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Is there any disease in the liver that cannot be corrected with base editing? 


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Base editing has shown promise in correcting genetic liver diseases. However, some severe cases, like urea cycle disorders, may still pose challenges. These enzymopathies result from inherited deficiencies in urea cycle genes, requiring liver transplantation as the definitive treatment due to limited donor availability . While base editing has been successful in correcting phenylketonuria in mice without off-target mutations, some liver disorders may still present complexities. Liver diseases involving defective or non-functional proteins have been targeted with gene therapy and genome editing, particularly using base editors, to correct DNA-level defects . Despite advancements, the effectiveness of base editing in addressing all liver diseases, especially those with complex genetic underpinnings, may vary, necessitating further research and tailored approaches.

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Base editing technologies have shown promise in correcting defects underlying rare liver diseases, suggesting potential for correcting a wide range of hepatic disorders.
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