Skip to main content

All News

1 - 10 of 4464 Results

Illustration of green sparkly background with the words "Honors and Awards" with an oak leaf underneath

Researchers Sang-Ho Kim, An-Ping Li, Bronson Messer and Zac Ward of ORNL have been named Fellows of the American Physical Society in recognition of their outstanding impact in their respective fields.

A woman with long dark hair smiles at the camera, wearing a gray blazer and necklace, posed against a blue-gray studio background.

Ayana Ghosh has been named an Early Career Distinguished Presenter by the Materials Research Society for the 2025 MRS Fall Meeting and Exhibit.

Quantum Science Center

The Department of Energy has renewed funding for the Quantum Science Center through 2030 to create a new scientific ecosystem for fault-tolerant, quantum-accelerated high-performance computing.

A visualization showing a quantum computing system connected to classical supercomputing infrastructure. On the left, a cryogenic quantum processor is suspended within a metal frame, linked by golden cables to nearby electronics and control units. These control units are connected to several large black server racks on the right, representing a hybrid quantum–classical computing environment. The image highlights the data flow and integration between quantum hardware and classical computing resources.

ORNL, NVIDIA, and HPE are partnering to integrate quantum computing, AI, and high-performance computing using NVIDIA NVQLink and CUDA-Q, establishing a hybrid testbed at ORNL to advance quantum–classical convergence and scientific discovery.

Series of black computer cabinets with Discovery printed on the front

The U.S. Department of Energy announced today its newest supercomputers, Discovery and Lux, at Oak Ridge National Laboratory that will expand America’s leadership in artificial intelligence for scientific computing, strengthen national security, and drive the next generation of Gold Standard Science and innovation.

Illustration of the RE-INTEGRATE grid modeling tool that has a close up image of what the grid looks like before and after a blackout in the grid over Augusta, Georgia

Researchers at ORNL have developed a new simulation platform for understanding and predicting the behavior of the modern grid. Using a combination of mathematical tools, automation and analysis, the approach provides highly accurate results with less computing time at a lower cost, increasing the reliability of electricity.

An optical microscopy image of nuclear grade PCEA graphite captured at ORNL demonstrates the tiny pores, voids, and cracks that are inherent to this form of graphite.

A study led by ORNL answers a decades-old question in nuclear science: Do tiny pores in graphite affect nuclear reactor performance?  The answer is clear: Graphite’s natural porosity does not affect its performance as a moderator of nuclear reactions. The lab's research confirms that the tiny cracks and voids in graphite do not disturb the atomic vibrations that determine its interactions with neutrons. 

Illustration of a simulated a 33-engine configuration, focusing on the interacting exhaust plumes

Using a new computational technique called information geometric regularization researchers from the Georgia Institute of Technology and the Courant Institute of Mathematical Sciences at New York University conducted the largest-ever computational fluid dynamics simulation of fluid flow on the Frontier supercomputer at ORNL.

Illustration of galaxy clusters in teal and blue colors are splattered across the image

The results of a study conducted on the Frontier supercomputer at the Department of Energy’s Oak Ridge National Laboratory offer the clearest portrait so far of how some galaxies regulate the energy produced by supermassive black holes at their cores.

This component was 3D-printed, filled with a silicon-carbide pre-ceramic polymer and heat-treated to produce amorphous silicon carbide.

Scientists at ORNL have integrated binder jet additive manufacturing with an advanced post-processing method to fabricate leak-tight ceramic components, overcoming a key challenge of ceramic additive manufacturing.