Fatih Kansoy

Research · 25 March 2026

Data as Liability: AI Adoption and Disclosed Breach-Risk Attention

Voice: elevenlabs.io

Artificial intelligence makes data more productive, but it also makes data more costly to govern. This paper asks where that governance cost shows up in firms' own risk disclosures.

Fatih Kansoy

Senior Lecturer in Economics, University of Oxford

Yuhao Huo

Series
University of Oxford Department of Economics Discussion Papers
Year
2026
JEL codes
O33, G38, D83, L86, K22
Topics
AI and Data, Corporate disclosure, Technology governance
Contents
  1. Research question
  2. Why it matters
  3. Data and method
  4. Findings
  5. Figures and tables
  6. Scope and limits
  7. How to cite
  8. References

The paper separates two ideas that are often bundled together in public discussion: inventing AI and adopting AI inside live business processes.1Work on AI diffusion has asked why firms invest in AI and where the returns show up, in growth, product innovation, productivity and organisational design (Babina et al. 2024; Brynjolfsson, Li and Raymond 2023; Acemoglu et al. 2022; Felten et al. 2021). The liability that follows when deployment requires firms to govern recurring data flows has received less attention. The central question is not whether AI is valuable. It is whether the move from research or invention into deployment creates a new liability margin that managers themselves treat as material.

The evidence comes from firms' own annual filings. That matters because the outcome is not media attention or realised breach incidence; it is the space firms devote to breach-related risk in legally consequential disclosures.2Risk disclosures are not empty boilerplate. In voluntary-disclosure models silence itself carries information (Verrecchia 1983; Dye 1985), and firms facing greater risk disclose more risk factors, which matter for pricing and market reactions (Campbell et al. 2014; Florackis et al. 2023). The main result is that AI adoption is the margin that moves with breach-risk attention, while AI invention becomes economically small once both margins are estimated together.

The customer-facing results sharpen the interpretation. AI systems that touch customers, personal information, vendors, and continuing data flows are the places where the liability side of AI diffusion becomes most visible. The managerial implication is that AI deployment is also a governance decision about security controls, vendor oversight, consent, data minimisation, and incident response.

AI adoption is associated with roughly 5 per cent higher breach-risk attention relative to the sample mean; AI invention is economically negligible once both enter the same specification.

Research question

Can firms adopt AI without also creating a disclosure-visible data liability, and is that effect driven by adoption rather than invention?

Why it matters

The paper speaks to a practical policy question. Regulation aimed at AI research and regulation aimed at deployed AI systems are not the same thing. If the liability signal appears mainly in adoption, then the relevant governance tools are closer to data protection, breach notification, vendor management, and customer-facing controls than to broad limits on invention.3Data-dependent technologies do not diffuse in a legal vacuum. Privacy regulation slowed the adoption of electronic medical records (Miller and Tucker 2009), and when the cost of handling sensitive data rises, adoption paths and the composition of innovation can change (Goldfarb and Tucker 2012; Frey, Presidente and Andres 2024).

Data and method

Data

The main panel uses roughly 84,000 firm-years of US listed-firm annual filings from 1994 to 2023. The paper builds layered text and LLM measures that distinguish AI invention language from AI adoption language.4Topic models and related text methods are an established way to measure risk salience from the Risk Factors section of 10-K filings, Item 1A (Bao and Datta 2014; Hassan et al. 2019; Sautner et al. 2023; Bybee et al. 2024). A narrower disclosure sample and paragraph-level classifications are used to validate and interpret the main filing-level evidence.

Method

The empirical design relates AI invention and AI adoption measures to disclosed breach-risk attention in firm filings, using fixed effects and placebo controls for non-AI digitisation language. The paper then examines customer-facing deployment, direct text statements that explicitly link AI to risk, and supplementary evidence from staggered state Data Breach Notification laws.5Treatment is assigned by the state of the firm's headquarters, following Miller and Tucker (2009). Notification duties can also depend on where affected consumers live, so this misclassification should bias the estimate towards zero rather than produce spurious negative results.

Findings

  1. Adoption, not invention

    AI adoption is associated with roughly 5 per cent higher breach-risk attention relative to the sample mean; AI invention is economically negligible once both enter the same specification.BaselinePreferredParagraph2012–2300.003Panel B. Adoption (blue) stays positive while invention (pink) is near zero in the full-sample horse races. See the figure.

  2. Customer-facing deployment matters

    Among adopters, breach-risk attention is strongest where AI is customer-facing, consistent with the idea that live data flows create governance obligations.

  3. Firms describe exposure, not protection

    In direct statements linking AI to breach vulnerability, 101 of 103 directional statements describe AI as expanding exposure rather than reducing it.

  4. Bounded interpretation

    The outcome is disclosed breach-risk attention, not realised breach incidence, so the evidence is strongest about managerial salience and revealed materiality.

The paper contributes by separating AI invention from AI adoption in corporate text and showing that the liability side of AI diffusion is concentrated in deployment. It reframes AI risk as a data-governance complement to AI adoption rather than a simple tax on innovation.

Figures and tables

Figure 2. Specification ladder and adoption-versus-invention wedge

Coefficients with 95% confidence intervals, drawn from the paper's own estimates.

  • Adoption coefficient
  • Invention coefficient
A. Benchmark specification ladder−0.00100.0010.0020.0030.004Coefficient on AI adoptionBaseline: no controlsBaseline: filing lengthsBaseline: lengths + assetsBaseline: full controlsPreferred: no controlsPreferred: filing lengthsPreferred: lengths + assetsPreferred: full controlsB. Adoption-versus-invention wedge−0.00100.0010.0020.0030.004Horse-race coefficientBaseline adoptionBaseline inventionPreferred adoptionPreferred inventionParagraph adoptionParagraph inventionParagraph 2012-2023 adoptionParagraph 2012-2023 invention
Panel A plots the AI adoption coefficient across the baseline and preferred text measures under four control specifications with no controls, filing lengths, filing lengths plus lagged assets, and full controls. Bars show the estimate plus or minus 1.96 standard errors.
Show the numbers
PanelSpecificationEstimateStd. error95% interval
ABaseline: no controls0.002500.000570.00138 to 0.00361
ABaseline: filing lengths0.002060.000510.00106 to 0.00307
ABaseline: lengths + assets0.001460.000480.00052 to 0.00241
ABaseline: full controls0.001300.000630.00006 to 0.00253
APreferred: no controls0.002060.000400.00127 to 0.00285
APreferred: filing lengths0.001710.000370.00099 to 0.00243
APreferred: lengths + assets0.001140.000380.00040 to 0.00189
APreferred: full controls0.001010.000480.00006 to 0.00196
BBaseline adoption0.002460.000620.00125 to 0.00368
BBaseline invention0.000080.00044−0.00077 to 0.00094
BPreferred adoption0.002050.000440.00119 to 0.00292
BPreferred invention0.000020.00045−0.00086 to 0.00091
BParagraph adoption0.000820.000330.00017 to 0.00147
BParagraph invention0.000320.00023−0.00013 to 0.00078
BParagraph 2012-2023 adoption0.000880.000430.00004 to 0.00172
BParagraph 2012-2023 invention0.000510.000250.00003 to 0.00099
Customer-facing mechanism and direct textual evidence table.
Paper table: customer-facing AI use and direct textual evidence from firms' own risk statements.
Key results from the paper
EvidenceResultInterpretation
AI adoptionAbout 5 per cent higher breach-risk attention relative to the sample meanThe liability signal is tied to deployment.
AI inventionEconomically negligible once adoption is includedResearch or invention language is not the main disclosure margin.
Customer-facing AIPositive premium in filing and paragraph classificationsData-facing deployment is where governance exposure is most visible.
Direct statements101 statements say AI raises risk; 2 say it reduces riskFirms themselves usually describe AI as expanding exposure.

Scope and limits

The paper does not claim to measure actual breaches. Firm disclosures may reflect selection into AI adoption, managerial attention, legal caution, or expected exposure. The DBN evidence is supplementary and should not be read as a stand-alone causal design.6Data Breach Notification laws do not prohibit AI use. They raise the expected cost of a failed data process through notification duties, legal exposure, remediation burdens and reputational damage.

How to cite

APA

Kansoy, F., & Huo, Y. (2026). Data as Liability: AI Adoption and Disclosed Breach-Risk Attention. University of Oxford Department of Economics Discussion Papers. https://fatih.ai/research/data_as_liability/

Chicago

Kansoy, Fatih, and Yuhao Huo. 2026. "Data as Liability: AI Adoption and Disclosed Breach-Risk Attention." University of Oxford Department of Economics Discussion Papers. https://fatih.ai/research/data_as_liability/.

Harvard

Kansoy, F., & Huo, Y. 2026, 'Data as Liability: AI Adoption and Disclosed Breach-Risk Attention', University of Oxford Department of Economics Discussion Papers, available at: https://fatih.ai/research/data_as_liability/.

BibTeX
@article{kansoy2026data,
  title   = {Data as Liability: AI Adoption and Disclosed Breach-Risk Attention},
  author  = {Fatih Kansoy and Yuhao Huo},
  journal = {University of Oxford Department of Economics Discussion Papers},
  year    = {2026},
  url     = {https://fatih.ai/aidata.pdf}
}

References

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