Slowing intracellular transport boosts potential for RNA therapies
Researchers at the University of Basel and Roche have discovered that slowing the intracellular transport of RNA-based drugs significantly improves their therapeutic impact.
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Researchers at the University of Basel and Roche have discovered that slowing the intracellular transport of RNA-based drugs significantly improves their therapeutic impact.
Researchers at Cold Spring Harbor Laboratory have demonstrated that an obscure RNA molecule, LINC01235, plays a crucial role in the progression of aggressive triple-negative breast cancer (TNBC) – potentially allowing for the development of targeted therapies against it.
A new study reveals that blocking the enzyme ST6Gal-I reduces toxic plaque buildup in Alzheimer’s disease by suppressing BACE1 expression - highlighting a new target for future treatment strategies.
Dr Justin Taylor of Sylvester Comprehensive Cancer Center has identified a promising drug combination that shrinks colorectal tumours in preclinical models.
Researchers have developed a novel gene therapy approach that reactivates dormant genes by repositioning them closer to genetic switches called enhancers - showing promise for treating blood disorders like sickle cell disease.
Researchers at the University of Alabama have identified reelin, a glycoprotein known for its role in brain development, as a key regulator of neurons in the brain's reward centre, potentially making way for targeted therapies against cocaine use.
See how the new Shasta™ Single Cell System enabled high-throughput single-cell DNA-seq library preparation to detect tumor-driving mutations.
Huntington's disease remains a major challenge, but allele-selective gene editing offers new hope. By targeting only the mutant gene, this approach could provide a one-time, durable treatment. Life Edit’s Dr Amy Pooler reveals how this innovative therapy could reshape HD treatment.
Learn how to simplify the entire DNA template generation workflow, streamlining mRNA therapeutic research.
ElevateBio is teaming up with Amazon Web Services (AWS) to advance CRISPR gene editing using AI and cloud computing. This collaboration aims to accelerate drug discovery for genetic diseases, making next-generation therapies more efficient and accessible.
Cornell researchers have discovered how transposons, or 'jumping genes,' insert themselves into bacterial chromosome ends, potentially transforming genetic engineering and advancing biotechnology. This breakthrough could reshape antibiotic research and unlock new drug discoveries.
Scientists identify thousands of novel enhancers linked to neuronal differentiation and neuropsychiatric disorders, offering new pathways for drug discovery and potential therapeutic targets.
New study reveals that TLE6 protein deficiency causes male infertility in mice. These findings suggest potential genetic causes and future treatment avenues for male infertility.
Tune in to this episode to learn how overcoming the key challenges in personalised medicine could transform the future of healthcare.
This study is the first to demonstrate that NSD2 is foundational to the earliest stage of prostate cancer development.