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Porosome Therapeutics has made a groundbreaking discovery in Alzheimer’s research by targeting the disease’s molecular causes, focusing on restoring secretory and metabolic functions. This approach could not only slow progression but potentially reverse early-stage pathology.
The discovery from researchers at Johns Hopkins Medicine reveals how bacteria use the CRISPR-Cas system to store viral DNA, enhancing their immunity against future infections, and potentially paving the way for new phage-based therapies
Gene silencing offers a promising approach to treating rare neurological diseases like H-ABC. With clinical trials on the horizon, find out how targeted therapies could bring real hope to patients and families.
New research reveals how B cells balance mutation and clonal expansion to refine their antibodies. This discovery could lead to more targeted and effective vaccine designs for various diseases.
As cancer therapies evolve, a critical opportunity is emerging in the form of DNA Damage Response (DDR) research. With breakthroughs in genomics, drug delivery and AI, DDR pathways are set to overcome resistance and alter treatment strategies. Find out why now is the perfect moment to refocus on DDR, and…
Pancreatic cancer is notoriously hard to treat, especially when it spreads to the liver in advanced stages. Researchers at UCLA’s California NanoSystems Institute (CNSI) have developed an innovative nanoparticle technology to tackle this challenge.
Abelacimab represents a breakthrough in drug discovery, offering a novel approach to anticoagulation that could potentially prevent strokes with minimal bleeding risk. Learn how this innovative treatment could set new standards for both clinical practice and pharmaceutical 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.
Cellenkos' CRANE technology, led by Dr Simrit Parmar, harnesses regulatory T cells to precisely target and treat inflammatory diseases. This innovative approach offers hope for conditions like aplastic anaemia, myelofibrosis, and ALS.
York University researchers have discovered a genetic mutation in the TRAF1 protein that dramatically reduces inflammation, offering a potential breakthrough in rheumatoid arthritis treatment.
This Friday, February 28, marks Rare Disease Day 2025, a global initiative raising awareness for the 300 million people living with rare conditions. Dr David Reynolds, CEO of LoQus23 Therapeutics, explores how advancements in rare disease research are driving the development of new treatments.
Researchers have identified a small gene, SCN10a-short, that could enable gene therapy to treat malignant cardiac arrhythmias. This discovery offers the potential for a one-time treatment, reducing the reliance on lifelong medication and invasive procedures.
CAR-T therapy has shown effectiveness in cancer treatment, but relapse often occurs due to limited cell persistence. New strategies aim to improve CAR T-cell durability for longer lasting remission.
A new UCLA study reveals that DNA mismatch repair genes play a crucial role in Huntington’s disease by driving neuronal damage and motor impairments. Targeting these genes, especially Msh3 and Pms1, could offer promising therapeutic avenues for the disease.
