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Therapeutic Suppression of Nonsense Mutation: An Emerging Target in Multiple Diseases and Thrombotic Disorders
Md Asiful Islam1, Fahmida Alam1, Mohammad Amjad Kamal2
1Human Genome Centre, School of Medical Sciences, Universiti Sains Malaysia, 16150 Kubang Kerian, Kelantan. Malaysia.
Abstract:
Nonsense mutations contribute to approximately 10-30% of the total human inherited diseases via disruption of protein translation. If any of the three termination codons (UGA, UAG and UAA) emerges prematurely [known as premature termination codon (PTC)] before the natural canonical stop codon, truncated nonfunctional proteins or proteins with deleterious loss or gain-of-function activities are synthesized, followed by the development of nonsense mutation-mediated diseases. In the past decade, PTC-associated diseases captured much attention in biomedical research, especially as molecular therapeutic targets via nonsense suppression (i.e. translational readthrough) regimens. In this review, we highlighted different treatment strategies of PTC targeting readthrough therapeutics including the use of aminoglycosides, ataluren (formerly known as PTC124), suppressor tRNAs, nonsense-mediated mRNA decay, pseudouridylation and CRISPR/Cas9 system to treat PTC-mediated diseases. In addition, as thrombotic disorders are a group of disease with major burdens worldwide, 19 potential genes containing a total of 705 PTCs that cause 21 thrombotic disorders have been listed based on the data reanalysis from the 'GeneCards® - Human Gene Database' and 'Human Gene Mutation Database' (HGMD®). These PTC-containing genes can be potential targets amenable for different readthrough therapeutic strategies in the future.
Insights
Nonsense mutations cause inherited diseases by creating premature stop codons (PTCs). This review explores readthrough therapies, including novel targets for thrombotic disorders, to restore protein function.
Area of Science:
- Genetics and Molecular Biology
- Pharmacology and Therapeutics
- Human Disease Research
Background:
- Nonsense mutations, responsible for 10-30% of inherited diseases, lead to truncated nonfunctional proteins via premature termination codons (PTCs).
- PTC-associated diseases are increasingly recognized as critical targets for molecular therapies, particularly through nonsense suppression strategies.
Purpose of the Study:
- To review current and emerging therapeutic strategies for treating diseases caused by premature termination codons (PTCs).
- To identify potential gene targets for readthrough therapies in thrombotic disorders.
Main Methods:
- Literature review of PTC readthrough therapeutics, including aminoglycosides, ataluren, suppressor tRNAs, and gene-editing technologies.
- Bioinformatic analysis of GeneCards® and HGMD® databases to identify PTCs in genes associated with thrombotic disorders.
Main Results:
- Multiple therapeutic approaches for PTCs are discussed, such as translational readthrough using small molecules, tRNA-based strategies, and CRISPR/Cas9.
- Identification of 19 candidate genes with 705 PTCs linked to 21 thrombotic disorders.
Conclusions:
- Nonsense suppression therapies offer promising avenues for treating a range of genetic disorders.
- The identified PTC-containing genes in thrombotic disorders represent novel targets for future therapeutic interventions.
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