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

A new computer modelling approach lends a hand with designing lighter, sturdier aircraft components from next-generation composite materials.

Through machine learning, a new mathematical model aims to reduce fuel costs and improve the timeliness of tugboat services in high-traffic ports.

A closer look at aluminium battery electrolytes sheds light on the complex mechanics that set them apart from lithium-ion systems.

Dual-atom catalysts overcome a significant barrier in lithium-sulfur battery performance, opening a new paradigm for catalyst design in next-generation batteries.

Inspired by sponges and trees, a novel hydrogel design paves the way for a new generation of multi-functional electronic soft sensors.

Through machine learning-aided design, A*STAR scientists discover new additives to suppress hazardous metal deposits in high-performance lithium metal batteries.

A big data study reveals that shifts in emotional expressions on social media can predict changes in demand for mental health care services.

As artificial intelligence and other digital innovations continue to reshape the internet landscape, A*STAR is accelerating efforts to combat a new wave of safety risks from harmful online content and cyberattacks.

A tough yet thin coating for functionalised copper catalysts offers a performance boost for carbon dioxide-to-ethanol conversion.

Simple tweaks in the microstructure of 3D-printed aluminium alloys add exceptional mechanical and thermal properties for semiconductor and aerospace applications.

Through a unique molecular clamping effect, a novel organic-inorganic composite material offers a performance boost for next-generation batteries.

From innovative medical devices to advanced manufacturing partnerships, the work of A*STAR recipients of the 2024 President’s Science and Technology Awards exemplify the importance of translating research into clinical and commercial outcomes.