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

Magnetic resonance imaging provides insight into myocardial mechanics after a heart attack

Two-dimensional
organic lattices are easier and safer to work with than inorganic materials for
spintronic and quantum computing applications

More efficient chips based on plasmonics are a step closer to reality through better control of the directional excitation of plasmons in a gold grating

Simulations show why platinum nanoparticles become less effective catalysts at small sizes

Engineered structures that can alter the speed of light could benefit optical communication systems

Interdisciplinary study exposes how structural flaws dictate failure strength and deformation in nanosized alloys with super-resilient properties

A*STAR researchers are extracting useful information from billions of social media posts to support businesses, governments and healthcare professionals

Blocking the spliceosome delays the progression of lymphoma in mice

A counterintuitive approach yields big benefits for high-dimensional, small-sized problems

An expression for droplet deformation promises to simplify calculations for a wide range of applications

Computer simulations reveal why semiconductor microspheres containing metal nanoparticles are so effective at harnessing sunlight to accelerate chemical reactions

Calculations reveal how mixtures of different elements can control the thermal properties of nanowires