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GRF · Innovation Nexus

AI as subject and tool in innovation governance

Artificial intelligence is both a subject of this platform's governance work and a tool within it. As a subject, its capabilities, failure modes and deployment conditions define what regulators and standards bodies must address. As a tool, classifiers and language models help code large bodies of policy text and patents, under human review.

01Register

Key facts.

Method recordSTEM method
  1. MethodArtificial intelligence and machine learning
  2. Applied inInnovation Nexus
  3. Canonical pageSTEM Commons
02Application

What artificial intelligence and machine learning does here.

Artificial intelligence and machine learning develop algorithms that learn patterns from data to classify, predict or generate outputs. They are increasingly used for hazard detection, forecasting and decision support, and are themselves a source of risk. In innovation, artificial intelligence and industry and robotics, machine learning can scale detection and forecasting across interconnected systems. Its own failure modes must be weighed when automated outputs inform consequential decisions. The canonical description is on the STEM Commons.

Coding policy and legal texts

Classifiers and language models tag national AI strategies, regulations and standards by topic, obligation and actor, with a sample double-coded by people and disagreement reported beside the result.

Mapping patents and papers to technologies

Text models link patent families and publications to emerging technology domains, so diffusion and convergence can be traced where classification codes lag behind the field.

Comparing evaluation practice

Benchmarks, red-teaming protocols and model documentation are compared with the requirements of ISO/IEC 42001, the NIST AI RMF and the EU AI Act, showing where practice and obligations align and where they diverge.

03Monitor

Model training.

The screen a team would use to follow this method: its measures, states and decisions. Names are examples and values are illustrative.

Model training

Innovation · AI as subject and tool · Run R-6239

Drift on one sliceGRF · Innovation Nexus

Evaluation by slice

All0.800.025478Pass
Region A0.860.051696Pass
Region B0.640.09558Review
Rare class0.650.13113Below bar

Method card

Method
Artificial intelligence and machine learning
Split
time-based, no leakage
Features
55
Label
MODELLED

Population stability

Model training: the screen's structure, terms and states for Innovation.Example names and illustrative values; a design, not a record or a live system.
04Data

What the method consumes.

Datasets and records used by artificial intelligence and machine learning on this platform, with the role each plays and the label its values carry. Sources are listed in the source register.

DataRoleLabel
Policy and legal text corporaTraining and test material for text codingPublished statistics
Patent full texts and classificationsTechnology mapping and diffusion tracingPublished statistics
Model documentation and safety frameworksComparison of developer practiceDECLARED
Benchmark and evaluation resultsCapability and risk trackingREPORTED
Hand-coded validation samplesReference for classifier accuracyOBSERVED
05Policy scenarios

Compare instruments: rules, incentives and information.

Three families of instruments side by side against the baseline, each with its own lag and adoption speed, under the coverage and compliance you set; effect sizes are teaching values to replace with evidence. Scenario: named assumptions about the future, not a forecast.

Controls

Baseline trend of the outcome
2.0% a year
Coverage of the instrument
70%
Compliance
75%
Effect size, against the teaching value
100%
Years ahead
20 years

Readouts

Largest reduction at the horizon
Regulation
Its reduction against the baseline
21%
Numbers, methods and sources
YearBaselineRegulationEconomic incentiveInformation and capacity
0100.099.598.899.1
1102.0101.2100.199.8
2104.0102.5101.199.9
3106.1103.5101.6100.0
4108.2103.7101.8100.7
5110.4103.2101.7102.1
6112.6102.0101.6103.9
7114.9100.4101.6105.9
8117.299.2102.1108.0
9119.598.6102.9110.1
10121.998.9104.2112.3
11124.399.7105.7114.5
12126.8101.1107.4116.8
13129.4102.7109.4119.2
14131.9104.5111.4121.6
15134.6106.5113.5124.0
16137.3108.5115.7126.5
17140.0110.7118.0129.0
18142.8112.9120.4131.6
19145.7115.1122.8134.2
20148.6117.4125.2136.9

Methods

  1. Tools of government Hood (1983), The Tools of Government, Macmillan
  2. Carrots, sticks and sermons Bemelmans-Videc, Rist and Vedung (1998), Transaction
  3. Diffusion of innovations Rogers (2003), Diffusion of Innovations, Free Press
  4. Uncertainty fan (parameter Monte Carlo) Spiegelhalter, Pearson and Short (2011), Visualising uncertainty about the future, Science 333
  5. One-at-a-time sensitivity (tornado) Saltelli and others (2008), Global Sensitivity Analysis: The Primer, Wiley

Data

The model runs on the teaching values set by the controls. To calibrate it for a place, read it against these admitted layers and series, which this page's map can draw:

  • Borders Natural Earth
  • Cities Natural Earth
Compare instruments: rules, incentives and information. Illustrative teaching model: it runs on the values set by the controls, not on measured data. Methods: Tools of government (Hood (1983), The Tools of Government, Macmillan); Carrots, sticks and sermons (Bemelmans-Videc, Rist and Vedung (1998), Transaction); Diffusion of innovations (Rogers (2003), Diffusion of Innovations, Free Press).
06Validation

How results are checked.

Models are evaluated on held-out data that respects spatial, temporal and group structure. Robustness, calibration and fairness are tested alongside accuracy.

CheckHow it is done
Human double-codingA random sample of machine-coded texts is coded independently by two people, and agreement is reported beside every result
Drift and coverageClassifiers are re-tested when new legal texts or languages enter the corpus, and coverage gaps by language are stated
Error parityError rates are compared across jurisdictions, languages and document types before any comparison is published

Performance degrades when deployment conditions differ from training data. Models can encode biases and fail without clear warning on rare events.

07Implementation

From mandate to evaluation, by pillar.

The steps an instrument takes from mandate to evaluation, each with the pillar that runs it, and the decisions that stay with the authority. Teaching model with stated illustrative values, not a prediction.

  1. Mandate and problem framing Competent authority (outside the programme)
    A competent authority frames the problem and the mandate under its own rules. Howlett, Ramesh and Perl (2009)
  2. Evidence and system model Foundry
    The system is modelled with its feedbacks, data and stated limits. OECD (2014), principle 2
  3. Options appraised with scenarios Foundry
    Instruments are compared under scenarios, with uncertainty shown. Hood (1983)
  4. Exercise with stakeholders Universe
    The options are tested in an exercise with those who would implement and bear them. OECD (2014), principle 3
  5. Standard or guidance drafted Nexus Standards
    What works is codified as a standard or guidance, open to comment. Nexus Standards process
  6. Decision by the authority Competent authority (outside the programme)
    The authority decides, outside the programme, with the evidence on record. Howlett, Ramesh and Perl (2009)
  7. Capacity and training Risk Academy
    Those who implement are trained on the decided instrument and its data. Sendai Framework (2015), priority 2
  8. Monitoring and public report Reports
    Indicators are published with sources, limits and corrections. OECD (2014), principle 5
  9. Evaluation and revision Nexus Standards
    Results return to the standard and the model: the cycle closes. Howlett, Ramesh and Perl (2009)

Methods

  1. Policy cycle Howlett, Ramesh and Perl (2009), Studying Public Policy, Oxford University Press
  2. Governance of critical risks OECD (2014), Recommendation of the Council on the Governance of Critical Risks
  3. Layered drawing of directed graphs Sugiyama, Tagawa and Toda (1981), IEEE SMC 11
From mandate to evaluation, by pillar: the steps as recorded, each with its pillar; sources as cited on each step.
09Instruments and commitments

How AI as subject and tool in innovation governance is governed: instruments, mandates and commitments.

The instruments, mandates, actors and accountability arrangements a policymaker, diplomat or development agency works with, citing the agreements that set them. Structures follow the frameworks named. Any state or progress drawn is illustrative, not a record.

Policy instrument matrix

The kinds of instrument available on AI as subject and tool in innovation governance, by level of government and cooperation.

Instrument typeLocalNationalRegionalGlobal
RegulatoryZoning, building codesLaws, standards, licensingHarmonised rulesConventions and treaties
EconomicLocal levies, grantsBudget lines, taxes, insurance schemesRisk pools, regional fundsFinancing mechanisms
InformationLocal warningsDisclosure, early warning, statisticsData sharing arrangementsGlobal monitoring and reporting
InstitutionalLocal committeesLead agencies, coordination councilsRegional bodies and secretariatsMultilateral mandates
CooperativeCommunity agreementsPartnership compactsMemoranda and joint programmesAgreements and joint commitments
A typology after the OECD Recommendation on the Governance of Critical Risks; examples of instrument types, not an inventory of any country's measures.
Sendai Framework for Disaster Risk Reduction · UNDRRParis Agreement · UNFCCC2030 Agenda and the Sustainable Development Goals · United NationsInternational Health Regulations · WHO
10Stewardship

Who maintains the method.

Artificial Intelligence and Autonomous Systems stewards artificial intelligence and machine learning for the Consortium and reviews how it is applied across platforms.

12Questions

Questions and answers.

What are the limits of artificial intelligence and machine learning in this field?
Performance degrades when deployment conditions differ from training data. Models can encode biases and fail without clear warning on rare events.
How are results checked?
Models are evaluated on held-out data that respects spatial, temporal and group structure. Robustness, calibration and fairness are tested alongside accuracy.
Are the values on this page real?
The data names, roles and checks are real descriptions of practice. The canvas shows a design of the method's use, not a run; no result is reported here.
Where else is this method applied?
The canonical method page lists every platform that applies it.
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Reports is the Consortium's quarterly publication. What you know about this subject can become evidence, a case or a correction in the next edition, credited to you and published under CC BY 4.0 where it is your own work.

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