluster.
Each simulation runs the full Mesa agent-based model with LangGraph agents making constrained decisions.
Results are aggregated in real time so the operator can move directly into ranked outcomes.
Cited basis
[5]Pal and Yasar (2024): Multi-agent reinforcement learning is validated for supply-chain disruption and transshipment simulation.
Step 3 - The Output
The system tells you exactly what breaks first.
Breakpoint analysis turns the scenario run into ranked, decision-ready fragility: not just that Port Aurelia is stressed, but which downstream node is most likely to fail first and why.
Demo action
Click "Midwest Logistics Inc." to drill down.
Likely breakpoints
| Rank | Node | Type | Breakpoint Probability | Trigger Condition |
|---|---|---|---|---|
| 1 | Midwest Logistics Inc. | Tier-2 Trucking | 71% | Cash buffer < 7 days (T+14) |
| 2 | FastChip Importers | Importer | 58% | Margin compression > 15% |
| 3 | PortSide Warehousing | Warehouse | 42% | Volume drop > 40% |
| 4 | Regional Bank of Aurelia | Regional Bank | 31% | Loan default cascade |
Key insight
The most fragile node is not the port itself. It is a small trucking firm two steps removed, largely invisible to traditional risk monitors.
Cited basis
[11]World Bank Logistics Performance Index (2024): Port dwell-time gaps and indirect logistics dependencies hide system fragility.
Step 3b - Node Deep Dive
Why this node breaks.
The node drill-down makes the causal chain legible: operational dependency, balance-sheet weakness, and behavioral policy all line up to make Midwest Logistics the first absorber of systemic damage.
Node profile
Midwest Logistics Inc.
Tier-2 Trucking / Last-Mile Logistics
System read
This is the first absorber of systemic damage.
Dependencies
Input: 100% of volume from Port Aurelia via PortSide Warehousing.
Output: Serves 3 major electronics manufacturers in the Midwest.
Financials
Cash buffer: 14 days of operating expenses.
Credit line: $2M, fully drawn.
No alternative routing contracts.
Agent policy
If volume drops > 50% for > 7 days, default on equipment leases.
Simulation projection
T+0: Port closes.
T+7: PortSide Warehouse runs out of inventory to ship.
T+14: Midwest Logistics records zero revenue for 7 consecutive days. Cash buffer exhausted. Default triggered.
Step 4 - Burden Transfer Map
Watch the pain move through the system.
PEI visualizes the cascade itself: who absorbs pain first, who passes it on, and which beneficiaries emerge as the system reroutes around the chokepoint.
Demo action
Hover over "AeroCargo Airlines" to see projected +8% stock impact.
Actor map
Burden transfer
T+0
T+7
T+14
T+45
Port Aurelia
Insurers
Midwest Logistics
Manufacturers
AeroCargo Airlines
Graph legend
Red Nodes
Loss absorbers with negative impact
Green Nodes
Beneficiaries with positive impact
Red Edges
Stress transmission such as cost pass-through or volume drop
Green Edges
Value transfer through new demand or margin capture
Edge Thickness
Magnitude of projected impact
Animated time-lapse
T=0: Port Aurelia turns red. Stress pulses outward to ships and insurers.
T=7: Red stress reaches PortSide Warehouse and importers.
T=14: Midwest Logistics flashes bright red and stress reaches Midwest manufacturers.
T=21: Green edges appear as AeroCargo Airlines and alternative ports benefit from rerouting.
T=45: Consumer nodes begin to turn red as price hikes finally pass through.
Cited basis
[6]Anand and Prasad (2024): Supply shocks propagate by reducing output, tightening conditions, and raising inflation.
Step 5 - Intervention Comparator
Test your move before you make it.
The value is not just diagnosis. PEI compares intervention paths, quantifies tradeoffs, and recommends the move that most efficiently restores stability.
Demo action
Click "Apply Intervention C" -> System re-runs the simulation with intervention active.
| Intervention | Cost | Midwest Logistics Survival Prob. | Systemic Fragility Index (T+90) | Time to stabilization |
|---|---|---|---|---|
| A. Do Nothing (Baseline) | $0 | 29% | 94/100 | > 90 days |
| B. Subsidize Air Freight | $400M | 52% | 78/100 | ~75 days |
| C. Targeted Bridge Loans (Logistics Sector) | $200M | 88% | 52/100 | ~45 days |
Recommended move
"Targeted bridge financing for Tier-2 logistics firms in the Port Aurelia catchment area. Prevents cascade failure. ROI: Positive through tax-revenue stability and avoided economic loss."
Cited basis
[7]Izquierdo et al. (World Bank, 2022): Public investment multipliers are approximately 1.5x in many scenarios.
[8]GFDRR (2019): Resilient infrastructure often returns roughly $4 for every $1 invested.
Step 6 - Post-intervention stabilization path
The new trajectory to stability.
With the selected intervention turned on, the system shows the new stabilization path side by side with the baseline path, including the economic damage that was avoided.
Do nothing path
Bridge-loan path
Most probable stabilization path
Cost of instability avoided
$1.2B in lost economic output and social safety-net spending avoided.
Innovation Vector Demo
PEI also models what makes systems stronger.
The same scenario engine can shift from crisis response to strategic investment, showing which innovations permanently lower fragility and reduce future bailout needs.
Demo action
Toggle between "Crisis Response" and "Strategic Investment" to show dual-mode capability.
Government proposes a $500M Digital Green Corridor at Port Aurelia.
Digital customs clearance shrinks from 48 hours to 2 hours.
Participating ships receive subsidized low-emission fuel support.
| Metric | Baseline (No Innovation) | With Green Corridor |
|---|---|---|
| Midwest Logistics Survival (during stress) | 29% -> 88% (with bailout) | 94% (without bailout) |
| Importer Inventory Buffer | 14 days required | 9 days required (working capital freed) |
| Systemic Fragility Index | 78/100 | 52/100 (permanent reduction) |
| Government Fiscal Impact | $200M bailout cost | +$45M tax revenue (increased trade) |
Key insight
The innovation pays for itself by reducing the need for future bailouts and raising baseline economic activity.
Cited basis
[9]UN ESCAP and ADB (2024): Digital trade facilitation can reduce trade costs by up to 11%.
[10]Global Infrastructure Hub (2025): A large infrastructure gap makes ROI-led investment prioritization critical.
Backtesting and Calibration
PEI learns from every real-world event.
Backtests turn historical crises into model calibration loops, improving the mechanism library and increasing confidence in first-absorber and beneficiary prediction.
Example replay
2024 Red Sea Crisis
Houthi attacks force rerouting around the Cape of Good Hope, creating a natural validation case for shipping costs, traffic loss, first absorbers, and beneficiaries.
| Metric | PEI Predicted | Actual Observed | Accuracy |
|---|---|---|---|
| Shipping Cost Increase | +135% | +141% | 96% |
| Suez Canal Traffic Drop | -72% | -75% | 96% |
| First Absorber (Sector) | European Importers | European Importers | Correct |
| Beneficiary (Sector) | Air Freight / Southern African Ports | Air Freight / Southern African Ports | Correct |
The flywheel effect
Cited basis
[4]World Bank (2025): The Red Sea crisis drove shipping costs up 141% and cut Suez traffic by 75%.
Technical Integration
Designed for enterprise integration.
PEI is intended to slot into an existing data and risk stack: we ingest proprietary exposures, run simulation workloads, expose outputs through APIs, and support controlled deployment models.
Your Data Sources
AIS shipping data
Market feeds
Internal risk models
PEI Ingestion Layer
Prefect flows
Data validation
Graph population
PEI Core Simulation
Ray cluster
Mesa / LangGraph
Neo4j / Redis
PEI API
REST API
Webhooks
CSV / JSON export
Your Systems
Dashboards
Risk workbenches
Decision workflows
Integration options
Security and compliance
What You Have Seen Today
PEI transforms how teams navigate uncertainty.
The shift is from monitoring to mechanism, from alerts to ranked failure paths, and from reactive commentary to intervention design.
| Traditional Approach | PEI Approach |
|---|---|
| There is a risk in Port Aurelia. | Midwest Logistics Inc. has a 71% probability of failure at T+14. |
| We should monitor the situation. | A $200M targeted bridge loan reduces systemic fragility by 42 points. |
| We will react when something breaks. | We can preempt the cascade before the first node fails. |
| Innovation ROI is hard to quantify. | The Green Corridor pays for itself in 3 years through reduced bailout exposure. |
Core value proposition
PEI gives decision-ready intelligence about how systems react under pressure, not just that pressure exists.
Next Steps
Let us build this for your specific domain.
The design-partner motion is scoped around discovery, custom model build, pilot deployment, and ROI evaluation so the product is shaped around the partner's actual exposure network.
| Phase | Duration | Deliverable |
|---|---|---|
| Phase 1: Discovery | 2 Weeks | Map your specific exposure network and identify 3-5 key scenarios. |
| Phase 2: Model Build | 6 Weeks | Build the custom world-state model and calibrate agent policies with your data. |
| Phase 3: Pilot | 8 Weeks | Deploy PEI in your environment and run live scenarios with your team. |
| Phase 4: Evaluation | 2 Weeks | Measure ROI and define commercial terms for full deployment. |
Immediate next steps
Schedule a technical deep dive with engineering to review architecture and security.
Share a data-inventory template for mapping the partner's relevant data sources.
Prioritize the top 3 scenarios that matter most in the partner's operating context.
Q&A / Appendix
Thank you.
The appendix makes it easy to continue into technical review, governance review, or deeper design-partner discussion without rebuilding the narrative from scratch.
Name
[Name]
Title
[Title]
[Email]
Phone
[Phone]
Appendix slides available on request
References
Distribution-ready source list
- 1.World Bank. (2025). Global Economic Prospects, January 2025.
- 2.Lloyd's of London. (2024). Systemic Risk Scenario: Geopolitical Conflict and Global Trade Disruption.
- 3.UNCTAD. (2024). Review of Maritime Transport 2024.
- 4.World Bank. (2025). The Red Sea Shipping Crisis: Trade and Inflation Impacts.
- 5.Pal, K., and Yasar, M. (2024). Multi-Agent Reinforcement Learning for Transshipment. IEEE Transactions on Engineering Management.
- 6.Anand, R., and Prasad, A. (2024). Supply Chain Disruptions and Financial Conditions. Economics Letters.
- 7.Izquierdo, A., et al. (2022). Is Public Infrastructure Investment Productive? World Bank Policy Research Working Paper.
- 8.GFDRR / World Bank. (2019). Lifelines: The Resilient Infrastructure Opportunity.
- 9.UN ESCAP and ADB. (2024). Asia-Pacific Trade Facilitation Report 2024.
- 10.Global Infrastructure Hub. (2025). Global Infrastructure Outlook.
- 11.World Bank. (2024). Logistics Performance Index 2023/2024.
- 12.Bank for International Settlements. (2024). Stress Testing: Principles.
- 13.IMF. (2024). Geoeconomic Fragmentation and the Future of Trade.
- 14.Freund, C., et al. (2024). Improving Supply Chain Resilience. World Bank.
- 15.World Bank Group. (2017-2025). Maximizing Finance for Development Approach.