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

Sheets of carbon just one atom thick could make effective transparent electrodes in certain types of photovoltaic cells

A new method that fabricates gold nanostructures quickly and efficiently could lead to highly sensitive, portable medical sensors

A new computer model of city dynamics could pave the way to planning sustainable urban areas

Theoretical simulations reveal that layered semiconductors with magnetic interfaces are potent catalysts for solar energy capture and conversion

Atomic-level simulations hint at how to control the magnetic properties of layered materials for data storage applications

Mathematical modeling confirms that a nanometer-scale device that can concentrate light into a tiny spot improves optical sensing

Experiments and numerical simulations show that miniaturized ultra-small platinum cylinders weaken when their constituents are reduced in number

Insight into the mechanism of protein aggregation provides a model system that could lead to treatments for several associated diseases

A new computational scheme enables more stable simulations of shockwaves in fluids and may be scalable for large engineering designs

Insights into self-assembled, multicomponent nanostructures on nanowires provide an innovative fabrication approach for high-performance devices

A numerical simulation based on individual preferences provides insights into social attitudes that are unattainable through physical experiments

High-level simulations reveal that plastic deformation in super-resilient alloys is governed by atomic zones with characteristic lengths