Transforming cancer care through clinical excellence
Melika Davis at BeOne reflects on the inspiration and drive that has helped her forge a successful career in clinical operations.
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Melika Davis at BeOne reflects on the inspiration and drive that has helped her forge a successful career in clinical operations.
Scientists have identified protein tyrosine phosphatase delta (PTPRD) as a key regulator of liver metabolism, offering a potential new drug target for treating metabolic liver diseases like MASLD and MASH.
Researchers have discovered a breakthrough method to silence MRSA's drug resistance, restoring its sensitivity to standard antibiotics and offering new hope in the fight against superbugs.
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.
Capgemini's new AI-powered methodology reduces data requirements by 99 percent and accelerates bioengineering breakthroughs, including improved plastic degradation and faster drug discovery.
UK Biocentre has significantly expanded its sample storage capacity with the addition of Azenta's BioArc Ultra, adding space for 16 million more samples to support vital health research.
To fully unlock the potential of immunotherapy for cancer patients, we need better targets, not just better treatments. Hear from Michelle Teng, CEO of Etcembly, on how AI is decoding the immune repertoire and designing new therapies.
New study shows E. coli resists antibiotics by modifying its ribosome structure, blocking drug binding and enabling growth despite treatment.
Researchers have identified underlying KRAS mutations which drive associated risk of particular clinical outcomes.
Genome and transcriptome sequencing revealed that subtypes such as TCF3/4::HLF were associated with an increased risk of relapse.
The study’s results indicate that spatial sequencing of mixed-type breast cancers could inform personalised treatment.
Understanding how MMR-deficient colorectal cancers drive tumour growth and avoid immune detection could pave the way for personalised cancer medicine.
The discovery that omental fat has a mechanism to limit adipocyte formation may lead to new treatments for obesity and metabolic disease.