Antisense oligonucleotides target mutant H3F3A mRNA to reduce tumor growth and promote neural stem cell differentiation.
Antisense oligomers hybridize to pre-mRNA regions to drive exon 2 inclusion and restore functional acid alpha-glucosidase protein levels.
Inosine-containing oligonucleotides induce dystrophin synthesis while reducing immunogenicity and aggregation.
Antisense oligomers bind COL7A1 pre-mRNA splice junctions to exclude exon 80 and restore functional type VII collagen expression.
Allele-specific splice switching oligonucleotides promote pseudoexon incorporation into mature mRNA transcripts.
Modified oligonucleotides block exon 17 splicing in the APP transcript, preventing gamma-secretase cleavage and reducing neurotoxic Aβ42 levels.
Modified antisense oligonucleotides in AAV vectors restore reading frames, reducing injection frequency and toxicity.
Antisense oligonucleotides bind conserved TDP-43 binding sites on pre-mRNA transcripts, correcting aberrant splicing and restoring normal gene expression.
Antisense oligonucleotides hybridize with CFTR RNA transcripts to modulate splicing, restoring functional protein levels despite persistent lung infections.