c-ECO Systemic Governance
Screening // Case Identification PortalIs This a c-ECO Case?
The c-ECO Systemic Governance Regime applies when three conditions converge: systemic risk, invisible lock-in, and continuous monitorability. This screening portal provides the diagnostic framework to identify whether your contract, operation, or institutional arrangement qualifies for c-ECO incorporation — and if so, which pathway to follow.
Operation affects or is affected by systems beyond direct control: ecosystems, supply chains, critical infrastructure, communities.
Dependence on assets, technologies, territories or relationships that are difficult to substitute, migrate or reverse.
Technically and financially viable to monitor continuously the critical variables (P, ΔV, σ, Lr).
The Three Tests
Apply these tests sequentially. A negative result at any stage indicates c-ECO does not apply, requires adaptation, or suggests alternative risk management frameworks.
Systemic Risk
Gate 1Question: Does the operation affect or is it affected by systems beyond direct control? (ecosystems, supply chains, critical infrastructure, communities, biophysical boundaries)
Base: ML Preamble — "systemic, cumulative, and potentially irreversible risk"; Art. 6-8 (Functional Integrity, Systemic Compatibility)
Invisible Lock-In
Gate 2Question: Is there dependence on assets, technologies, territories or relationships that are difficult to substitute, migrate or reverse? (high switching costs, path dependency, sunk costs)
Base: ML Art. 30 (Systemic Look-Through), Art. 32 (non-opposability of anti-systemic enforcement) — implies hidden dependencies
Monitorability
Gate 3Question: Is it technically and financially viable to monitor continuously the critical variables (Position, Velocity, Uncertainty, Reversibility Liquidity)?
Base: TFP Manual Part II — continuous monitoring as prerequisite; Art. 229 (technical public consultation for methodology)
RESULT: Three YES answers confirm c-ECO applicability
Any NO requires alternative approach or adaptation. Partial applicability possible with scoped monitoring or modified trigger architecture.
Red Flags — Early Warning Indicators
These six categories indicate high probability of c-ECO applicability. Presence of any red flag suggests deeper screening is warranted. Multiple flags strongly indicate systemic risk requiring c-ECO architecture.
Operation depends on or affects shared natural resources: water basins, biomes, aquifers, migration corridors.
TFP: P (SOS proximity), σ (rainfall/precipitation uncertainty)
Example: Mining in headwaters; agriculture in critical biome
Critical dependence on third-party infrastructure: cloud providers, satellite systems, AI models, proprietary platforms.
TFP: Lr (migration cost), ΔV (algorithm degradation speed)
Example: Fintech on AWS; logistics on GPS; core business on GPT
Interdependence with non-substitutable suppliers or customers: single source, geographic concentration, geopolitical exposure.
TFP: P (concentration risk), σ (geopolitical volatility)
Example: Semiconductors from single foundry; rare earth dependency
Cumulative effects with time lag: emissions with delayed climate impact, soil degradation, technology obsolescence.
TFP: ΔV (accumulation speed), Γ (inflection point)
Example: Carbon-intensive project; intensive agriculture
Impacts that cannot be remediated economically: species extinction, deep aquifer contamination, irreversible community rupture.
TFP: Lr → 0 (total irreversibility), automatic Black Band
Example: Endemic habitat destruction; indigenous displacement
Dependence on social license or presence of vulnerable communities: indigenous territories, conflict zones, essential service provision.
TFP: P (social pressure), σ (political instability), Lr (relocation cost)
Example: Project in indigenous land; water utility in favela
Contract Domain Mapping
c-ECO applies across diverse contract types. Each domain presents characteristic systemic risks and corresponding TFP variable emphasis:
Technology / AI / Cloud
Digital InfrastructureRisk: Obsolescence by AI, algorithmic risks, Big Tech dependency, outages, model collapse
TFP emphasis: ΔV (algorithm degradation velocity), Lr (provider migration cost), σ (model volatility)
ML clause: Art. 44-47 (Safe Mode for critical infrastructure failure)
Infrastructure / Energy / Mining
Physical AssetsRisk: Environmental, territorial, climatic, social — long-term asset exposure
TFP emphasis: P (SOS hydric/climatic proximity), σ (climate uncertainty), Lr (decommissioning cost)
ML clause: Art. 137-138 (Restoration First), Art. 176-187 (Restoration Providers)
Supply Chain Global
InterdependenceRisk: ESG violation in chain, disruption, concentration, geopolitical shock
TFP emphasis: P (geographic concentration), ΔV (destabilization speed), σ (geopolitical)
ML clause: Art. 15-22 (IEX for chain obligations)
Financial / Fintech
Systemic DigitalRisk: Digital systemic risk, technology interdependence, instant reputation damage
TFP emphasis: ΔV (digital bank run speed), Lr (contingency reserves), σ (cyber risk)
ML clause: Art. 44-47 (Safe Mode for payment infrastructure)
M&A / Venture Capital
Transaction RiskRisk: Hidden risks, chain exposure, data/AI liabilities, valuation uncertainty
TFP emphasis: P (target SOS exposure), Lr (divestment capacity), σ (valuation uncertainty)
ML clause: Art. 198-201 (statutory adherence for portfolio companies)
Public Contracts / PPP
Legitimacy & ContinuityRisk: Political, social, legitimacy crisis, essential service continuity
TFP emphasis: P (social license), σ (regulatory instability), Lr (service continuity cost)
ML clause: Art. 201 (regulatory submission), Art. 222 (technical arbitration)
Spatial Risk Dimensioning
Critical element absent from standard risk frameworks: risks propagate across space, not just time. c-ECO requires explicit spatial perimeter definition beyond physical boundaries.
Terrestrial Spatial Risks
Definition: Invisible ecological connectivity — subterranean water systems, biodiversity corridors, microclimates, migration routes.
→ Hydrogeological modeling (aquifer connectivity)
→ Ecological connectivity mapping (corridors)
→ Microclimate analysis (heat islands, precipitation)
Example: Mine 40km from indigenous reserve — no direct contact, but shared aquifer alteration triggers c-ECO applicability.
TFP adjustment: Extend P beyond physical perimeter; increase σ for coupled systems
Extra-Atmospheric Spatial Risks
Definition: Critical dependence on satellite infrastructure — positioning, communication, imaging, timing.
→ GNSS dependency mapping (GPS, Galileo, BeiDou)
→ Orbital congestion assessment (Kessler syndrome)
→ Constellation diversification analysis
Example: Fleet logistics on precision GPS — regional GNSS failure causes operational paralysis. c-ECO monitors service degradation.
TFP adjustment: Lr includes fallback technology cost; σ reflects space policy volatility
Decision Flow — Complete Path
Follow this sequence from initial suspicion to confirmed implementation:
Contract/operation presents territorial, technological, chain, temporal, irreversibility, or community indicators.
Does operation affect systems beyond direct control? YES → Continue | NO → c-ECO not applicable
Is there difficult-to-reverse dependence? YES → Continue | NO → Standard contracts sufficient
Can P, ΔV, σ, Lr be monitored continuously? YES → c-ECO confirmed | NO → Adapt scope or use precautionary regime
Pre-Implementation Readiness Checklist
Before c-ECO incorporation, verify these prerequisites are addressable:
SOS identification — relevant biophysical boundaries mapped (hydric, climatic, ecological, social)
→ TFP Manual, Sec. 3.1; ML Art. 6-8
Baseline P established — current position relative to SOS quantified
→ TFP Manual, Sec. 4 (Data Custodian procedures)
Acceptable ΔV defined — velocity thresholds for early warning
→ TFP Manual, Sec. 5 (Trajectory Risk Score)
σ bands calibrated — uncertainty treated asymmetrically
→ TFP Manual, Sec. 4.5 (QA/QC); ML Art. 2, 218
Minimum Lr set — reversibility liquidity threshold (typically ≥ 1.2)
→ TFP Manual, Sec. 9; ML Art. 112-120
Data Custodian candidates identified — certifiable agents available
→ Hasse Foundation (certification); TFP Manual, Sec. 5-6
Financial guarantees structureable — Lr backing available
→ ML Art. 112-120 (Systemic Solvency)
Restoration Provider contingency list — 3+ pre-certified options
→ ML Art. 185-186; TFP Manual, Part VIII
Incorporation mechanism selected — contractual, statutory, or regulatory
→ ML Art. 198-201
Arbitration mechanism designated — Technical Curatorship Chamber identified
→ ML Art. 222; Hasse Foundation
Next Steps — Integration with c-ECO System
Once screening confirms c-ECO applicability, proceed to specialized documentation:
Operational Procedures
Γ = f(P, ΔV, σ, Lr), Data Custodians, Calibration Council, trigger catalogue, bands
Use for: Variable mapping, sensor specification, score calculation
Legal Architecture
IEX, Safe Mode, Restoration First, Systemic Perclusion, incorporation, arbitration
Use for: Clause drafting, legal effects, dispute resolution
Protocol Stewardship
Agent certification, independence supervision, Technical Curatorship, continuity
Use for: Certifying Custodians, designating arbitration, governance
Screening → TFP (technical) → ML (legal) → HF (stewardship) → Implementation