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Artificial intelligence in pediatric allergy research
Daniil Lisik1, Rani Basna2,3, Tai Dinh4,5
1Krefting Research Centre, Institute of Medicine, Sahlgrenska Academy, University of Gothenburg, Box 424, 405 30, Gothenburg, Sweden. daniil.lisik@gmail.com.
Insights
Artificial intelligence (AI) offers powerful tools for understanding complex pediatric allergies. This review guides researchers in applying AI to allergy data for better clinical insights and outcomes.
Area of Science:
- Pediatric allergy research
- Computational biology
- Data science in medicine
Background:
- Pediatric allergies like atopic dermatitis, food allergy, allergic rhinitis, and asthma are common, heterogeneous, and associated with various factors.
- Artificial intelligence (AI) is rapidly advancing and being integrated into medical research.
Purpose of the Study:
- To provide a practical guide for conducting AI-based studies in pediatric allergy.
- To discuss the current state, implications, and future perspectives of AI in pediatric allergy research.
Main Methods:
- The review introduces essential AI concepts and techniques.
- It outlines a blueprint for AI analysis pipelines, from variable selection to result interpretation.
- It covers common challenges and solutions in AI implementation.
Main Results:
- Current AI applications in pediatric allergy often use simplistic data and lack methodological rigor.
- There is a need for advanced algorithms and richer data sources (e.g., multi-omics, unstructured data).
Conclusions:
- AI holds significant potential to transform pediatric allergy research.
- Methodologically robust implementation of advanced AI techniques on comprehensive datasets is crucial for realizing this potential.
Abstract:
Atopic dermatitis, food allergy, allergic rhinitis, and asthma are among the most common diseases in childhood. They are heterogeneous diseases, can co-exist in their development, and manifest complex associations with other disorders and environmental and hereditary factors. Elucidating these intricacies by identifying clinically distinguishable groups and actionable risk factors will allow for better understanding of the diseases, which will enhance clinical management and benefit society and affected individuals and families. Artificial intelligence (AI) is a promising tool in this context, enabling discovery of meaningful patterns in complex data. Numerous studies within pediatric allergy have and continue to use AI, primarily to characterize disease endotypes/phenotypes and to develop models to predict future disease outcomes. However, most implementations have used relatively simplistic data from one source, such as questionnaires. In addition, methodological approaches and reporting are lacking. This review provides a practical hands-on guide for conducting AI-based studies in pediatric allergy, including (1) an introduction to essential AI concepts and techniques, (2) a blueprint for structuring analysis pipelines (from selection of variables to interpretation of results), and (3) an overview of common pitfalls and remedies. Furthermore, the state-of-the art in the implementation of AI in pediatric allergy research, as well as implications and future perspectives are discussed.
Conclusion:
AI-based solutions will undoubtedly transform pediatric allergy research, as showcased by promising findings and innovative technical solutions, but to fully harness the potential, methodologically robust implementation of more advanced techniques on richer data will be needed.
What Is Known:
• Pediatric allergies are heterogeneous and common, inflicting substantial morbidity and societal costs. • The field of artificial intelligence is undergoing rapid development, with increasing implementation in various fields of medicine and research.
What Is New:
• Promising applications of AI in pediatric allergy have been reported, but implementation largely lags behind other fields, particularly in regard to use of advanced algorithms and non-tabular data. Furthermore, lacking reporting on computational approaches hampers evidence synthesis and critical appraisal. • Multi-center collaborations with multi-omics and rich unstructured data as well as utilization of deep learning algorithms are lacking and will likely provide the most impactful discoveries.
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