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As the lab–data science divide continues, Ian Kerman looks ahead to a future of deeper collaboration – one where shared skills, smarter tools and a shift in mindset could finally break down the barriers. In this second interview, he shares his vision, practical ideas and advice for the next generation…
Researchers at POSTECH have developed a new 3D brain model that closely mimics the structure and function of human brain tissue – marking a major advance in early disease detection.
Fauna Bio has launched Fauna Brain™, a powerful new AI platform that leverages the company’s expertise in comparative genomics to accelerate drug target discovery.
How do new cancer drugs make it to patients? This episode uncovers the challenges, successes, and AI advancements driving oncology treatments from preclinical screening to clinical trials.
James Atwood, COO of Opentrons, shares how accessible lab automation is helping research teams tackle tighter budgets, faster timelines and complex discovery workflows.
A practicing surgeon turned biotech CEO is developing a novel pain medicine that could sidestep the failures of both opioids and paracetamol.
A new study at Science Tokyo has developed patient-derived organoids to better understand and combat resistance in oesophageal squamous cell carcinoma (ESCC).
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.
Discover how Domain Therapeutics is using its deep knowledge of GPCR biology to create novel therapeutics with the potential to combat inflammatory diseases such as atopic dermatitis, IBD and arthritis.
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.
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.
Radiopharmaceuticals represent a rapidly advancing field in oncology, using radioactive compounds to both detect and treat cancer at the molecular level. This article explores how targeted radiation is improving patient outcomes while reducing systemic toxicity.
