Dentatorubral-pallidoluysian atrophy (DRPLA) is a lethal neurodegenerative disorder caused by pathogenic expansion of CAG repeats within the atrophin-1 (ATN1) gene. As DRPLA belongs to the broader class of repeat expansion disorders (RED) that are driven by toxic gain-of-function effects, reduction or elimination of ATN1 expression is predicted to provide therapeutic benefit.
Neurotrimin (NTM) is a member of the IgLON family, the disruption of which has been tied to emotional learning deficits and anxiety-like behavior in animal models. A mutation in the NTM gene was found to disrupt NTM protein heterodimerization with other IgLON family members, suggesting a potential link between NTM dysfunction and neurodevelopmental and behavioral disorders.
Gene editing technologies are moving forward in preclinical development with innovative strategies designed to treat diseases at their root and even reverse them.
Gene editing technologies are moving forward in preclinical development with innovative strategies designed to treat diseases at their root and even reverse them. However, many approaches still struggle to reach target cells or tissues – either they fail to arrive, or their efficacy is low. In vivo therapies face numerous challenges, but despite these hurdles, 2025 has marked a year of remarkable progress.
Alagille syndrome (ALGS) is a rare, multisystem genetic disorder most commonly caused by haploinsufficiency of the JAG1 gene, leading to reduced JAG1 protein function and impaired development of intrahepatic bile ducts. Researchers from Arnatar Therapeutics Inc. described the development of antisense oligonucleotides (ASOs) engineered using their proprietary ACT‑UP1 platform to upregulate endogenous JAG1 expression and thereby address the underlying genetic deficiency.
Gene editing technologies are moving forward in preclinical development with innovative strategies designed to treat diseases at their root and even reverse them. However, many approaches still struggle to reach target cells or tissues – either they fail to arrive, or their efficacy is low. In vivo therapies face numerous challenges, but despite these hurdles, 2025 has marked a year of remarkable progress.
Mutations in the NF1 gene lead to neurofibromatosis type 1, which often leads to bone abnormalities and spine deformity. Efforts to treat or even prevent the disease have been stymied by lack of understanding about how the disease occurs and progresses.
BioWorld’s 2022 end-of-year highlights included a toast to the future – of universal vaccines. Even before SARS-CoV-2 vaccines were developed in record time and saved countless lives during the COVID-19 pandemic, vaccines were a rare bright spot in the fight against infectious diseases. Bacteria are becoming multidrug resistant far faster than new classes of antibiotics are being developed, viral spillover events and vector ranges are increasing, and climate change is helping bacteria and fungi alike breach human thermal protections against infections.
Gene editing can repair mutations that prematurely halt protein synthesis, resulting in incomplete peptides that cause various diseases. However, other approaches achieve the same effect without altering the genome. Startup Alltrna Inc. has developed a strategy based on transfer RNA to bypass the premature stop codons that end early protein translation. The company already has a first clinical candidate that could treat metabolic diseases such as methylmalonemia or phenylketonuria.
Gene editing can repair mutations that prematurely halt protein synthesis, resulting in incomplete peptides that cause various diseases. However, other approaches achieve the same effect without altering the genome. Startup Alltrna Inc. has developed a strategy based on transfer RNA (tRNA) to bypass the premature stop codons that end early protein translation. The company already has a first clinical candidate that could treat metabolic diseases such as methylmalonemia (MMA) or phenylketonuria (PKU).
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