A*STAR Institute of High Performance Computing (A*STAR IHPC)

A new method for fabricating structures in optical devices improves their ability to capture and emit light, paving the way for advanced communication and sensor technologies.

Inspired by spider silk, researchers develop a new biocompatible wrapping film that can transform how medical implants interface with human tissues.

From production to storage and usage, A*STAR research institutes are tackling challenges in sustainable energy to meet the needs of the 21st-century.

A new approach to generating terahertz radiation offers a compact, tuneable and scalable solution for faster data transmission and improved imaging applications.

A groundbreaking method to incorporate copper into graphene-like coordination polymers (GCPs) can unlock exciting possibilities for electronics, energy storage and materials science.

New electromechanically active thin films can revolutionise how devices respond to electrical signals for diverse industrial applications.

An enhanced computational design method uses deep learning to accelerate the development of light-based computer chip technologies.

Using an innovative approach, researchers discover how special metal blends remain exceptionally strong and flexible in extreme environments such as those in jet engines and nuclear reactors.

A*STAR scientists use advanced computer models to create a massive database of natural products for drug discovery and beyond.

In a medicinal chemistry breakthrough, scientists develop a precise and efficient method of creating chiral sulfones for safe and effective medicines.

New high-resolution chemical insights reveal novel opportunities for making plastic production greener, more cost-effective and more efficient.

A confluence of computational modelling and machine learning helps researchers overcome barriers to complex alloy design.