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Airlines that are more AI-mature report better profitability — a one-point increase in AI digital maturity is associated with a 1.98% rise in operating margin and each 1% rise in data investment share with a 1.12% gain — but the payoff hinges on management quality and context-specific implementation strategies.

Improving the economic efficiency of data management and artificial intelligence in diverse airline market conditions
Abdul-Khassen Nurlanuly, Serik Serikbayev, Aizhamal Aidaraliyeva, Nazym Akhmetzhanova, Inna Stecenko, Almira Saktayeva, Oxana Kirichok · February 27, 2026 · Eastern-European Journal of Enterprise Technologies
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Linked only from stored provider relations; the raw author line above is never matched by name.

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  1. Abdul-Khassen Nurlanuly provider ID
  2. Serik Serikbayev provider ID
  3. Aizhamal Aidaraliyeva provider ID
  4. Nazym Akhmetzhanova provider ID
  5. Inna Stecenko provider ID
  6. Almira Saktayeva provider ID
  7. Oxana Kirichok provider ID

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  1. A. Nurlanuly provider ID
  2. S. Serikbayev provider ID
  3. A. Aidaraliyeva provider ID
  4. Nazym Akhmetzhanova provider ID
  5. I. Stecenko provider ID
  6. A. Saktayeva provider ID
  7. O. Kirichok provider ID
Airlines with higher AI digital maturity and larger data investment shares show higher operating margins, but the translation of technology spending into financial gains depends on management systems and cluster-specific organizational practices.

Citation observations

Cumulative provider counts captured on specific dates; providers are never combined.

The object of the study is a complex of management practices and organizational mechanisms, which ensure implementation of data analysis and artificial intelligence technologies into airline operations. The study deals with the problem of quantitative evaluation of the impact from the extent and quality of data & artificial intelligence solutions on the key indexes of airline managerial efficiency. The following results have been obtained: – analysis of the digital maturity level with financial and operational key performance indicators of airlines has identified a considerable intercluster differentiation; – a one-point increase in artificial intelligence digital maturity is associated with the growth of operating margin by 1.98%, whereas the 1% increase of data investment share contributes to its growth by 1.12%; – two standard models of data & artificial intelligence innovation project management, which demonstrated various outputs in studied institutional contexts. The produced findings can be explained by the fact that translation of technology investments into financial outcomes is mediated by the quality of management system, which includes strategic alignment, coordinating organizational changes and a system of investment efficiency evaluation. The specifics of obtained results possess a dual nature: on the one hand, they confirm the universally positive effect from data & artificial intelligence implementation; on the other hand, they highlight the critical significance of context-dependent, cluster-specific management strategy. The practical significance of this study lies in the formation of evidence base for making justified decisions by airline management, as well as producing defined tools for maximizing the output from investment in digital technology

Summary

Main Finding

Airlines’ digital maturity and data/AI investment positively affect operating performance, but the size of that effect depends strongly on managerial quality and business-model context. Empirically, a one-point increase in an AI maturity index (1–5) is associated with a 1.98 percentage‑point increase in operating margin, while a 1% increase in the share of Data & AI investment in operating expenses raises operating margin by about 1.12%. However, translation of technology spend into financial outcomes is mediated by management systems, strategic alignment and organizational change capacity, and effects vary across Full‑Service Network Carriers (FSNCs) versus Low‑Cost Carriers (LCCs).

Key Points

  • Research gap addressed: meso‑level role of corporate management in converting Data & AI investments into financial outcomes across heterogeneous airline market contexts.
  • Sample and clustering: national “market leaders” from all EU countries, grouped into two strategic clusters:
    • A‑cluster (FSNCs): network carriers with multi‑level products, alliances, corporate focus (e.g., Lufthansa, Air France).
    • B‑cluster (LCCs): cost‑focused, point‑to‑point, high digital sales (e.g., Ryanair, Wizz Air).
  • Principal quantitative results:
    • AI_MATURITY (1–5 scale) positive and sizable effect on operating margin (+1.98 pp per point).
    • DATA_INV (Data & AI investment share of OPEX) positive effect (+1.12% operating margin per 1% investment share).
    • Considerable inter‑cluster heterogeneity: identical investments yield different outcomes in FSNC vs LCC contexts.
  • Management models: two prototypical Data & AI project management approaches were identified via case analysis; each performed differently depending on institutional and organizational context (details summarized qualitatively).
  • Practical takeaway: investing in data & AI alone is insufficient—organizational alignment, investment evaluation systems and change coordination are critical to realize financial gains.

Data & Methods

  • Data coverage: largest passenger carriers registered in each EU country (national leaders), using publicly available financial and non‑financial reports and industry benchmarks.
  • Key constructed indicators:
    • AI_MATURITY: expert‑scored index (1–5) based on public reports and industry sources.
    • DATA_INV: Data Science & AI investment share of operating expenses (%) (reconstructed from S&P Global and benchmarks).
    • DIG_CX_SCORE: customer experience digitalization index (0–100) via weighted evaluation of personalization, app functionality, loyalty.
    • Financial/operational KPIs: operating margin (OP_MARGIN), ASK cost (ASK_COST) and other standard metrics (from annual reports).
  • Methods:
    • Strategic cluster analysis to define FSNC vs LCC groups.
    • Content analysis to build composite indices.
    • Descriptive and comparative statistics.
    • Spearman rank correlations.
    • Panel regression with firm fixed effects (annual panel) to estimate impact of AI_MATURITY and DATA_INV on operating margin, controlling for time‑invariant firm characteristics.
    • Case studies to derive standard management models for Data & AI innovation projects.
  • Key assumptions and simplifications:
    • Expert reconstruction of digital indices from public sources is sufficiently valid for inter‑firm comparison.
    • Digital maturity aggregated into compact indices (AI_MATURITY, DIG_CX_SCORE), omitting some granular technological/organizational nuances.
    • Dynamic/non‑linear lag effects approximated by annual panel; exogenous shocks (regulatory, geopolitical, fuel) are not explicitly modelled but approximated via fixed effects/time structure.

Implications for AI Economics

  • Include managerial quality as a core mediator in models of AI returns: empirical estimates of productivity or profitability gains from AI must incorporate firm‑level governance, strategy alignment and change management capacity, not just technology spend.
  • Heterogeneity matters: business model (FSNC vs LCC) significantly moderates the return on Data & AI investment. Cross‑industry or cross‑firm generalizations about AI ROI are unreliable unless stratified by strategic cluster.
  • Measurement guidance: researchers should construct and use digital maturity indices (rather than raw spend alone) to capture absorptive capacity and likely returns from AI investments.
  • Methodological implications:
    • Panel fixed‑effects designs are useful to isolate within‑firm changes in digital maturity/spend from time‑invariant institutional factors.
    • Expert‑coded composite indicators can be practical when firm‑level granular data are unavailable, but results should be interpreted in light of measurement uncertainty.
  • Policy and managerial recommendations:
    • Firms should pair technology investments with investments in managerial capabilities (strategic alignment, organizational change, project governance) to maximize economic benefits.
    • Investors and regulators evaluating the impact of digitalization should assess both quantitative spending and qualitative maturity/management indicators.
  • Research agenda:
    • Move toward causal identification (e.g., difference‑in‑differences, instrumenting for investments) to better isolate investment effects.
    • Expand samples beyond EU carriers, obtain firm‑level granular data on project-level costs and timelines, and model dynamic lags and heterogeneous treatment effects.
    • Explore the two identified management models in detail to derive best‑practice templates and contingent recommendations by institutional context.

Assessment

Paper Typecorrelational Evidence Strengthlow — Findings are based on observational associations (cross-sectional comparisons and cluster analysis) without a clear causal identification strategy; results are vulnerable to reverse causality, omitted variable bias, and measurement error in digital maturity and investment variables. Methods Rigorlow — The description indicates quantitative associations and cluster comparisons but does not report use of quasi-experimental methods, instrumental variables, longitudinal panel techniques, or robustness checks; sample size, control variables, and estimation details are not provided, limiting confidence in inference. SampleCross-sectional sample of commercial airlines (number and selection criteria not reported) combining an AI/data 'digital maturity' index and firm-level financial and operational KPIs (including operating margin), reported share of data investment, cluster analysis to identify digital maturity groups, and characterization of two standard project-management models for data & AI innovation. Themesproductivity org_design adoption GeneralizabilityIndustry-specific to airlines — may not generalize to other sectors, Likely limited geographic coverage or uneven country representation (not reported), Unclear sample size and selection — potential sample bias toward larger or digitally engaged carriers, Cross-sectional design — results may not hold over time as technologies and practices evolve, Measures (digital maturity, investment share) may be subjective or inconsistently measured across firms

Claims (7)

ClaimDirectionOutcomeConfidence & EvidenceDetails
Analysis of the digital maturity level with financial and operational key performance indicators of airlines has identified a considerable intercluster differentiation. Firm Productivity mixed digital maturity level differentiation relative to financial and operational KPIs
Reading fidelity high
Study strength medium
not reported
0.3
A one-point increase in artificial intelligence digital maturity is associated with the growth of operating margin by 1.98%. Firm Productivity positive operating margin
Reading fidelity high
Study strength medium
1.98% increase
0.3
A 1% increase of data investment share contributes to operating margin growth by 1.12%. Firm Productivity positive operating margin
Reading fidelity high
Study strength medium
1.12% increase
0.3
Two standard models of data & artificial intelligence innovation project management were identified, which demonstrated various outputs in the studied institutional contexts. Innovation Output mixed outputs of data & AI innovation projects (performance/output differences between management models)
Reading fidelity high
Study strength medium
not reported
0.3
The translation of technology investments into financial outcomes is mediated by the quality of the management system (including strategic alignment, coordinating organizational changes and a system of investment efficiency evaluation). Firm Productivity positive financial outcomes (e.g., operating margin) as influenced by management system quality
Reading fidelity medium
Study strength medium
not reported
0.18
The results confirm a generally positive effect from data & artificial intelligence implementation on airline managerial/financial performance. Firm Productivity positive key indexes of airline managerial efficiency (financial and operational KPIs)
Reading fidelity high
Study strength medium
not reported
0.3
The effectiveness of data & AI investments is critically dependent on context-specific, cluster-specific management strategy. Firm Productivity mixed effectiveness of data & AI investments on managerial/financial performance
Reading fidelity high
Study strength medium
not reported
0.3

Notes