Jan 2026· Human Mutation· Vol 2026· 0 citations· 89 references
Medicine
TL;DR
This review systematically examines the current application of multi‐omics biomarkers in genetic neuromuscular diseases and provides an in‐depth analysis of the multifaceted barriers encountered during the translation process, including technical hurdles, clinical validation complexities, data interpretation challenges, and health system‐level obstacles.
Abstract
Genetic neuromuscular diseases are highly heterogeneous disorders characterized by diagnostic challenges and limited therapeutic options, underscoring an urgent need for precise biomarkers. The rapid advancement of multi‐omics technologies has broadened biomarker discovery from single genomics to multidimensional integrative analyses encompassing transcriptomics, proteomics, and metabolomics. This progression offers opportunities to improve disease diagnosis, subtyping, prognosis assessment, and treatment monitoring. However, translational gaps persist between multi‐omics discoveries and clinically applicable biomarkers. This review systematically examines the current application of multi‐omics biomarkers in genetic neuromuscular diseases. It provides an in‐depth analysis of the multifaceted barriers encountered during the translation process, including technical hurdles, clinical validation complexities, data interpretation challenges, and health system‐level obstacles. Furthermore, the review explores emerging solutions including artificial intelligence‐assisted decision‐making, ethical governance, and policy preparedness. The review aims to offer a framework for constructing a potentially responsible and efficient multi‐omics translation in genetic neuromuscular diseases.
The value of MODPM lies not in stacking additional data layers but in building a multiscale, continuously learnable framework to link biological heterogeneity to clinically interpretable and actionable decisions.
A comprehensive clinical workflow is outlined that integrates deep phenotyping, genomic variant identification, and functional validation with multi-omics approaches to enhance diagnostic accuracy in RDs and improve understanding of RDs within the framework of precision medicine.
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