Working Paper No. 013 · Domain D-1 · D-3 · D-4

Open Working Draft · Subject to Revision
Domain: D-1 · D-3 · D-4 Status: Open Working Draft Version: 1.0 · April 2026 Language: EN

Two Scenarios 2030: Institutional Delay as Structural Risk

Scenario A: nothing changes. Scenario B: three corrections initiated. The central finding is not technical — it is temporal.

Abstract This paper constructs two scenarios for Finland's energy system and household conditions in 2030 — one in which institutional action continues at historical tempo, one in which three identified corrections are initiated in 2026–2027. The scenarios are not forecasts; they are diagnostic constructions whose purpose is to make visible what happens if the current trajectory continues, and what changes if specific corrections are made. The paper's central finding is that even if all three corrections are initiated immediately, their full effect will not be visible by 2030. Finnish energy policy's historical decision-to-implementation horizon is 3–8 years. Institutional delay is not an obstacle to be overcome — it is itself a structural risk that must be named and planned for.
Cite as: Aether Continuity Institute (ACI). (2026). Two Scenarios 2030: Institutional Delay as Structural Risk. ACI Working Paper No. 013, v1.0. Available at: https://aethercontinuity.org
Cross-references: WP-001 · WP-003 · WP-005 · DA-001 · DA-003 · SP-001 · CN-003 · DA-007
§ 01

Why scenarios

ACI's diagnostic work identifies a weakness common to most warning analyses: they describe the problem but leave the decision-maker without a reference point for comparison. A warning without an alternative scenario is difficult to act on — it can be acknowledged, filed, and deferred.

This paper addresses that gap directly. Two scenarios are constructed for the same point in time — 2030 — under two different institutional conditions. The comparison makes the cost of delay visible in concrete terms rather than abstract warnings.

Two conditions govern the construction of both scenarios.

First: institutional delay is treated as a structural constant, not a variable. Finland's historical energy policy decision horizon — from identified need to implemented change — is 3–8 years. OL3 (Olkiluoto Unit 3) required two decades from decision to operation. The Loviisa fuel supplier change took years despite being a familiar process. Electricity market law changes typically require 3–5 years from proposal to entry into force. This is not a criticism; it is a structural feature of a governance system designed for consensus, legal certainty, and democratic participation. The scenarios take it as given.

Second: both scenarios use the same stress test. SP-001's calibrated P99 event: 72 hours of low-wind conditions, outdoor temperature −15°C, data centre load at full capacity. This is a rare but not exceptional winter configuration. It occurs with low frequency but non-negligible probability in any given year.

§ 02

Shared baseline: Finland 2026

Both scenarios depart from the same observed conditions.

Electricity consumption has grown from 83 TWh toward a projected 100–110 TWh as data centres and electrification of heating expand demand. Wind power now supplies over 50% of domestic production in annual terms but is fully weather-dependent. Hourly price volatility is among the highest in the EU. Dispatchable reserve has not grown proportionally to demand. Battery storage covers approximately 9.5 minutes of Black Period energy requirements.

District heating prices have risen 32% since 2020. Electricity transmission fees are rising as infrastructure investment programmes are passed through to consumers. Energy poverty affects 7–15% of households by multi-indicator measures. For the lowest income quintile, necessity costs — housing, energy, food — already consume approximately 57% of net income.

Sovereign debt interest payments are 3.5 billion euros and rising. Defence expenditure is 6.7 billion euros and committed to grow substantially. The budget deficit is 12 billion euros. Fiscal space is historically narrow.

Kuopio Energy's SMR project is in pre-feasibility phase. No investment decision has been made, no plant supplier selected, no contingency plan published. Haapaniemi 2 approaches operational end-of-life in 2035. Fingrid reports adequacy in megawatts. Not in megawatt-hours. No institution owns the complete picture.

§ 03

Scenario A — Nothing changes (2030)

Scenario A · Institutional tempo unchanged

Scenario A describes the trajectory if institutional action continues at historical tempo. This is not a scenario of failure or negligence — it is the expected outcome of rational sectoral governance in the absence of coordinating intervention.

Energy system 2030

Wind capacity has grown as planned. Annual production balance approaches self-sufficiency when measured at year-level aggregation — this is the figure most commonly reported. At hourly resolution, the University of Oulu (AIMS Energy 2025) finds Finland electricity-negative 61% of annual hours.

Dispatchable reserve has not grown proportionally. Global supplier backlogs have extended delivery timelines; equipment ordered in 2026 is not fully operational by 2030. Kuopio Energy's SMR is, in the best case, in licensing review awaiting a parliamentary in-principle decision. Haapaniemi 2 approaches end-of-life. Electric boilers are the likely interim measure — adding thermal load to the electricity system precisely at winter peak.

System endurance under SP-001's stress test: approximately 38 hours at current reserve extension rate. The 72-hour threshold has not been reached.

The stress event — January 2030

An anticyclone settles over Scandinavia. Wind output falls below 10% of installed capacity. Outdoor temperature reaches −17°C for three consecutive days. Data centres draw at full capacity under contractual priority arrangements.

Spot prices rise. In the first hours, 50–100 €/MWh. As reserves approach limits and import capacity saturates — the same anticyclone affects neighbouring systems — prices reach 200–500 €/MWh for a period of hours. Households on spot-indexed contracts face heating bills that are multiples of normal. Households on district heating face no immediate bill shock — their annual statement arrives months later.

Household conditions 2030

For the lowest income quintile, necessity costs consume 65–70% of net income. Fixed-price electricity contracts carry 15–18 cent/kWh risk premiums. District heating bills are 30–50% higher than 2025. Real wages are flat or marginally negative in real terms. No effective automatic protection mechanism exists for district heating captive customers.

Diagnostic state — Scenario A

DA-001 trajectory: Concern moving toward Danger. Signals S1–S5 all active. The intervention window has narrowed substantially but has not closed. Political pressure is growing but institutional response follows the crisis rather than anticipating it.

§ 04

Scenario B — Three corrections initiated (2030)

Scenario B · Three corrections initiated 2026–2027

Scenario B describes the trajectory if three identified corrections are initiated in 2026–2027. They are not complete by 2030 — institutional delay is a constant, not a variable. But they have changed the system's trajectory and diagnostic state.

Correction 1 · Diagnostic transparency What changes: Fingrid publishes, alongside conventional capacity figures, an endurance index — how long the system can sustain Black Period conditions at current reserve configuration. Updated quarterly. Independently validated by VTT or equivalent.

What this does not change: Not a single megawatt of installed capacity. Not a single euro of investment.

What changes as a result: The political frame shifts. When the headline figure changes from "Finland has sufficient electricity" to "Finland's system endurance under winter stress is 38 hours against a 72-hour target", the pressure to act has a specific, measurable reference point. Three gas turbine projects are under procurement — not yet operational, but the pipeline exists. System endurance has risen to approximately 52 hours through combined measures.
Correction 2 · Demand flexibility contracts extended What changes: Fingrid's reserve market contract requirements include a duration tier for the next contracting cycle. Industrial demand flexibility commitments specify a graduated structure: 0–6 hours (rapid response), 6–24 hours (process ramp-down), 24–48 hours (minimum load). Longer commitment earns better pricing — resolving the commercial resistance point.

What this does not change: Installed industrial capacity. The total megawatts available for demand response.

What changes as a result: Usable duration of existing demand flexibility shifts from 4–6 hours to 36–48 hours. Under SP-001 parameters, this is equivalent to approximately 800 MW of effective additional reserve capacity in duration terms. The first 36 hours of the stress event are substantially more manageable.
Correction 3 · Municipal contingency plan obligation What changes: The Energy Authority requires district heating operators in municipalities above 50,000 residents to publish a contingency plan for scenarios in which the primary production source is delayed or unavailable for more than 24 months. The plan must specify: a named alternative supply arrangement covering the equivalent of a 72-hour Black Period, a cost impact assessment for each scenario, and an annual update requirement submitted to the Energy Authority or to Luova (the national licensing and supervisory authority, which assumed AVI's functions on 1 January 2026).

What this does not change: Production infrastructure. The underlying technology risk of SMR pre-commercialisation.

What changes as a result: Kuopio Energy has publicly documented its Plan B. Residents know what happens if the SMR is delayed. Political pressure is targeted rather than diffuse. Luova has visibility across all major district heating operators nationally — the first time this systemic view has existed.

The stress event — January 2030, Scenario B

Same anticyclone. Same temperature. Same data centre load. But the system's starting position is different.

Endurance under the stress test: approximately 52 hours. Industrial demand flexibility is active for 36 hours. The critical window — when the system is most exposed — is compressed from 72 hours to approximately 20 hours at the tail.

The price spike still occurs. The 72-hour event still exceeds the system's reserve duration. But the severity and duration of the most acute phase is substantially reduced. Social and economic costs are lower — not zero.

Household conditions 2030 — Scenario B

Household energy costs are identical to Scenario A. The three corrections address system endurance and institutional transparency — not the distributional asymmetry. DA-007 identifies the instrument gap that Scenario B's corrections do not fill. District heating captive customers are not specifically protected by any of the three corrections.

This is the critical asterisk in Scenario B: system-level resilience has improved. Household-level protection has not changed. These require different instruments.

Diagnostic state — Scenario B

DA-001 trajectory: Concern — movement toward Danger has slowed. Signals S1 and S2 remain active; S3 has weakened as diagnostic transparency creates political accountability; S4 and S5 unchanged. The intervention window is wider than in Scenario A. The structural problem has not been solved — the conditions for solving it have been created.

§ 05

Scenario comparison

Indicator Scenario A Scenario B
System endurance (hours) ~38 ~52
P99 critical hours/year (est.) 6.5 ~3–4
Political awareness of endurance gap Low Moderate — indexed, public
Household protection (district heating) Unchanged Unchanged *
Contingency plans published Absent Mandatory — major operators
Intervention window Narrow Wider
Dispatchable capacity pipeline Slow Active — not yet operational

* The asterisk is the central diagnostic gap: the three corrections improve system-level resilience but do not address household distributional exposure. Household-level protection requires DA-007's instrument conditions — a separate policy action not covered by these three corrections.

§ 06

Institutional delay as the primary finding

Institutional delay is not a governance failure. It is a structural property of systems designed for democratic accountability, legal certainty, and consensus. It becomes a risk when the physical window for low-cost intervention closes faster than the institutional decision cycle allows.

Finland's energy policy history is consistent on this point. The decision to build OL3 was made in 2002; the reactor reached commercial operation in 2023 — twenty-one years. The Loviisa fuel supplier change was a known process that took years. Haapaniemi 2's replacement requirement has been visible for years; no alternative is operationally confirmed.

WP-003's Institutional Termination Time framework identifies the point at which institutional response latency exceeds the remaining system adjustment horizon. When that ratio reaches zero, governance loses causal influence over outcomes regardless of whether resources, authority, or analytical knowledge remain intact.

Core finding If all three corrections are initiated in 2026, their full effect will not be visible by 2030. The value of initiating them now is not that they solve 2030 — it is that they create the preconditions for 2033 to be materially better than it would otherwise be. The system is slow. The argument for acting now is precisely that the system is slow.
§ 07

Falsification conditions

§ 08

What follows

Three gaps remain unaddressed by this paper.

The first is household-level protection. The comparison table's asterisk — that neither scenario changes household distributional exposure — is the central unresolved problem. DA-007 specifies the structural conditions for an effective instrument. The instrument itself has not been designed or proposed. That requires a political actor with ownership of the problem.

The second is the behavioural model. Households in this paper are passive — they absorb costs but do not adapt. This is analytically tractable but probably wrong. People move, reduce consumption, change heating systems, vote differently. A dynamic model of household response would change both scenarios.

The third is political agency. Who initiates the three corrections? Who calls Fingrid's leadership? Who writes the Energy Authority's guidance letter? Who schedules the cross-ministry coordination? WP-013 identifies what needs to happen. It does not identify who makes it happen. That is DA-008's question.

"Initiating three corrections today does not rescue 2030. It builds the preconditions for 2033 to be materially different from what it would otherwise be. The system is slow. That is precisely why the argument for acting now is strongest."
Annex 1 · Institutional map — three corrections and their owners

Version 1.1 · Updated for 1 January 2026 administrative reform

Note: The Regional State Administrative Agencies (AVI) were dissolved on 1 January 2026. Their relevant functions transferred to the new National Licensing and Supervisory Authority (Luova). This map reflects the post-reform institutional landscape.

Institution
K1
K2
K3
Role
Fingrid Oyj
●●●
●●●
·
Owner K1 + K2
Energy Authority
●●
●●
●●●
Owner K3; supporter K1+K2
TEM (Ministry of Economic Affairs)
●●
Guidance authority — all three
Luova (Nat. Licensing & Supervisory Authority)
·
·
●●
Alternative owner K3; national mandate
Association of Finnish Local Authorities
·
·
Political influence on municipalities

●●● owner · ●● supporter/alternative · ● influencer

Minimum path to initiate all three corrections

StepActionTimeline
1 Fingrid board or CEO decides to publish endurance index alongside conventional capacity reports 3–6 months · K1 initiated
2 TEM issues guidance letter to Fingrid, Energy Authority, and Luova on endurance reporting, reserve contract duration requirements, and contingency plan obligations Concurrent · K1 confirmed, K2 and K3 mandated
3 Energy Authority issues interpretation on district heating operator reporting — contingency plan obligation added to annual reporting requirements, coordinated with Luova 6–12 months · K3 initiated
4 Fingrid's next contracting cycle includes duration-tier requirement for demand flexibility — graduated structure (0–6h / 6–24h / 24–48h) with corresponding price differentiation 12–18 months · K2 initiated

Four actions. Three institutions. No new legislation required.
Realistic timeline if initiated in 2026: K1 visible 2027 · K3 visible 2027–2028 · K2 visible 2028–2029.
Full effect: 2028–2030.

Annex 2 · ACI's own limit: the ITT of a diagnostic institution

This paper identifies what needs to happen and names who must act. It does not — cannot — be the actor that makes it happen.

ACI operates as a diagnostic institution: it identifies, names, and publishes. It does not advocate, lobby, or implement. This position has protected the analytical credibility of the work. It is also a structural limit that this paper must name explicitly.

The three corrections described above are low-cost, technically straightforward, and address a documented gap. They have not happened because no institution owns the compound problem. ACI can document the gap. It cannot fill it. Filling the gap requires a political actor willing to take ownership of a problem that currently has no institutional home.

An analysis that identifies the coordination gap but cannot produce the coordinator faces its own version of the ITT condition: the diagnostic is complete, the action window is open, and the causal link between diagnosis and action depends on a variable — political agency — that the diagnostic institution cannot supply.

This annex is included not as an admission of failure but as an honest accounting of what a diagnostic institution can and cannot do. The value of the diagnosis does not depend on ACI being the one to act on it. It depends on someone acting on it.