Aug 2026· Respiratory Medicine· pp.
109104
· 0 citations· 58 references
Medicine
TL;DR
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 effectiveness of existing antimicrobials.
Abstract
Antimicrobial resistance (AMR) represents one of the most pressing threats to global public health, undermining the effectiveness of modern antimicrobial therapy and challenging decades of medical progress. This comprehensive review examines the transition from broad-spectrum empirical therapy toward precision medicine as an integrated framework for improving antimicrobial use and combating AMR. Precision medicine seeks to tailor treatment decisions by combining pathogen-specific genomic and resistance data with relevant host characteristics to optimize therapy while limiting unnecessary antimicrobial exposure and the selective pressures that drive resistance. The review synthesizes advances reported from 2020, highlighting established and emerging approaches including rapid molecular diagnostics, next-generation sequencing, CRISPR-based detection, machine learning (ML)-assisted decision support, precision dosing, and targeted therapeutics such as bacteriophage therapy, antimicrobial peptides, and bacterial proteolysis-targeting chimeras. Rather than functioning as isolated technologies, these approaches achieve their greatest clinical value when integrated within antimicrobial stewardship programs and a One Health framework that recognizes the interconnected human, animal, and environmental drivers of resistance. Despite considerable progress, important challenges remain, including equitable access to advanced technologies, interpretation of increasingly complex datasets, workforce and infrastructure limitations, and evolving regulatory pathways for novel diagnostics and therapeutics. 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 effectiveness of existing antimicrobials.
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
Recent advances in antimicrobial nanomaterials, nanodrug delivery systems, antibiofilm strategies, and nanodiagnostics are summarized and the potential of nanotechnology to support sustainable AMR management across interconnected human, animal, and environmental sectors is emphasized.
This chapter focuses on bacterial antimicrobial resistance, addressing key concepts, major challenges, and emerging technologies within a One Health framework, and framing AMR as a shared ecological and societal responsibility.
Inês M. Ribeiro, A. Almeida-Santos, L. Peixe et al.· Advances in Applied Microbio...· 0 citations
This review provides a comprehensive assessment of emerging antibiotic-free strategies to guide the development of next-generation antimicrobial solutions that reduce reliance on antibiotics and mitigate AMR in clinical and healthcare settings.
P. Ganguly, Elena A. Jones, P. Giannoudis et al.· Pharmaceutics· 0 citations
Fighting AMR requires more than the development of new drugs alone; it requires a comprehensive approach based on global collaboration, effective regulatory and oversight mechanisms, and strengthened data sharing across institutions.
Bilal Deniz, A. Karakuş, V. Denizhan et al.· Journal of Global Medicine· 0 citations
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