Explore research and development advances across molecular biology, genetics, immunology, pharmacology, neuroscience and emerging scientific disciplines, highlighting discoveries, technologies and translational approaches that drive innovation throughout the drug discovery and therapeutic development pipeline.
Childhood myopia researcher Dr Klaus Trier explores how 7-methylxanthine targets scleral remodelling and axial elongation, and its potential to slow disease progression and reduce the risk of high myopia.
Many biologically important intracellular targets remain difficult to drug. Dr Rab Prinjha examines how screening within living cells could help tackle them.
Why do some colorectal cancers resist immunotherapy? Analysis of patient tumour samples has identified a population of fibroblasts that could help explain treatment resistance.
Professor Joseph C. Wu of Stanford University explains how stem cells, human-relevant models and AI are helping researchers predict which drug candidates are most likely to succeed before clinical trials.
What if one of gene therapy’s biggest obstacles isn’t delivery, but the body’s own cells? Discover why DNA silencing is emerging as a major challenge for long-lasting genetic medicines.
Most inherited retinal diseases still have no approved therapy despite advances in gene therapy. This article explores why researchers are targeting shared disease mechanisms alongside individual mutations.
Antibody-drug conjugates (ADCs) present unique toxicology challenges. Learn which endpoints matter most, how they inform development decisions and why they are essential for building a robust nonclinical safety strategy.
The blood–brain barrier protects the brain from harmful substances, but it also prevents many medicines from reaching their target. Researchers are investigating whether focused ultrasound could safely improve drug delivery.
Understanding where proteins are expressed throughout the body is critical for selecting better drug targets. Here’s how a new human proteome atlas could improve target selection, predict toxicity and support drug repurposing.
Many antibody therapies fail to reach all cancer cells within solid tumours. Researchers have developed a spatial biology technique that maps antibody distribution alongside the tumour microenvironment to investigate why.
Historical toxicology data is often underused. Find out how Virtual Control Groups and AI could help researchers strengthen safety assessment while making better use of existing data.
Ovarian cancer has long proved difficult to treat. Could the answer lie within the disease itself? Discover how synthetic iMSCs could reprogramme the tumour microenvironment and restore anti-tumour immunity.
From uncovering new drug targets to predicting human toxicity, organ chips are showing what they could bring to drug discovery. Professor Donald Ingber of Harvard University discusses where the technology is heading next.
One receptor can protect antibodies from degradation, extend their half-life and become a drug target itself. Explore the science behind FcRn and how researchers measure its function.
Non-animal methods are already used throughout early drug discovery, yet animal testing continues to dominate regulatory safety assessment. Recent initiatives suggest change is coming, but significant scientific and practical challenges remain.
By combining CRISPR knock-in with small peptide tags, researchers can study proteins in their native cellular context, generating more predictive data for translational drug discovery.
How does Ebola virus survive long after recovery? A new study using human cerebral organoids explores viral persistence in neural tissue and the growing role of organoid models in drug discovery research.
Discover how spatial biology is revealing disease mechanisms with implications for biomarkers, immunotherapy and drug development.
Static cultures can miss critical immune–tumour interactions. Learn how the Mera™ flow-based human tissue model better captures T-cell activity to strengthen preclinical immunotherapy research.
Researchers at Cardiff University have identified urolithin A – a compound produced by gut bacteria during the metabolism of substances found in pomegranates – as a new approach for treating cardiovascular disease.