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Texas Boosts U.S. Science With Fastest Academic Supercomputer In The World

The Texas Advanced Computing Center (TACC) at The University of Texas at Austin today launched Frontera, the fastest supercomputer at any university and the fifth most powerful system in the world. TACC is also home to Stampede2, the second fastest supercomputer at any American university. The launch of Frontera solidifies UT Austin among the world’s academic leaders in supercomputing.

Joined by representatives from the National Science Foundation (NSF) — which funded the system with a $60 million award — UT Austin and technology partners Dell Technologies, Intel, Mellanox Technologies, DataDirect Networks, NVIDIA, IBM, CoolIT and Green Revolution Cooling inaugurated a new era of academic supercomputing with a resource that will help the nation’s top scientists explore science at the largest scale and make the next generation of discoveries.

“Scientific challenges demand computing and data at the largest and most complex scales possible. That’s what Frontera is all about,” said Jim Kurose, assistant director for computer and information science and engineering at the NSF. “Frontera’s leadership-class computing capability will support the most computationally challenging science applications that U.S. scientists are working on today.”

Frontera has been supporting science applications since June and has already enabled more than three dozen teams to conduct research on a range of topics from black hole physics to climate modeling to drug design, employing simulation, data analysis and artificial intelligence at a scale not previously possible.

First announced in August 2018, Frontera was built in early 2019 and earned the No. 5 spot on the TOP500 list of supercomputers in June, achieving 23.5 PetaFLOPS (23.5 thousand million million floating-point operations per second) on the high-performance LINPACK benchmark, a measure of the system’s computing power.

“It’s a great machine, especially for quantum mechanics applications,” said Olexandr Isayev, a chemist at the University of North Carolina who used Frontera to run more than 3 million atomic force field calculations in less than 24 hours — a major achievement in high-speed quantum computation. “We’re really looking forward to running large-scale calculations that were not possible before.”

“The lightning speed at which Frontera performs computations is very beneficial,” added Ganesh Balasubramanian, an assistant professor of mechanical engineering and mechanics at Lehigh University, who during the early user period experienced a five-time speed-up in his simulations of solar material manufacturing. “Overall, the entire pace of computational research will be increased by the arrival of Frontera.”

Frontera combines Dell EMC PowerEdge servers with 8,008 compute nodes, each of which contains two second-generation Intel Xeon scalable (“Cascade Lake”) processors, totaling more than 16,000 processors and nearly half a million cores, connected by a 200 gigabit per second HDR Mellanox InfiniBand high-speed network.

The system incorporates innovative flash storage from DataDirect Networks and novel cooling systems from CoolIT, Cooltera and Green Revolution Cooling (GRC), and it employs several emerging technologies at unprecedented scale, including high-powered, high-clock-rate versions of the latest Intel Xeon processors, Intel Deep Learning Boost, Intel Optane memory and several kinds of liquid cooling.

In the coming months, Frontera will integrate with cloud providers Microsoft, Google and Amazon to provide researchers access to emerging computing technologies and long-term storage.

Frontera (Spanish for “frontier”) will operate for at least five years and will support hundreds of research projects and thousands of researchers in nearly every field of science over its lifetime. It is expected to have a major impact on:

  • Natural hazards modeling — predicting the trajectory and intensity of storms, and helping to design infrastructure that can withstand the strongest disasters;
  • Genomics — including precision agriculture to feed the world’s growing population;
  • Energy research — from fusion to solar power to cleaner coal;
  • Astrophysics — including multimessenger astronomy and gravitational wave modeling;
  • Materials sciences — using a combination of modeling and deep learning to accelerate the development of new molecules for medicine and engineering.

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