Radiochemical Engineering Development Center
Radiochemical Engineering Development Center
At the Radiochemical Engineering Development Center (REDC), experts in radiochemical processing use specialized equipment and systems to produce unique radioisotopes for applications in research, national security, medicine, space exploration, and industry.
The REDC complex – Building 7920, built in 1966, and Building 7930, built in 1968 – are designated as Hazard Category 2 nuclear facilities and include hot and cold laboratories, heavily shielded hot cells, glove boxes, and high bay space. There, experts safely handle alpha and neutron emitters and work with some of the most exotic and rare materials on the planet.
REDC provides world-class capabilities in isotope production, research and development, source fabrication, and the distribution of various unique isotopes. REDC is a key resource for the Office of Science Isotope Program and other US Department of Energy and National Nuclear Security Administration programs advancing materials science, nuclear science and technology, chemistry, nuclear security, and neutron science.
Specifications
Hot Cells
Viewing windows
High-density concrete
Processing
Fiberoptic access
Pneumatic transfer system
Manipulators
Innovation & Contributions
Innovation & Contributions
REDC pioneered many radiochemical separation processes and continues to drive Â鶹ӰÒô for the production, recovery, and purification of radioisotopes for shipment worldwide. Current primary mission areas include producing plutonium-238 for NASA’s radioisotope power systems; isotopes for targeted alpha therapy cancer treatments; transcurium elements (Cf, Bk, Es, Fm) for industrial and research applications; and isotopes such as Cf-252, Se-75, and Ni-63 for industry, national security, and nuclear nonproliferation. Uses include detecting explosive residues at airport security checkpoints; radiology; monitoring coal, cement, and other materials; and analyzing fissile and transuranic material waste.
REDC has contributed to major scientific impacts: supplying heavy actinide isotopes for the discovery of new superheavy element and isotopes, including tennessine, the second-heaviest and most recently discovered element; research on the physics of heavy elements, electron behavior in orbitals, nuclear properties, and nuclear reactions; and research on the chemistry of heavy actinides, chemically stable compounds, the crystal structure of salts, solution chemistry, and spectroscopy