With precise knowledge of neutrino mixing, it is now possible to start using neutrinos as a tool to understand why the universe is built from matter rather than antimatter -- one of the fundamental questions of the universe.

The muon, a heavy cousin of the electron, is well-suited for precision studies due to its relatively long lifetime and large mass.

Increasing productivity and efficiency, and reducing operating costs and waste, by reconfiguring existing operation schemes into ones that are both more precise and more efficient

Applying data and analytics to processes, supply chains and interconnected manufacturing plants

Additive manufacturing offers a new paradigm for engineering design and manufacturing by enabling unique macro-structural design of components and micro-structural design of the material.

Argonne’s research into materials for high-stress applications and harsh conditions develops materials that perform well under the rigors of challenging environments, such as pressure, temperature, and irradiation

Argonne scientists have spent decades seeking new ways to fight the negative consequences of friction and wear.

Argonne’s Advanced Materials Manufacturing work focuses on research, development and demonstration of new materials with desirable properties for use in energy saving applications, such as advanced batteries and catalysts.

Using light-source-based X-ray structural molecular biology, our group studies macromolecules and their interactions, facilitating understanding of cellular processes and helping to define biological concepts.

We develop in vitro and in silico methods to improve understanding of microorganisms, their metabolisms, and their interactions.