Catching rays
An advanced-laser team enlists supercomputing to shed light on optimal designs.
An advanced-laser team enlists supercomputing to shed light on optimal designs.
Climate modelers are analyzing the past 150 years of weather to compare today’s storms and climate trends to yesteryear’s.
Detailed computer models are helping researchers understand and improve complex chemical reactions in ultra-lean premixed flames.
Computation tweaks coal conversion to boost efficiency.
Huge simulations are illuminating one of the mysteries of fusion energy: how conditions on the edge of a super-hot plasma cloud influence events in the cloud core.
LBNL researchers are out to break supercomputing bottlenecks with UPC, a code that cuts communication to one direction.
Scientists apply one of the world’s most powerful computers to decipher turbulent flows in flames – a key factor in understanding and improving combustion.
Proteins can be unpredictable, kinking into shapes that help to determine these biological workhorses’ functions – or dysfunctions. A University of Washington biologist is using high-performance computers to untangle proteins.
In the past few decades, computation has become so critical that combustion experimentation through simulation has become the only game in town.
Computer scientists must tweak codes to optimize performance on today’s supercomputers. Orio uses annotations to automate the process.