Sep 2026· One Health· Vol 23· 0 citations· 96 references
Medicine
Abstract
Antimicrobial resistance (AMR) poses a critical global health challenge, leading to substantial mortality and economic losses without science-based interventions. Conventional approaches to combating AMR have important limitations in addressing this escalating threat. Recent advances in AI, including deep learning, large language models, and protein language models, provide new opportunities to integrate multimodal data for AMR research. However, evidence remains uneven, with many approaches limited to computational benchmarking rather than real-world validation. Here, we critically review AI applications in AMR, focusing on rapid diagnosis, therapeutic discovery, and clinical decision support. AI-based diagnostic models can identify resistant pathogens and predict resistance profiles, but most lack prospective clinical evaluation. AI-assisted drug discovery and alternative therapies have generated promising candidates, although most remain at computational, in vitro, or early preclinical stages. Large language models may support decision-making, but their clinical use remains preliminary. Successful translation of AI into clinical and One Health practice will require representative datasets, independent validation, prospective evaluation, and robust governance.
AI can certainly strengthen the global AMR response by complementing key areas of AMR such as antimicrobial stewardship, infection prevention, laboratory diagnostics, and global surveillance.
Tahani Alkalaf, E. Eker, O. Albarri et al.· Le infezioni in medicina· 0 citations
This review discusses how AI can accelerate computational drug discovery, virtual screening (VS), and the repurposing of already-approved medications, and it can also optimize combination therapies through computational simulation.
D. Bhagwat, Sonali A. Chikhalwale, S. Mali et al.· Current pharmaceutical desig...· 0 citations
This review concludes that while precision medicine is not a standalone solution, its successful implementation will depend on coordinated integration of diagnostics, host factors, computational tools, pharmacological optimization, and stewardship strategies to improve patient outcomes while preserving the long-term ef...
Lamarana Jallow, Henry Hodosika, Ousman Bajinka· Respiratory Medicine· 0 citations
AI has considerable potential to support AMR prediction and antimicrobial stewardship, but broader implementation will require rigorous validation, integration into clinical workflows, continuous monitoring and demonstration of clinical benefit.
Oana Frandeș, L. Azamfirei, Oana-Elena Branea et al.· Medicina· 0 citations
Antimicrobial resistance (AMR) has become one of the most urgent threats to global public health, with an estimated 4.95 million deaths associated with bacterial resistance in 2019 alone. Conventional approaches to antibiotic development, resistance detection, and treatment selection are increasingly unable to keep pac...
Mia Carter, Brady Wilson· Journal of Public Health and...· 0 citations
Background: Antimicrobial resistance (AMR) is a major global health threat, while conventional diagnostic, stewardship, dosing, and drug-development strategies remain limited by diagnostic delays, population-level decision-making, and a shrinking antibiotic pipeline. Artificial intelligence (AI) may help address these...
Machine-learning networks can learn without detailed instructions from a designer. Those that do may offer insight into how the brain reorganizes itself during learning.
With $2.1 million funding from Google.org, the open-source Public Transit Intelligence Hub will unify public transit monitoring, operations, and passenger communication.