Pain relief without the risk: why SRP-001 could change everything
A practicing surgeon turned biotech CEO is developing a novel pain medicine that could sidestep the failures of both opioids and paracetamol.
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A practicing surgeon turned biotech CEO is developing a novel pain medicine that could sidestep the failures of both opioids and paracetamol.
Scientists have developed a simple- 3D mouse tissue model to study how the nose regenerates smell-sensing neurons. The goal is to create an organoid system that can be used to screen potential therapies for smell loss.
A new study at Science Tokyo has developed patient-derived organoids to better understand and combat resistance in oesophageal squamous cell carcinoma (ESCC).
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.
Stanford scientists have successfully grown heart and liver organoids that include functioning blood vessels. This breakthrough overcomes a major size and maturity barrier, which could advance disease modelling and regenerative therapies in the future.
What if you could actually see where a drug travels in the body down to the cellular level. Find out how mass spectrometry imaging (MSI) is making that possible – reshaping drug development from the inside out.
Shift Bioscience has announced new aging research, highlighting the discovery of SB000. This novel single-gene target reverses cellular aging without activating dangerous pluripotency pathways.
Lab scientists and data scientists often speak different languages and that miscommunication can slow down important research. In this interview, Ian Kerman shares how his team is working to break down those walls and spark better collaboration.
EPFL scientists have engineered virus-inspired DNA aptamers that bind infection targets with record selectivity. This innovation could change how we diagnose and treat infectious diseases.
Researchers at the University of Oklahoma have found a way to improve drugs by adding just one carbon atom. This simple change could speed up drug discovery and lower costs.
Drug development has long been hindered by fragmented data and complex processes, but a new wave of AI is reshaping the landscape. By integrating genomic, clinical and molecular data, multimodal models are revealing hidden patterns and accelerating more precise advancements in medicine.
Meet the AI tool that creates proteins that fold better, bind tighter and perform more reliably. Find out why it matters for next-generation medicines.
Nearly a billion people are affected by chronic organ scarring, yet treatments remain limited. Now, Duke-NUS researchers have compiled a scientific ‘handbook’ of immune cell insights that could fast-track breakthroughs in fibrosis therapy.
Scientists have developed a 3D liver model, known as the periportal assembloid. This model replicates the liver’s complex structure and bile transport system, enabling more precise study of disease progression.
Researchers at Texas A&M University have developed advanced vessel-chip technology that closely mimics the complex architecture of human blood vessels, offering a new potential platform for studying vascular diseases and accelerating drug discovery.