โก Quick Summary
This review highlights the integration of artificial intelligence (AI) with biosensor technology for the detection and surveillance of antimicrobial resistance (AMR). The findings suggest that these advancements could significantly enhance global biosecurity efforts by providing real-time, data-driven insights.
๐ Key Details
- ๐ Focus: Integration of AI with various biosensor platforms for AMR detection
- ๐งฉ Technologies: Electrochemical, optical, piezoelectric, paper-based, and nanomaterial-based biosensors
- ๐ Framework: One Health surveillance approach
- โ๏ธ Applications: Clinical, veterinary, and environmental settings
๐ Key Takeaways
- ๐ AMR is a critical global health threat that undermines modern medicine.
- ๐ค AI and machine learning can enhance the detection and interpretation of AMR data.
- ๐ Real-time insights from AI-enabled biosensors can inform public health decisions.
- ๐ Challenges include sensor repeatability, data scarcity, and algorithmic transparency.
- ๐ก Future research should focus on open data standards and equitable access.
- ๐ Interdisciplinary collaboration is essential for effective implementation of these technologies.
- ๐ AI-driven biosensing networks could revolutionize AMR surveillance globally.

๐ Background
The rise of antimicrobial resistance (AMR) is a pressing issue that threatens the effectiveness of treatments for various infections. As AMR continues to escalate, the need for swift and accurate detection methods becomes increasingly critical. Traditional surveillance techniques often fall short due to limitations in time, cost, and accessibility. This review explores how recent advancements in biosensor technology, combined with AI, can address these challenges and improve AMR monitoring.
๐๏ธ Study
This comprehensive review consolidates recent advancements in various biosensor platforms, including electrochemical, optical, piezoelectric, paper-based, and nanomaterial-based modalities. The authors examine how these technologies can be integrated with AI and machine learning techniques to enhance detection capabilities, signal interpretation, and predictive analytics in AMR surveillance across clinical, veterinary, and environmental settings.
๐ Results
The integration of AI with biosensor technology has shown promising results in improving the accuracy and speed of AMR detection. The review highlights the potential for real-time data generation and analysis, which can significantly aid public health decision-making. However, it also points out critical challenges such as ensuring sensor repeatability and addressing data scarcity, which must be overcome for successful implementation.
๐ Impact and Implications
The findings of this review underscore the transformative potential of AI-driven biosensing networks in the fight against AMR. By providing predictive and adaptive surveillance capabilities, these technologies can enhance global biosecurity efforts. The implications for public health are profound, as improved AMR monitoring can lead to better containment strategies and ultimately save lives.
๐ฎ Conclusion
This review illustrates the exciting possibilities that lie at the intersection of AI and biosensor technology for AMR detection and surveillance. As we move forward, it is crucial to address the challenges identified and foster interdisciplinary collaboration to fully realize the potential of these innovations. The future of global health security may very well depend on our ability to harness these technologies effectively.
๐ฌ Your comments
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Artificial Intelligence-Integrated Biosensors for Antimicrobial Resistance Detection and Surveillance: A Review and Future Perspectives for Global Biosecurity.
Abstract
Antimicrobial resistance (AMR) poses a critical threat to global health, undermining the efficacy of modern medicine. The escalating global epidemic of AMR jeopardizes the efficacy of contemporary medicine and undermines health systems globally. The swift, precise, and scalable identification of resistance determinants is essential for containment and stewardship initiatives; yet, existing surveillance techniques are constrained by time, expense, and accessibility. Recent advancements in biosensor technology and artificial intelligence (AI) provide a revolutionary approach to decentralized, intelligent AMR monitoring. This review consolidates recent advancements in biosensor platforms-encompassing electrochemical, optical, piezoelectric, paper-based, and nanomaterial-based modalities-and their incorporation with AI and machine learning techniques for improved detection, signal interpretation, and predictive analytics. This study investigates the utilization of hybrid systems in clinical, veterinary, and environmental settings under the One Health surveillance framework. The research also examines the integration of AI-enabled biosensors within digital and Internet of Things (IoT) frameworks, emphasizing its capacity to produce real-time, data-intensive insights for public health decision-making. Critical analysis is conducted on key problems, including sensor repeatability, data scarcity, algorithmic transparency, and regulatory adaptation, in conjunction with socioeconomic and ethical considerations. The report delineates prospective avenues for research, policy, and implementation, highlighting open data standards, equitable access, and interdisciplinary collaboration. These breakthroughs collectively indicate the emergence of AI-driven biosensing networks, which provide predictive, adaptive, and globally coordinated AMR surveillance.
Author: [‘Lawal OP’, ‘Opara IJ’, ‘Ayo-Ige A’, ‘Eboh NA’, ‘Cos-Ibe U’, ‘Forson KAAM’, ‘Mensah EK’, ‘Olaitan OF’, ‘Nii-Okai E’, ‘Yeboah A’, ‘Gabriels N’, ‘Olaniyi AO’]
Journal: Cureus
Citation: Lawal OP, et al. Artificial Intelligence-Integrated Biosensors for Antimicrobial Resistance Detection and Surveillance: A Review and Future Perspectives for Global Biosecurity. Artificial Intelligence-Integrated Biosensors for Antimicrobial Resistance Detection and Surveillance: A Review and Future Perspectives for Global Biosecurity. 2025; 17:e98098. doi: 10.7759/cureus.98098