Delivering scientific discoveries and technical breakthroughs
The Physical Sciences Directorate (PSD) conducts highly integrated basic and applied research programs that develop new materials, chemical processes, and technologies for energy generation and storage and environmentally benign energy use. Our research encompasses foundational science in chemistry, materials science, nanoscience, and physics.
Our scientists work in a collaborative environment to develop composites and alloys to withstand the extreme environments in nuclear and fusion reactors, understand why there is more matter than antimatter in the universe, design new catalysts for clean energy, support the search for new superheavy elements, develop strong lightweight materials for energy-efficient transportation, enable safe high-performance solid-state batteries, advance direct air capture of CO2, develop self-healing polymers for energy-efficient buildings, and advance new materials for quantum sensing and quantum computing.
Our R&D portfolio spans from scientific discovery to technology transfer. It integrates precise synthesis and advanced processing methods with theory, modeling and simulation, and state-of-the art characterization tools, using ORNL’s signature strengths in high-performance computing, data science, and neutron scattering. PSD is also home to the Center for Nanophase Materials Sciences.
Over the next decade, PSD will deliver the foundational knowledge needed for the discovery, design, synthesis, and fabrication of next-generation materials with novel structures, properties, and function to address pressing energy, environmental, and national security challenges. We will deliver fundamental insight regarding chemical transformations and energy flow in systems and provide an understanding of the origin and nature of matter. We will move beyond current approaches to scientific discovery and drive a “science of the future” strategy by integrating high-performance computing, data science, and artificial intelligence with materials synthesis, fabrication, and characterization to accelerate the innovation cycle. We will take advantage of advances in precision synthesis, quantum information science, neutron scattering, and characterization across length and time scales to redefine how the world makes, understands, and uses materials.