A*STAR researchers identified the mechanism behind how a common gene mutation in kidney cancer impacts chromatin remodelling and drives tumour development, opening up new possibilities for therapeutic interventions.
A breakthrough in 3D-printed manufacturing technologies creates alloys with superior mechanical properties, offering exciting new possibilities for diverse industrial applications.
A*STAR researchers tackle the challenge of creating therapeutic antibodies that effectively kill tumours and are also easily scalable in manufacturing settings.
Researchers pioneer new pathways towards miniaturised electronics with a scalable, high-efficiency liquid-printing technology for semiconductor manufacturing.
Researchers develop a novel and more efficient bioprocess for synthesising a highly valued chemical from plants that is used by the fragrance industry.
A new computational tool accurately predicts RNA modifications from sequencing data, allowing researchers to study and develop novel therapies for complex diseases such as cancer.
A new approach combines surface-enhanced Raman spectroscopy with advanced computer analysis to accurately and rapidly detect lung cancer by analysing fluid around the lungs.
An in-depth review of catalysts used in clean energy generation reveals valuable insights on the dynamics between particle size, structure and their reaction efficiencies.
A new deep learning method outperforms traditional methods for identifying genetic mutations from DNA sequences and can be a valuable tool for improved cancer diagnostics.