AI can’t negotiate a Ukraine–Russia deal, but it can verify, deter cheating, and tie sanctions relief to measurable compliance. See how a 15-point framework maps to AI.
AI Can Stress-Test a Ukraine–Russia Peace Framework
Negotiations don’t fail because diplomats “didn’t try hard enough.” They fail because the inputs are wrong, the incentives are misread, and verification is treated as an afterthought.
That’s why Ryan Evans’ 15-point settlement framework for Ukraine and Russia is useful beyond the immediate politics of any “peace plan.” It’s built around a practical idea: agree on principles and process first, then fight through the hardest details with a structure that can actually hold. If you work in defense, national security, intelligence, or security policy, the interesting question isn’t whether you like every clause. It’s whether the framework can be made robust.
Here’s my take: AI won’t negotiate peace, but it can dramatically improve the odds that a settlement survives contact with reality. In the “AI in Defense & National Security” series, this is exactly the kind of problem where machine learning, decision support, and high-integrity monitoring can reduce ambiguity, detect cheating early, and keep diplomacy tied to measurable conditions.
Why process beats “grand bargains” (and where AI fits)
A settlement framework works when it separates what’s urgent (stopping large-scale killing) from what’s hard (sovereignty, borders, justice). Evans’ key move is the explicit separation of ceasefire lines from legal border recognition, paired with a longer diplomatic track to determine final status.
That’s not idealism. It’s what you do when neither side can get everything it wants and everyone knows it.
AI fits here because process lives or dies on three things:
- Common operating picture: Who controls what, who violated what, and what changed since yesterday.
- Credible verification: Not vibes—evidence that holds up in allied capitals and in public.
- Incentive design: Sanctions relief, security guarantees, and reconstruction tied to observable compliance.
If you want a “principles first” approach to stick, you need measurement and memory—two things modern AI systems can support when used correctly.
Security architecture: AI strengthens guarantees by making them measurable
Evans’ first five points focus on a mutual security treaty: conventional force limits, buffer zones, enforceable guarantees, and nuclear safety protocols.
The biggest weakness in many security guarantees isn’t the paper. It’s the ambiguity. AI helps by tightening what “compliance” means.
Conventional force limits: from declarations to detection
Answer first: AI improves conventional arms control by automating detection of force concentrations, logistics surges, and equipment movement patterns that human analysts can’t track at scale.
In practice, enforcement depends on recognizing precursors to offensive action:
- Rapid bridging and engineering activity
- Fuel and ammo stockpiling
- Air defense repositioning
- Rail and convoy tempo changes
Machine learning models can fuse commercial satellite imagery, SAR (synthetic aperture radar), signals metadata, and open-source indicators into early-warning alerts that are:
- faster than traditional reporting cycles,
- more consistent across regions,
- and easier to audit after the fact.
This matters for point 2 (force ceilings) and point 4 (buffer zones). A demilitarized zone is only as real as your ability to prove when it’s being hollowed out.
Buffer zones and demilitarized lines: the “gray zone” problem
Answer first: Buffer zones fail when violations stay small, frequent, and deniable; AI helps by turning a stream of minor incidents into a clear statistical pattern.
Most ceasefires don’t collapse from one massive breach. They collapse from hundreds of pinpricks—a drone launch here, an EW jammer there, an “accidental” artillery strike that no one can attribute.
AI-enabled monitoring can flag:
- anomalous drone launch activity,
- repeated GPS spoofing corridors,
- artillery crater pattern clusters,
- and recurring incursions at the same coordinates.
A useful design principle: treat ceasefire monitoring as anomaly detection, not just incident reporting.
Nuclear safety: AI as a guardrail, not a decision-maker
Point 5 calls for protocols around nuclear energy facilities under international supervision.
Answer first: AI supports nuclear facility safety by improving anomaly detection in sensor data and by accelerating incident triage, while keeping humans firmly in control of escalation decisions.
Where AI helps responsibly:
- detecting abnormal heat signatures, pressure shifts, or power cycling patterns,
- identifying damage signatures after strikes,
- prioritizing inspections based on risk scoring.
Where it should not be used: automated attribution and retaliatory decision chains. In nuclear-adjacent contexts, speed is not always your friend.
Territorial status and sovereignty: AI can reduce miscalculation
Evans’ point 6 is the centerpiece: freeze the fighting without forcing immediate recognition of territorial claims.
Answer first: AI reduces miscalculation during provisional ceasefires by establishing a shared, time-stamped record of territorial control and military movement.
A “frozen line” sounds straightforward until you try to define it:
- Which map projection is authoritative?
- What counts as “control”—patrol presence, administration, or continuous occupation?
- How do you treat salients, islands, and river crossings?
AI-enabled geospatial change detection can produce versioned maps with:
- confidence intervals (what’s known vs. inferred),
- provenance (which sensors support the claim),
- and a dispute log (what each side contests).
This doesn’t solve sovereignty. It prevents arguments about basic facts from becoming artillery.
Minority rights: AI helps document conditions—but it cuts both ways
Point 7 calls for minority protections aligned with international standards.
Answer first: AI can document discrimination and rights violations at scale, but it can also enable surveillance abuses; any monitoring regime must be tightly governed.
Potential constructive uses:
- NLP analysis of local legislation and administrative orders
- Pattern detection in school closures, language policy enforcement, or property seizures
- OSINT corroboration of forced displacement indicators
Risks you can’t ignore:
- mass surveillance under the guise of compliance
- automated targeting of activists
- misinformation campaigns falsely “proving” violations
If minority rights become part of the settlement architecture, the monitoring design needs privacy constraints, auditability, and nonpartisan oversight—not just more data.
Humanitarian and justice provisions: AI can speed reunification and accountability
Points 8 and 9 address POW exchanges, civilian detainees, family reunification, and a differentiated justice mechanism.
All-for-all exchanges: identity resolution is the bottleneck
Answer first: AI accelerates POW and civilian reunification by improving identity matching across messy, incomplete, and multilingual records.
Real-world exchange logistics often choke on:
- inconsistent spellings and transliteration,
- missing birth records,
- duplicate identities,
- and deliberate obfuscation.
Entity resolution models (with human review) can reconcile:
- name variants,
- biometrics where lawfully collected,
- family relationship graphs,
- and location histories.
That speeds the humanitarian “wins” that build momentum for the larger deal.
War crimes and command responsibility: assistance, not automated verdicts
Point 9 is morally brutal but diplomatically realistic: separate combatant amnesty from command responsibility, with carve-outs to enable a durable settlement.
Answer first: AI supports war crimes documentation by organizing evidence and detecting patterns, but legal judgment must remain human-led and transparent.
Useful applications:
- triaging massive video/image archives
- geolocating and time-matching incidents
- linking unit presence to incident clusters
Danger zones:
- “black box” models that can’t be explained in court
- deepfakes contaminating evidentiary pipelines
- automated attribution presented as certainty
If you’re building an accountability mechanism into a settlement, the AI requirement is simple: traceability beats sophistication. Courts and commissions need explainable workflows.
Sanctions, reconstruction, and compliance: tie incentives to data
Evans’ economic points (10–13) treat reconstruction and sanctions relief as conditional, phased, and linked to verification.
That’s the right instinct. The mistake many policymakers make is offering relief based on promises, not performance.
Sanctions relief: AI improves enforcement and “cheating” detection
Answer first: AI strengthens sanctions policy by identifying evasion networks through anomaly detection in trade, shipping, and financial patterns.
Common evasion signals include:
- unusual rerouting and transshipment spikes
- shell-company graph structures
- insurance and flag-hopping patterns
- component import anomalies tied to weapons production
When sanctions relief is phased (point 12), monitoring can be designed as a compliance scorecard with clearly defined triggers:
- Verified heavy weapon withdrawals
- Sustained ceasefire incident rates below threshold
- Access granted to monitors
- Adherence to navigation guarantees
This turns diplomacy into something trackable, not theatrical.
Reconstruction ROI: AI helps prioritize what actually reduces risk
Point 10 emphasizes investment models, not endless aid.
Answer first: AI supports reconstruction by prioritizing projects that reduce security risk and restore economic throughput—power, transport, and logistics first.
A practical approach I’ve seen work: treat reconstruction as a sequence of network restorations:
- electrical grid stability
- rail and port throughput
- hospital and water resilience
- communications redundancy
AI-driven optimization can rank projects based on:
- population impact,
- time-to-recovery,
- vulnerability to sabotage,
- and cross-border economic spillovers.
This matters for national security because economic fragility is an invitation to renewed coercion.
Monitoring and verification: the settlement’s real center of gravity
Points 14 and 15—monitoring and dispute resolution—sound bureaucratic, but they’re the deal’s load-bearing walls.
Answer first: AI makes monitoring credible when it produces evidence that is auditable, shareable with allies, and resistant to manipulation.
A modern verification stack can include:
- multi-sensor fusion (imagery + SAR + RF + OSINT)
- tamper-evident logging for incident reports
- automated alerts with human adjudication
- structured dispute workflows (what happened, when, where, confidence level)
The goal isn’t perfect truth. It’s actionable truth—good enough to prevent escalation and to keep incentives aligned.
A peace process doesn’t need omniscience. It needs fewer places to hide.
What defense and national security leaders should do now
If you’re responsible for AI in defense, intelligence modernization, or national security strategy, a Ukraine–Russia settlement framework suggests a clear implementation roadmap.
- Build AI systems around verification, not prediction. Prediction is sexy; verification is what keeps ceasefires from collapsing.
- Design for audits from day one. If you can’t explain how an alert was generated, don’t base sanctions relief or military posture on it.
- Invest in multilingual, cross-domain data fusion. Territorial control, humanitarian exchange lists, and sanctions evasion networks all break when data stays siloed.
- Harden against deception. Deepfakes, spoofing, and synthetic OSINT aren’t edge cases in 2025—they’re baseline threats.
- Keep humans responsible for escalation decisions. AI should narrow uncertainty, not make the call.
Where this leaves the “15 points” idea
Evans’ framework is a reminder that durable settlements are built from boring things: sequencing, verification, enforceability, and incentives that don’t collapse under domestic politics.
From the perspective of AI in defense and national security, the opportunity is straightforward: use AI to turn settlement language into measurable commitments, and to make cheating more expensive than compliance.
If you’re thinking about how AI can support diplomacy in high-stakes conflicts, start here: what would it take to monitor a ceasefire line every day, prove violations with evidence allies accept, and trigger economic consequences without weeks of argument? That’s the difference between a document and a deal.
If your organization is building AI-enabled intelligence analysis, autonomous monitoring, or sanctions enforcement tools, this is the moment to pressure-test them against real settlement mechanics—not demo scenarios. The next negotiation cycle won’t be short of proposals. It’ll be short of credible implementation.