Fentanyl’s Deadly Footprint: A New Framework for Predicting Overdose Hotspots

Illicitly manufactured fentanyl has become a major driver of fatal drug overdoses in the United States, with annual mortality approaching six figures. Spatial analyses consistently demonstrate that the overdose burden clusters within structurally vulnerable micro-areas rather than distributing uniformly across regions. A narrative review of US studies (2010-2025) synthesized evidence from mortality, emergency department, emergency medical services, wastewater, social media, and related data streams that examined small-area patterns or the prediction of fentanyl or synthetic opioid overdose. Evidence shows a strongly clustered fentanyl burden, with small-area mapping identifying persistent hotspots and Bayesian forecasting and nowcasting models providing short-horizon predictions. Emerging wastewater and social media indicators offer additional early warning capacity, especially where routine surveillance is sparse. However, external validation, calibration reporting, uncertainty characterization, and equity-sensitive performance metrics are uncommon. This review organizes these strands into a three-tier framework--mortality-only, EMS and emergency department, and multi-stream environments--that links mapping, forecasting, and spike detection to operational response while embedding explicit equity and governance safeguards.

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Publication Details

Journal
Cureus
Published
2026-01-04
DOI
https://doi.org/10.7759/cureus.100756
Primary Topic
Opioid Use Disorder Treatment
Type
article
Field-Weighted Citation Impact
0.00
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article

Fentanyl’s Deadly Footprint: A New Framework for Predicting Overdose Hotspots

Olajide Akinpeloye, Abdulazeez Alabi, Osayimwense Izinyon, Tope Amusa et al.
Cureus
Opioid Use Disorder Treatment
article

Fentanyl’s Deadly Footprint: A New Framework for Predicting Overdose Hotspots

Olajide Akinpeloye, Abdulazeez Alabi, Osayimwense Izinyon, Tope Amusa, Deborah Okunola
article en

Abstract

Illicitly manufactured fentanyl has become a major driver of fatal drug overdoses in the United States, with annual mortality approaching six figures. Spatial analyses consistently demonstrate that the overdose burden clusters within structurally vulnerable micro-areas rather than distributing uniformly across regions. A narrative review of US studies (2010-2025) synthesized evidence from mortality, emergency department, emergency medical services, wastewater, social media, and related data streams that examined small-area patterns or the prediction of fentanyl or synthetic opioid overdose. Evidence shows a strongly clustered fentanyl burden, with small-area mapping identifying persistent hotspots and Bayesian forecasting and nowcasting models providing short-horizon predictions. Emerging wastewater and social media indicators offer additional early warning capacity, especially where routine surveillance is sparse. However, external validation, calibration reporting, uncertainty characterization, and equity-sensitive performance metrics are uncommon. This review organizes these strands into a three-tier framework--mortality-only, EMS and emergency department, and multi-stream environments--that links mapping, forecasting, and spike detection to operational response while embedding explicit equity and governance safeguards.

CureusVol. 18(1)
Western Michigan University (US), Georgia State University (US), University of Ibadan (NG)
Clean water and sanitation
Openalex Percentile: Top 98%
Opioid Use Disorder Treatment
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