ldrd.inl.govLDRD - Home

You may be trying to access this site from a secured browser on the server. Please enable scripts and reload this page. Turn on more accessible mode Turn off more accessible mode Skip Ribbon Commands Skip to main content Turn off Animations Turn on Animations To navigate through the Ribbon, use standard browser navigation keys. To skip between groups, use Ctrl+LEFT or Ctrl+RIGHT. To jump to the first Ribbon tab use Ctrl+[. To jump to the last selected command use Ctrl+]. To activate a command, use Enter. Browse Tab 1 of 3. Page Tab 2 of 3. Publish Tab 3 of 3. LDRD Currently selected LDRD It looks like your browser does not have JavaScript enabled. Please turn on JavaScript and try again. Home Currently selected Benefits of LDRD LDRD Process Publications Home ​​ The Laboratory Directed Research and Development (LDRD) program is a vital resource for Idaho National Laboratory (INL) to achieve our mission to discover, demonstrate, and secure innovative nuclear energy solutions, clean-energy options, and critical infrastructure. Our LDRD investments stimulate high-impact research, sustain and amplify INL’s core capabilities, and recruit and retain world-class science and technology (S&T) talent for INL and the nation. LDRD Successes ​Dr. Jeffery Aguiar applies machine learning to further the capability to predict and analyze combinatorial material science systems for nuclear applications. He is shortening the development cycle involved in discovering and qualifying new high-entropy alloy systems for molten-salt and fast-reactor applications. This early demonstration delivers on the mission to advance the economic competitiveness of nuclear energy and technology worldwide. Dr. Aguiar's research enables machine learning to predict how a combination of materials will perform in an alloyed state. ​While neutron radiography using film is already practiced to examine nuclear fuels, digital imaging systems struggle to examine fuels because of the radiation that irradiated fuels emit. INL researcher Dr. Aaron Craft, in collaboration with Dr. Anton Tremsin from the University of California at Berkeley, successfully tested an advanced microchannel plate neutron-imaging system for its ability to examine irradiated nuclear fuel. Digital neutron radiographs of irradiated nuclear fuel were successfully acquired using a real-time digital imaging system for the very first time. These promising results could lead to routine use of modern digital neutron-imaging methods for examination of nuclear materials. The world’s first fully digital radiographs of highly irradiated nuclear fuel. The image above shows the top (left) and bottom (middle) caps of an irradiated fuel pin, as well as the top portion of the fueled region (right) that exhibited the highest measured dose rate of 550 R/hr. ​ ​ ​ false,false,1...