Artificial Intelligence and Deep Learning in Hantavirus Research:
A Comprehensive Review
Elham Edkndarnia1,*
1 Arab open university-Bahrain
Email: Elham.mohamed@aou.org.bh
Received: February 10, 2026 Revised: April 11, 2026 Accepted: June 10, 2026 ⋆ Corresponding author
ABSTRACT
Hantavirus remains an important zoonotic threat because of its association with severe human diseases, including
hemorrhagic fever with renal syndrome and hantavirus pulmonary syndrome. Its transmission is strongly influenced
by rodent reservoirs, environmental conditions, human exposure patterns, and regional ecological variability. Recent
advances in artificial intelligence (AI) and deep learning have created new opportunities for improving Hantavirus
detection, outbreak prediction, ecological risk mapping, diagnostic support, and public health surveillance. This
review examines the role of AI-driven methods in Hantavirus research, with emphasis on how machine learning, deep
learning, image-based analysis, epidemiological modeling, and data-driven surveillance can support earlier detection
and more informed decision-making. The review also discusses the potential of AI to integrate heterogeneous data
sources, including clinical records, environmental variables, remote sensing indicators, genomic information, and
epidemiological reports. Despite these advances, several challenges remain, including limited datasets, geographic
bias, model generalization, lack of clinical validation, data imbalance, interpretability concerns, and the need for
real-time deployment. Overall, AI and deep learning offer promising tools for strengthening Hantavirus surveillance
and response, but their practical value depends on transparent models, high-quality data, interdisciplinary validation,
and integration into public health systems.
Keywords: Hantavirus; Artificial intelligence; Deep learning; Disease surveillance; Outbreak prediction
1. INTRODUCTION
Hantavirus represents an important zoonotic viral threat because
of its capacity to cause severe human disease, its dependence
on wildlife reservoirs, and its close relationship with
ecological, environmental, and human behavioral factors. Unlike
many directly transmitted viral infections, Hantavirus
transmission is strongly associated with rodent reservoirs
and human exposure to contaminated excreta, aerosols, or
infected environments. This makes Hantavirus not only a
biomedical concern, but also an ecological and public health
challenge that requires integration between virology, epidemiology,
environmental monitoring, clinical diagnosis, and
surveillance science. The continuing concern surrounding
Hantavirus is reinforced by its pandemic potential, severe
clinical outcomes, and capacity to emerge or re-emerge when
environmental and human conditions favor spillover events
[1].
The clinical importance of Hantavirus is mainly linked to
two major disease patterns: hemorrhagic fever with renal
syndrome and Hantavirus pulmonary syndrome. These syndromes
differ in their geographical distribution, dominant
viral lineages, clinical presentation, and disease severity, but
both reflect the broader ability of Hantaviruses to produce
serious systemic illness. The public health burden of these
infections is intensified by diagnostic difficulty, symptom