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Deep Dive · Water & Utilities

The Evidence Map for Industrial AI Value

The action layer behind the core verdict: how to fund AI that changes a measurable physical loop, and screen out the generic-copilot POC before it stalls.

Source  Storm Research v2 Verification  17 citation clusters checked Prepared for  Leader discussion
How to use this

Use this as a pre-spend diagnostic for any industrial or infrastructure AI proposal. The question is not whether the model is impressive. The question is whether the initiative can name the exact alarm, dispatch, maintenance order, or control-room decision that changes after go-live, who owns the result when the model is wrong, and the physical metric it moves. Value lives in a bounded operating loop with trusted data and an accountable owner. AI can change that loop; it cannot substitute for it.

Gates before you fund a pilot

01
Start with a named physical constraint, not an AI use case.

Require the sponsor to choose one metric: outage duration, unplanned downtime, OEE, quality escapes, energy intensity, truck rolls, leak loss, safety incidents, permit cycle time, inventory turns, or work-order accuracy. "Improve productivity" is not enough.

02
Make the day-after-go-live workflow visible before buying.

Name the exact screen, alarm, maintenance order, dispatch queue, crew briefing, shift handoff, or control-room decision that changes. If the model output does not enter a live operating loop, it is a demo.

03
Run a data-lineage proof before model selection.

Pick 20 real historical cases and trace whether the sensor tags, asset hierarchy, maintenance notes, inspection records, failure labels, weather and load context, and operator decisions are findable and trusted. Do this before vendor demos.

04
Assign one accountable operating owner, not a committee.

The owner keeps the golden cases, signs the eval standard, decides when the model is wrong, and owns the handoff to frontline training. IT can govern the platform; the business must own the delegated work.

05
Sequence from advisory to assisted action to constrained automation.

In regulated or safety-critical contexts, begin with inspection, planning, retrieval, anomaly triage, or human-approved work orders. Move toward closed-loop control only after logging, human oversight, rollback, cybersecurity, and assurance gates are proven.

06
Price the hidden work before approving the pilot.

Add the cost of data cleanup, OT access, cyber review, operator training, model monitoring, legal and compliance review, change management, and maintenance. If the business case only counts software and model cost, it is underwritten to disappoint.

Owner, briefing, proof

Owner

One accountable operating owner, not a committee, for each initiative. The owner keeps the golden cases, signs the eval standard, decides when the model is wrong, and owns the handoff to frontline training.

Briefing

A pre-spend decision brief per proposal: the named physical metric, the day-after workflow, the data-lineage proof, and the assurance path, so a paid pilot is funded only when the operating loop is real.

Proof

The chain from a named physical constraint to trusted data to a live operating decision to a finance- or reliability-controlled result, with baseline and comparison, not a demo.

Where to start

Start with the pre-spend diagnostic on one proposed loop: metric, data, owner, assurance. If the gap is material, widen to a readiness look that designs the operating change across the candidate loops, and build the machinery and the receipts only when the enterprise wants them run.

Claim ledger

17/17
Checked
citation clusters traced to primary or directly retrieved pages
0
Fabricated
no invented figures found
2
Corrected
qualified after source review
7
Demoted
useful signals kept out of the headline
ConfirmedIEA, "Energy and AI" (2025): AI-based grid fault detection can reduce outage duration 30-50%, and dynamic line rating could unlock roughly 115-175 GW of existing transmission. Official analysis of potential, not guaranteed utility ROI.iea.org
ConfirmedRAND (2024), 65 practitioner interviews: solving the wrong problem, poor workflow fit, and missing data beat model quality as failure causes. The 80%-plus failure figure is a cited estimate, not RAND's own rate.rand.org
ConfirmedMcKinsey, State of AI (2025): AI high performers are about 6% of respondents; enterprise bottom-line impact stays rare; value tracks workflow redesign and senior-leader ownership.mckinsey.com
ConfirmedBCG, "Build for the Future" (2025): roughly 5% future-built, 35% scalers, 60% laggards across 1,250 executives. A consultant survey, useful directionally, not causal proof.bcg.com
ConfirmedUS Census Bureau (2026): business AI use ran about 17-20% overall and about 37% at firms with 250-plus employees. Adoption context, not outcomes.census.gov
ConfirmedNIST SP 800-82 Rev. 3: OT security must account for the performance, reliability, and safety requirements of systems that interact with the physical environment.csrc.nist.gov
ConfirmedEU AI Act (2024/1689): AI safety components in water, gas, heating, electricity, road traffic, and critical digital infrastructure are high-risk under Annex III / Article 6, subject to the Article 6(3) derogation.eur-lex.europa.eu
ConfirmedGoogle / DeepMind (2016): 40% cooling-energy and 15% PUE-overhead reduction in a live data center. Confirmed from the official source, but self-reported, not independently audited.blog.google
CorrectedIndustrial-AI data-readiness evidence (72 data issues across the lifecycle): a preprint meta-review, corrected from a settled field-wide measurement down to strong support for the mechanism.arxiv.org
CorrectedThe working sequence (constraint → data proof → human loop → integration → scale): corrected from a proven cross-industry recipe down to a sequencing hypothesis, because much industrial evidence is preprint or single-site.arxiv.org
DemotedOEE forecasting study (at least 17% forecast-accuracy and 7.4% total OEE improvement): single-facility preprint evidence, not cross-sector proof.arxiv.org
DemotedWind-turbine SCADA predictive maintenance (150 turbines, 283 MW, some anomalies up to two months early): conference/preprint evidence from a single operator context.arxiv.org
DemotedSteel-industry predictive-maintenance survey (219 papers, thin production evidence): documents the algorithm-versus-production gap, not proof of returns.arxiv.org
Demoted"95% of GenAI pilots fail" (MIT NANDA, media-reported): the primary source was not located this pass and the figure is not industrial-specific. Directional warning only.tomshardware
DemotedMedia-reported smart-sewer sensor program: an illustrative deployment; the primary utility source was not found this pass.ft.com
DemotedMedia-reported factory AI quality-inspection deployment: an illustrative manufacturing example, not a verified ROI proof.businessinsider
DemotedTask-level GenAI productivity gain (about 15% for support agents): real causal evidence, but not asset-heavy, so kept out of the industrial headline.arxiv.org
Where the evidence stops

Some strong figures here are potential, not guaranteed ROI. Grid-application ranges and cooling-energy reductions are real cases that shouldn't be generalized to every system. Media anecdotes aren't proof of returns; keep them illustrative. And "data readiness" doesn't mean a multi-year governance program before any value; it means the specific data behind the one loop you're changing. The widely-shared "95% of pilots fail" figure is not industrial-specific and is not asserted here.

What would change our mind
Deep Dive staged from verified Storm Research v2 · nothing here asserts above the registry calibration