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International Journal of Medical Toxicology and Forensic Medicine

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  3. Vol. 16 (2026): Vol. 16 (2026)
  4. Original Article (Medical Ethics)

Vol. 16 (2026)

Dey 2026

ToxiNet: A Multimodal Deep Learning Framework for Predicting Clinical Outcomes in Acute Drug Overdose Using Electronic Health Records

  • Sowmya Dondeti
  • Kanchan S. Gorde
  • Birali Prasanthi
  • Senigala Kuruba Chaya Devi
  • Gongada Sandhya Rani
  • Pannangi Naresh
  • Radhika Kolavali

International Journal of Medical Toxicology and Forensic Medicine, Vol. 16 (2026), 1 Dey 2026 , Page 1-11
https://doi.org/10.22037/ijmtfm.v16.53708 Published: 11/08/2026

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Abstract

Background: Acute drug overdose is a leading cause of preventable emergency department (ED) visits and in-hospital mortality worldwide, and clinicians must often make rapid triage, monitoring, and treatment-escalation decisions from fragmented, multimodal data, structured vitals and labs, free-text clinical notes, toxicology assays, and cardiac telemetry, under significant time pressure. Existing prediction tools typically rely on a single data modality and on static risk scores, limiting their sensitivity to the fast-evolving physiological trajectory of an overdose patient.

Methods: ToxiNet introduces a multimodal deep learning framework that combines electronic health record time series, clinical text, toxicology panels, and ECG waveforms through modality-specific encoders and cross-modal attention fusion to jointly predict thirty-day mortality, ICU admission, length of stay, major complications, and clinical recommendations.

Results: In a controlled, held-out evaluation, ToxiNet achieved an AUC-ROC of 0.93 for the composite mortality/ICU-admission outcome, compared with 0.86 for an LSTM baseline using structured EHR data alone, 0.81 for a random forest baseline, and 0.77 for logistic regression. An incremental modality-ablation analysis showed AUC rising from 0.83 (structured EHR only) to 0.93 as clinical notes, toxicology panel, and ECG modalities were progressively added, with the largest single-modality contribution coming from the toxicology panel.

Conclusion: These results, obtained in a controlled and currently simulation-supported evaluation, suggest that multimodal fusion of structured, textual, toxicological, and cardiac signal data can improve early risk stratification in acute overdose beyond what any single modality supports. As detailed in the Methods and Limitations sections, prospective, multi-site validation on real, IRB-approved clinical data together with formal statistical testing and toxicologist-in-the-loop evaluation is required before ToxiNet’s outputs can support real clinical decisions.

Keywords:
  • Acute Drug Overdose, Multimodal Deep Learning, Electronic Health Records, Clinical Decision Support, Medical Toxicology, Cross-Modal Attention
  • 53708

How to Cite

Sowmya Dondeti, Kanchan S. Gorde, Birali Prasanthi, Senigala Kuruba Chaya Devi, Gongada Sandhya Rani, Pannangi Naresh, & Radhika Kolavali. (2026). ToxiNet: A Multimodal Deep Learning Framework for Predicting Clinical Outcomes in Acute Drug Overdose Using Electronic Health Records. International Journal of Medical Toxicology and Forensic Medicine, 16, 1–11. https://doi.org/10.22037/ijmtfm.v16.53708
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References

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