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Review of next-generation detection methods for bovine respiratory and enteric disease

Review of next-generation detection methods for bovine respiratory and enteric disease
Photo by Navy Medicine / Unsplash
Key Takeaway
Consider next-generation detection methods cautiously until methodological standardisation and validation improve diagnostic reliability.

This narrative review evaluates the application of next-generation detection methods, including metagenomic and amplicon sequencing, for diagnosing bovine respiratory and enteric disease in cattle. The scope encompasses comparing these advanced techniques against traditional diagnostic approaches to assess their potential utility in veterinary practice. The authors highlight that these methods aim to enhance diagnostic accuracy and strengthen surveillance capabilities within cattle populations. However, the review does not report specific sample sizes, settings, or primary outcome data, as these details were not reported in the source material.

The authors synthesize that while these technologies offer promise for supporting sustainable cattle production systems, their current utility is constrained by significant scientific and practical barriers. A key limitation identified is that interpretation remains challenged by the still-evolving understanding of microbial contributions to pathogenesis. Consequently, the review cautions that establishing causal links between microbial signatures and disease outcomes requires robust experimental and epidemiological studies, which are currently lacking. The authors also note that progress toward clinical integration is hindered by the need for methodological standardisation, validation, and improved interpretive frameworks.

In terms of practice relevance, the review suggests these tools could eventually improve disease management, but immediate adoption faces hurdles. Safety data, such as adverse events or tolerability, were not reported in the source. The authors conclude that while the potential for these methods is significant, clinicians should proceed with caution until methodological gaps are addressed and the field matures further. The review serves as a call for further research to validate these tools before they can be reliably integrated into routine diagnostics.

Study Details

Study typeSystematic review
EvidenceLevel 1
PublishedApr 2026
View Original Abstract ↓
Respiratory and enteric diseases are major contributors to morbidity, mortality, and economic loss in cattle production, with significant implications for animal welfare, particularly in calves. Traditional diagnostic approaches have laid the foundation for pathogen detection in cattle, providing essential tools for disease surveillance and control. However, their targeted nature limits the capacity to identify unexpected, novel, or polymicrobial infections that often underlie complex respiratory and enteric syndromes. Recent advances in molecular technologies, particularly amplicon sequencing (metataxonomics), metagenomics, and metatranscriptomics, enable untargeted, high-resolution profiling of microbial communities directly from clinical samples, offering transformative potential for research and diagnostics. This review synthesises current applications of these approaches in bovine respiratory and enteric disease research, highlighting key findings across virology, bacteriology, and parasitology. Collectively, these studies have expanded the catalogue of the microbial diversity, yet their interpretation remains challenged by the still-evolving understanding of microbial contributions to pathogenesis. Progress toward clinical integration is further hindered by the need for methodological standardisation, validation, and improved interpretive frameworks. Looking ahead, advancing these technologies will require harmonised protocols, integration of multi-omics datasets, and robust experimental and epidemiological studies to establish causal links between microbial signatures and disease outcomes. By bridging discovery and application, these approaches hold the potential to enhance diagnostic accuracy, strengthen surveillance, and support sustainable cattle production systems. As these technologies continue to evolve, they are likely to play an increasingly central role in bovine disease research and diagnostics.
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