Novel superconducting nanowire sensor R&D for nuclear physics applications

We focus on first-principles study of quantum chromodynamics to quantify the quark and gluon structures of hadrons and nuclei, which are probed at high-energy colliders.

We study the properties of atomic nuclei and neutron-star matter starting from the interactions between the constituent protons and neutrons, as probed by experiments at ATLAS, FRIB, and other facilities worldwide.

Argonne’s Nuclear Science and Engineering Division researchers have developed a number of large-scale computer codes for scientific and engineering applications. These codes are validated and maintained for application in a variety of research programs.

Analyzing how different rules and regulations in the electricity market impact the short- and long-term performance.

Enhancing power system decision making to achieve cost-effective and reliable low-carbon power systems.

Enhancing models to capture the value of energy storage in evolving power systems

Assess the opportunities for zero-carbon nuclear power in decarbonized power systems of the future.

Using a wholistic approach to tackle the challenge of carbon capture to fight climate change.

Decreasing the gap between material discovery and application to increase availability and access to new materials.