Aug 2026· Journal of Musculoskeletal Surgery and Research· 1 citation· 38 references
TL;DR
This review evaluates the global and regional burdens of undiagnosed rare genetic diseases and outlines a strategic, multi-omics functional workflow tailored to address complex, hidden variants in the highly consanguineous population of Saudi Arabia.
Abstract
Rare genetic diseases present with a broad spectrum of clinical manifestations, frequently affecting multiple organ systems or causing isolated, severe physical impairments. These disorders represent a profound public health and socioeconomic burden due to prolonged diagnostic delays, suboptimal clinical management, and the lack of targeted therapeutic options. While early detection remains paramount to establishing effective clinical care, rehabilitation protocols, and orthopedic interventions, the molecular etiologies of numerous musculoskeletal, neurodevelopmental, and immunological rare conditions remain completely unknown. Key drivers of this diagnostic gap include fragmented healthcare access, high costs of advanced genomic technologies, and a lack of integrated research pipelines capable of translating variants of uncertain significance into confirmed disease-causing genes. Identifying and functionally validating these genetic factors is essential for expanding the known Mendeliome, discovering novel diagnostic biomarkers, and revealing targetable pathways for future therapeutics. In this review, using an implementation model, we evaluate the global and regional burdens of undiagnosed rare genetic diseases and outline a strategic, multi-omics functional workflow tailored to address complex, hidden variants in the highly consanguineous population of Saudi Arabia.
Whole-genome sequencing is increasingly emerging as a first-line genomic strategy for pediatric rare diseases, while complementary technologies, expert phenotyping, and iterative data interpretation remain essential for comprehensive and accurate diagnosis and equitable access to genomic medicine.
Natàlia Caelles-Gramunt, J. Pijuan· Children· 1 citation
RGP demonstrates that a research-based, patient-driven remote sequencing study can effectively bridge a diagnostic gap for rare disease families underserved in current clinical care and underscores the clinical utility of GS with frequent re-analysis.
A. O'Donnell-Luria, S. DiTroia, Melanie C. O'Leary et al.· medRxiv· 0 citations
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.
J. Olival, J. Pijuan, Natàlia Caelles-Gramunt et al.· Archives of Medical Research· 0 citations
This review systematically evaluates the associated disease burden and critically appraises the limitations of current diagnostic and treatment paradigms, as well as the unmet needs in clinical practice to provide critical insights and a theoretical framework to inform future research directions, optimise therapeutic r...
Ao Wang, Jie He, Ke-Liang Liu et al.· Frontiers in Pediatrics· 0 citations
Establishing a precise genetic diagnosis has become increasingly important because it improves prognostic accuracy, guides genetic counseling and cascade testing, identifies patients with treatable hereditary neuropathies, and facilitates enrollment in gene-specific clinical trials and emerging precision therapies.
The findings underscore the value of reviewing all strong genetic variants within a multidisciplinary team setting, facilitating a bidirectional exchange of expertise, which enhances diagnostic accuracy, particularly when the underlying cause of the disease is not immediately apparent.
M. Oud, Elise A. Ferreira, C. V. van Karnebeek et al.· Journal of Inherited Metabol...· 0 citations
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