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npj Digital Medicine· 2026Q1

OncoTagger: a reproducible abstract-level landscape of open-access AI-oncology articles in Web of Science

B.S. Khilchevskyi, Polina Talapova, Denys Kaduk, Максим Трофименко et al.

Short summary

OncoTagger, a new rule-based pipeline, successfully tracked AI-oncology research trends from 2019-2025 using open-access articles, achieving 92.3% metric-detection accuracy.

AI-generated from the title and abstract; the full text is not read.

Key points

  • OncoTagger pipeline developed for abstract-level surveillance of AI-oncology literature.
  • Analyzed 20,766 open-access articles from 2019-2025 indexed in Web of Science.
  • Achieved 92.3% metric-detection accuracy, 89.3% sensitivity, and 98.2% specificity.
  • Identified dictionary-coverage gaps and mapped research task mix and geography.

AI-generated from the title and abstract; the full text is not read.

Abstract

Abstract AI-oncology evidence is expanding too quickly for static manual surveillance. We developed OncoTagger, a rule-based abstract-level evidence-surveillance pipeline, and applied it to an English-language, open-access article corpus indexed in the Web of Science Core Collection and analyzed at the title-, abstract-, keyword-, and metadata level from 2019 to 2025. From 59,994 initial records, deduplication, year restriction, automated screening, and manual adjudication yielded 20,766 records. Prediction-stratum-weighted corpus-level estimates showed metric-detection accuracy of 92.3% (95% CI 88.9–95.2%), sensitivity of 89.3% (85.4–93.3%), and specificity of 98.2% (94.5–100.0%). Ordinal metric categories showed exact agreement of 73.6% (69.0–77.8%) for the weighted-category output and 76.8% (72.3–80.8%) for the composite-metric output, with linear weighted Cohen’s kappa of 0.588 (0.513–0.659) and 0.615 (0.537–0.689), respectively. Primary-task assignment showed moderate agreement with manual consensus (68.0% exact agreement, 95% CI 63.3–72.4%; Cohen’s kappa 0.508, 0.442–0.572), and a complete task-unassigned census identified systematic dictionary-coverage gaps. The resulting resource describes abstract-reported metric patterns, pipeline-derived task mix, geography, and an exploratory candidate translational-signal subset. It should be interpreted as reproducible aggregate surveillance infrastructure, not as a full census of the AI-oncology field, a validated article-level classifier, or a comparative evaluation of algorithmic performance.

The authors' abstract, as published at the source. npj Digital Medicine, 2026 · DOI ↗

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Statistics, Probability and UncertaintyDecision Sciences