Key result
Modern genomics techniques have enabled the discovery of several genes involved in platelet production and function, advancing the understanding of inherited platelet disorders.
This review highlights recent advances in understanding the genetic and molecular basis of inherited platelet disorders.
Genomic insights into platelet disorders may aid targeted diagnostics; leaves open therapeutic translation pending prospective studies.
Over the past 4 decades, a better understanding of the genetic origins of inherited platelet disorders has illuminated avenues of investigation in megakaryopoiesis and has identified targets of pharmacologic intervention. Many of these discoveries have been translated into clinical medicine. The success of inherited platelet disorder research is underpinned by broader advances in methodology through the biochemical and molecular revolution of the 20(th) and 21(st) centuries, respectively. Recently, modern genomics techniques have affected platelet and platelet disorders research, allowing for the discovery of several genes involved in platelet production and function and for a deeper understanding of the RNA and miRNA networks that govern platelet function. In this short review, we focus on recent developments in the genetic elucidation of several disorders of platelet number and in the molecular architecture that determines the "genetic makeup" of a platelet in health and disease.
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Hinckley et al. (2014) conducted a review in Congenital platelet disorders. Modern genomics techniques have enabled the discovery of several genes involved in platelet production and function, advancing the understanding of inherited platelet disorders.
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