National Library of Energy BETA

Sample records for activity critical materials

  1. Critical Materials:

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Critical Materials: 1 Technology Assessment 2 Contents 3 1. Introduction to the Technology/System ............................................................................................... 2 4 2. Technology Assessment and Potential ................................................................................................. 5 5 2.1 Major Trends in Selected Clean Energy Application Areas ........................................................... 5 6 2.1.1 Permanent Magnets for Wind

  2. Critical Materials Workshop

    Office of Energy Efficiency and Renewable Energy (EERE)

    Presentations during the Critical Materials Workshop held on April 3, 2012 overviewing critical materials strategies

  3. Critical Materials Workshop Agenda

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Critical Materials Workshop Sheraton Crystal City 1800 Jefferson Davis Highway, Arlington, VA April 3, 2012, 8 am - 5 pm Time (EDT) Activity Speaker 8:00 am - 9:00 am Registration ...

  4. Critical Materials Institute

    ScienceCinema (OSTI)

    Alex King

    2013-06-05

    Ames Laboratory Director Alex King talks about the goals of the Critical Materials Institute in diversifying the supply of critical materials, developing substitute materials, developing tools and techniques for recycling critical materials, and forecasting materials needs to avoid future shortages.

  5. The Critical Materials Institute | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    The Critical Materials Institute Director Alex King, Operations Manager Cynthia Feller, Jenni Brockpahler and Melinda Thach. Photo left to right: CMI Director Alex King, Operations Manager Cynthia Feller, Jenni Brockpahler and Melinda Thach. Not pictured: Carol Bergman. CMI staff phone 515-296-4500, e-mail CMIdirector@ameslab.gov 2332 Pammel Drive, 134 Wilhelm Hall, Iowa State University, Ames, IA 50011-1025 The Critical Materials Institute focuses on technologies that make better use of

  6. My Account | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    My Account Primary tabs Log in(active tab) Request new password Username * Enter your Critical Materials Institute username. Password * Enter the password that accompanies your ...

  7. Timelines | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    A listing of timelines about various materials of interest to rare earths and critical materials, organized by those specific to rare earth elements, general chemistry and uses. ...

  8. Critical Materials Workshop

    Broader source: Energy.gov [DOE]

    AMO hosted a public workshop on Tuesday, April 3, 2012 in Arlington, VA to provide background information on critical materials assessment, the current research within DOE related to critical...

  9. Critical Dimensions of Water-tamped Slabs and Spheres of Active Material

    DOE R&D Accomplishments [OSTI]

    Greuling, E.; Argo, H.: Chew, G.; Frankel, M. E.; Konopinski, E.J.; Marvin, C.; Teller, E.

    1946-08-06

    The magnitude and distribution of the fission rate per unit area produced by three energy groups of moderated neutrons reflected from a water tamper into one side of an infinite slab of active material is calculated approximately in section II. This rate is directly proportional to the current density of fast neutrons from the active material incident on the water tamper. The critical slab thickness is obtained in section III by solving an inhomogeneous transport integral equation for the fast-neutron current density into the tamper. Extensive use is made of the formulae derived in "The Mathematical Development of the End-Point Method" by Frankel and Goldberg. In section IV slight alterations in the theory outlined in sections II and III were made so that one could approximately compute the critical radius of a water-tamper sphere of active material. The derived formulae were applied to calculate the critical dimensions of water-tamped slabs and spheres of solid UF{sub 6} leaving various (25) isotope enrichment fractions. Decl. Dec. 16, 1955.

  10. Critical Materials Workshop

    Broader source: Energy.gov (indexed) [DOE]

    Critical Materials Workshop U.S. Department of Energy April 3, 2012 eere.energy.gov Dr. Leo Christodoulou Program Manager Advanced Manufacturing Office Energy Efficiency and...

  11. CRITICAL MATERIALS MUSEUM DISPLAY

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    critical materials, rare earth elements (REE), and the national purpose of the CMI. The CSM Geology Museum is the second most visited geology museum at an American university. ...

  12. Resources | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    National Laboratories Links to national laboratories and other facilities with research related to rare earth elements or critical materials. National Energy Technology Laboratory ...

  13. Careers | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Careers The Critical Materials Institute at the The Ames Laboratory, a Department of Energy national laboratory affiliated with Iowa State University, offers a variety of career ...

  14. Critical Materials Hub

    Office of Energy Efficiency and Renewable Energy (EERE)

    Critical materials, including some rare earth elements that possess unique magnetic, catalytic, and luminescent properties, are key resources needed to manufacture products for the clean energy economy. These materials are so critical to the technologies that enable wind turbines, solar panels, electric vehicles, and energy-efficient lighting that DOE's 2010 and 2011 Critical Materials Strategy reported that supply challenges for five rare earth metals—dysprosium, neodymium, terbium, europium, and yttrium—could affect clean energy technology deployment in the coming years.1, 2

  15. Resources | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Resources The Critical Materials Institute offers connections to resources, including: List of resources U.S. Rare Earth Magnet Patents Table Government agency contacts CMI unique facilities CMI recent presentations Photographs via Flick'r: Critical Materials Institute, The Ames Laboratory Videos from The Ames Laboratory Webinars from Colorado School of Mines To offer comments on the CMI website or to ask questions, please contact us via e-mail at CMIdirector@ameslab.gov or call 515-296-4500.

  16. Human Resources at Critical Materials Institute | Critical Materials...

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Human Resources at Critical Materials Institute Each partner within the Critical Materials Institute manages its own hiring. Use these links to find key contacts for CMI partners ...

  17. About Critical Materials | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    The Ames Laboratory channel on YouTube Timelines related to rare earth elements and materials Other sources of information about rare earths: GE: Understanding rare earth metals, ...

  18. CMI Social Media | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Social Media Facebook: Critical Materials Institute Twitter: CMI_hub LinkedIn: Critical Materials Institute Flickr: Critical Materials Institute

  19. CMI Develops Critical Materials Museum Exhibit | Critical Materials

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Institute Develops Critical Materials Museum Exhibit People view CMI exhibit at Colorado School of Mines Geology Museum The Critical Materials Institute developed a museum exhibit at the Colorado School of Mines Geology Museum. The Critical Materials Museum Exhibit is a prototype exhibit for education professionals interested in building a similar exhibit. A series of "how to" reports is being generated at key stages of the design-build process: First report: Critical Materials

  20. CMI Factsheet | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    CMI Factsheet 3D printer uses laser and metals to build new combinations of materials What is the Energy Innovation Hub for Critical Materials? Created by the U.S. Department of Energy, the Energy Innovation Hub is operated under the name the Critical Materials Institute. CMI is led by the DOE's Ames Laboratory, and managed by DOE's Advanced Manufacturing Office. It brings together the expertise of DOE national laboratories, universities, and industry partners to eliminate materials criticality

  1. 2011 Critical Materials Strategy

    Broader source: Energy.gov [DOE]

    This report examines the role that rare earth metals and other key materials play in clean energy technologies such as wind turbines, electric vehicles, solar cells and energy-efficient lighting.

  2. 2010 Critical Materials Strategy

    Office of Energy Efficiency and Renewable Energy (EERE)

    This report examines the role of rare earth metals and other materials in the clean energy economy. It was prepared by the U.S. Department of Energy (DOE) based on data collected and research performed during 2010.

  3. Latest News | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    News News releases CMI in the news News archive CMI social media Latest News News about CMI: Critical Materials Institute, Oddello Industries pursue recovery of rare-earth magnets from used hard drives, August 16, 2016 Solar panels power materials exhibit at Geology Museum, August 2, 2016 New alloy promises to boost rare earth production while improving energy efficiency of engines, June 3, 2016 Critical Materials Institute gains ten industrial and research affiliates, April 11, 2016 On

  4. Critical Materials Institute |

    Broader source: All U.S. Department of Energy (DOE) Office Webpages

    The Ames Laboratory | U.S. Department of Energy Search form Search Search Home Home CMI Materials Research Inventions Projects Researchers Webinars News Resources Success Stories US RE Magnet Patents Table Webinars Education Resources for K-12 Outreach in 2016 Courses Exhibit Webinars Working with CMI Affiliates Associates Team ORNL, Oddello sign CRADA for work on pulling magnets from used hard disk drives signing ceremony for CMI and Oddello to work together to recover rare earth magnets from

  5. CMI Grand Challenge Problems | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    CMI Grand Challenge Problems Time is the biggest issue. Materials typically become critical in a matter of months, but solutions take years or decades to develop and implement. Our first two grand challenges address this discrepancy. Anticipating Which Materials May Go Critical In an ideal world, users of materials would anticipate supply-chain disruptions before they occur. They would undertake activities to manage the risks of disruption, including R&D to diversify and increase supplies or

  6. invention disclosures | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    invention disclosures CMI Invention Disclosures Success for the Critical Materials Institute will be defined by how well it meets its mission to assure supply chains of materials critical to clean energy technologies. To enable innovation in U.S. manufacturing and to enhance U.S. energy security, CMI must develop, demonstrate, and deploy clean energy technology. To direct research in a way to minimize the time to discovery and the time between discovery and deployment, the CMI team includes both

  7. News Archive | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Archive CMI in the news 2016 Oak Ridge National Laboratory: Critical Materials Institute, Oddello Industries pursue recovery of rare-earth magnets from used hard drives, August 16, 2016 Colorado School of Mines: Solar panels power materials exhibit at Geology Museum, August 2, 2016 The White House: The Materials Genome Initiative: The First Five Years, August 2, 2016 Oak Ridge National Laboratory: Mirzadeh, Moyer, Wesolowski named ORNL Corporate Fellows, June 30, 2016 newswise: CMI taps the

  8. Critical Materials Workshop Plenary Session Videos | Department...

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Critical Materials Workshop Plenary Session Videos Critical Materials Workshop Plenary Session Videos Welcome and Overview of Workshop and Energy Innovation Hubs Speakers * Dr. Leo ...

  9. DOE and Critical Materials Video (Text Version)

    Broader source: Energy.gov [DOE]

    This is a text version of the "DOE and Critical Materials" video presented at the Critical Materials Workshop, held on April 3, 2012 in Arlington, Virginia.

  10. News Releases | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Releases CMI taps the power of supercomputing to find rare-earth refining alternatives, June 20, 2016 Mr. Rare Earth, Karl Gschneidner passes away on April 27, April 29, 2016 Ames Laboratory scientist inducted into National Academy of Inventors, April 15, 2016 Critical Materials Institute gains ten industrial and research affiliates, April 11, 2016 How true is conventional wisdom about price volatility of tech metals?, Feb. 11, 2016 Ames Laboratory scientist named to National Academy of

  11. CMI Webinar: Energy Materials and Criticality, 2015-2030 | Critical...

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    CMI Webinar: Energy Materials and Criticality, 2015-2030 The CMI Webinar series includes a CMI-only presentation "CMI Webinar: Energy Materials and Criticality, 2015-2030" by Rod...

  12. Critical Materials Workshop | Department of Energy

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Workshops » Critical Materials Workshop Critical Materials Workshop April 3, 2012 AMO hosted a public workshop on Tuesday, April 3, 2012 in Arlington, VA to provide background information on critical materials assessment, the current research within DOE related to critical materials, and the foundational aspects of Energy Innovation Hubs. Additionally, the workshop solicited input from the critical materials community on R&D gaps that could be addressed by DOE. Questions or suggestions may

  13. Critical Materials Hub | Department of Energy

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Facilities » Critical Materials Hub Critical Materials Hub Green light reflection from a low-oxygen environment 3D printer laser deposition of metal powder alloys. Photo courtesy of The Critical Materials Institute, Ames Laboratory Green light reflection from a low-oxygen environment 3D printer laser deposition of metal powder alloys. Photo courtesy of The Critical Materials Institute, Ames Laboratory Critical materials, including some rare earth elements that possess unique magnetic,

  14. Critical Materials Institute Affiliates Program

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    4 Critical Materials Institute Affiliates Program MEMBER AGREEMENT ("Agreement") WHEREAS, The Ames Laboratory ("AMES"), a U.S. Department of Energy ("DOE") National Laboratory operated by Iowa State University of Science and Technology ("ISU") under the authority of its Contract DE-AC02-07CH11358, with administrative offices at 311 TASF, 2408 Pammel Dr,. Ames, IA 50011-1015, is the recipient of funding from the U.S. Department of Energy's Office of Energy

  15. Critical Materials Institute UPDATE | The Ames Laboratory

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Critical Materials Institute UPDATE An error occurred. Try watching this video on www.youtube.com, or enable JavaScript if it is disabled in your browser. The Critical Materials...

  16. CMI Course Inventory: Mining Engineering | Critical Materials...

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    to rare earths and critical materials. Other courses are available in these areas: Geology EngineeringGeochemistry Metallurgical EngineeringMaterials Science Chemistry...

  17. Critical Materials Workshop Final Participant List

    Broader source: Energy.gov [DOE]

    List of participants who attended the Critical Materials Workshop held on April 3, 2012 in Arlington, VA

  18. Critical_Materials_Summary.pdf | Department of Energy

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    CriticalMaterialsSummary.pdf CriticalMaterialsSummary.pdf PDF icon CriticalMaterialsSummary.pdf More Documents & Publications RFI U.S. Department of Energy - Critical...

  19. CMI Offers Webinars on Critical Materials and Rare Earths | Critical

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Materials Institute Offers Webinars on Critical Materials and Rare Earths CMI at Mines offers webinars about critical materials at no charge. Registration is required to obtain a link to the webinar. September 21: Parans Paranthaman, Oak Ridge National Laboratory, "Additive Manufacturing of NdFeB Magnets" Registration is open August 23: CMI Director Alex King, "CMI Director's Perspective." A recording of the webinar is available. July 20: Corby Anderson, Colorado School

  20. My Account | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    My Account Primary tabs Log in Request new password(active tab) Username or e-mail address * E-mail new password

  1. Critical Materials Institute uses the Materials Genome approach to

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Department of Energy Critical Materials Institute Gains Ten Industrial and Research Affiliates Critical Materials Institute Gains Ten Industrial and Research Affiliates April 12, 2016 - 10:32am Addthis News release from the Ames Laboratory, April 11, 2016. The Critical Materials Institute, a U.S. Department of Energy Innovation Hub led by the Ames Laboratory, has gained ten new affiliates to its research program, seeking ways to eliminate and reduce reliance on rare-earth metals and other

  2. What CMI Does | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Rare-earth elements, with essential roles in high-efficiency motors and advanced lighting, are the most prominent of the critical materials today. Rare-earth metals and alloys are ...

  3. 2016 Annual Meeting | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    2016 Annual Meeting people attending CMI annual meeting 2016 The Critical Materials Institute held its annual meeting August 16-18, 2016, at Oak Ridge National Laboratory. signing ceremony for CRADA between CMI and Oddello Ceremony for signing new CRADA: Critical Materials Institute, Oddello Industries pursue recovery of rare-earth magnets from used hard drives Pictured Standing: Tim McIntyre, ORNL, Energy and Environmental Sciences Directorate; Alex King, CMI Director, Ames Laboratory; Mike

  4. CMI Industry Survey | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    CMI Industry Survey Thank you for your interest in Critical Materials Institute Education, Training and Outreach. CMI is interested in supporting you in your company and/or personal professional development. To help us better serve you, we'd like to know how you would like to receive professional development; who you are hiring and what skills sets are needed in your current and future hiring. Please share how you are interested in education and training about critical materials. There are

  5. CMI Education and Outreach | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Outreach The Critical Materials Institute offers a variety of educational opportunities through several partners, including the Colorado School of Mines and Iowa State University. In addition, CMI experts are available to speak at research conferences, as well as to students of all ages. CMI Educational Opportunities: The following educational opportunities are offered by CMI TEAM members: Colorado School of Mines CMI at Mines offers webinars about critical materials at no charge. Recordings are

  6. CMI Invention Disclosures | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    CMI Invention Disclosures Success for the Critical Materials Institute will be defined by how well it meets its mission to assure supply chains of materials critical to clean energy technologies. To enable innovation in U.S. manufacturing and to enhance U.S. energy security, CMI must develop, demonstrate, and deploy clean energy technology. To direct research in a way to minimize the time to discovery and the time between discovery and deployment, the CMI team includes both research and

  7. Complete Project List | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Complete Project List Researchers at the Critical Materials Institute work to find ways to diversify supplies of critical materials, develop substitutes, improve reuse and recycling, enable research, sustain the environment, study the supply chain and analyze economics. The institute started with more than 30 projects. Over time, some have merged or ended and others have been added. This page provides a list of the current CMI projects, which can be sorted by clicking on a column header. Project

  8. News About CMI | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    About CMI 2016 How true is conventional wisdom about price volatility of tech metals?, Feb. 11, 2016 2015 Need rare-earths know-how? The Critical Materials Institute offers lower-cost access to experts and research, Dec. 1, 2015 Get schooled in rare-earth metals, Nov. 30, 2015 Speciality Metal Recycling Firm Teams Up with US Critical Materials Institute, Nov. 17, 2015 American Manganese Inc. Enters NDA with U.S. Government's Ames Laboratory on Lithium Ion Battery Recycling, Nov. 12, 2015 Rare

  9. CMI Unique Facilities | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    CMI Unique Facilities The Critical Materials Institute has created unique facilities that are available for additional research and collaboration. These include the following. There are hotlinks for some of the infrastructure and equipment listed. Those links provide information about the unique facility, where it was developed within CMI and who to contact for more information. Pilot-Scale Separations Test Bed Facility Filtration Test Facility Bulk Combinatoric Materials Synthesis Facility

  10. The Department of Energy Releases Strategy on Critical Materials...

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    The Department of Energy Releases Strategy on Critical Materials The Department of Energy Releases Strategy on Critical Materials December 15, 2010 - 12:00am Addthis The Department...

  11. Department of Energy Critical Materials Strategy Video (Text Version)

    Office of Energy Efficiency and Renewable Energy (EERE)

    This is a text version of the "Department of Energy Critical Materials Strategy" video presented at the Critical Materials Workshop, held on April 3, 2012 in Arlington, Virginia.

  12. Critical Materials Research in DOE Video (Text Version)

    Broader source: Energy.gov [DOE]

    This is a text version of the "Critical Materials Research in DOE" video presented at the Critical Materials Workshop, held on April 3, 2012 in Arlington, Virginia.

  13. Older Public Presentations | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Older Public Presentations CMI leaders and scientists have given public presentations about rare earths and critical materials. Here are a few of their older presentations. CMI Kickoff Meeting Plenary Sessions, September 2013: Alex King, director: CMI Welcome Karl Gschneidner, chief science officer: CMI Overview Bruce Moyer, leader for Diversifying Supply Adam Schwartz, leader for Developing Substitutes Eric Peterson, leader for Improving Reuse and Recycling Tom Lograsso, leader for Crosscutting

  14. Critical Materials Institute An Energy Innovation Hub Alexander King, Director

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Facilities » Critical Materials Hub Critical Materials Hub Green light reflection from a low-oxygen environment 3D printer laser deposition of metal powder alloys. Photo courtesy of The Critical Materials Institute, Ames Laboratory Green light reflection from a low-oxygen environment 3D printer laser deposition of metal powder alloys. Photo courtesy of The Critical Materials Institute, Ames Laboratory Critical materials, including some rare earth elements that possess unique magnetic,

  15. Request for Information (RFI) for Updated Critical Materials Strategy |

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Department of Energy Request for Information (RFI) for Updated Critical Materials Strategy Request for Information (RFI) for Updated Critical Materials Strategy Request for Information (RFI) for Updated Critical Materials Strategy (55.44 KB) More Documents & Publications RFI U.S. Department of Energy - Critical Materials Strategy Request for Information RFI: DOE Materials Strategy Microsoft Word - FINAL Materials Strategy Request for Information May 5 2010

  16. REACT: Alternatives to Critical Materials in Magnets

    SciTech Connect (OSTI)

    2012-01-01

    REACT Project: The 14 projects that comprise ARPA-E’s REACT Project, short for “Rare Earth Alternatives in Critical Technologies”, are developing cost-effective alternatives to rare earths, the naturally occurring minerals with unique magnetic properties that are used in electric vehicle (EV) motors and wind generators. The REACT projects will identify low-cost and abundant replacement materials for rare earths while encouraging existing technologies to use them more efficiently. These alternatives would facilitate the widespread use of EVs and wind power, drastically reducing the amount of greenhouse gases released into the atmosphere.

  17. FA 4: Crosscutting Research | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    4: Crosscutting Research Focus Area 4 - Lograsso, Schwegler CMI Org Chart with Hotlinks: Focus Area 4 File: Read more about CMI Org Chart with Hotlinks: Focus Area 4 CMI Org Chart with Hotlinks: Research Overview File: Read more about CMI Org Chart with Hotlinks: Research Overview CMI org chart for FA4 File: Read more about CMI org chart for FA4 CMI org chart for research with hotlinks (pdf) File: Read more about CMI org chart for research with hotlinks (pdf) Critical Materials Institute

  18. CMI Webinar: Critical Elements in Phosphate | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Critical Elements in Phosphate The CMI Webinar series began with a presentation on Critical Elements in Phosphate by Patrick Zhang, Florida Industrial and Phosphate Research Institute (FIPR), on March 24, 2015. The recording of the webinar runs nearly 38 minutes (37:54

  19. Additive Manufacturing Meets the Critical Materials Shortage | Department

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    of Energy Additive Manufacturing Meets the Critical Materials Shortage Additive Manufacturing Meets the Critical Materials Shortage April 9, 2014 - 11:15am Addthis Green light reflection from a low-oxygen environment, 3D-printer laser deposition of metal powder alloys. | Photo courtesy of Critical Materials Institute, Ames Laboratory Green light reflection from a low-oxygen environment, 3D-printer laser deposition of metal powder alloys. | Photo courtesy of Critical Materials Institute, Ames

  20. Meet CMI Researcher Bob Fox | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Bob Fox Image of Bob Fox, researcher with Critical Materials Institute CMI researcher Robert V. Fox, Ph.D., a distinguished senior chemical research scientist, joined INL in 1989 and is active in performing and directing innovative scientific research in the areas of supercritical fluid chemistry, metal complexation reactions, nanomaterials, alternative fuels, laser surface cleaning, and laser spectroscopy. Dr. Fox has a broad level of experience in the areas of radionuclide interaction with

  1. The Department of Energy Releases Strategy on Critical Materials |

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Department of Energy The Department of Energy Releases Strategy on Critical Materials The Department of Energy Releases Strategy on Critical Materials December 15, 2010 - 12:00am Addthis The Department of Energy today released its Critical Materials Strategy. The strategy examines the role of rare earth metals and other materials in the clean energy economy, based on extensive research by the Department during the past year. The report focuses on materials used in four technologies - wind

  2. Activated carbon material

    DOE Patents [OSTI]

    Evans, A. Gary

    1978-01-01

    Activated carbon particles for use as iodine trapping material are impregnated with a mixture of selected iodine and potassium compounds to improve the iodine retention properties of the carbon. The I/K ratio is maintained at less than about 1 and the pH is maintained at above about 8.0. The iodine retention of activated carbon previously treated with or coimpregnated with triethylenediamine can also be improved by this technique. Suitable flame retardants can be added to raise the ignition temperature of the carbon to acceptable standards.

  3. Meet CMI Researcher Patrice Turchi | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Patrice Turchi Image of Patrice Turchi, researcher at Critical Materials Institute For the Critical Materials Institute, Patrice Turchi is leading a project entitled "Materials Design Simulator - Efficient Prototyping of Rare Earth-Based Alloys from ab initio Electronic Structure and Thermodynamics." That is about the development of a Materials Design Simulator (MDS) for guiding the search for solute replacements to Rare Earth Elements that provide materials stability and performance.

  4. US-EU-Japan Working Group on Critical Materials

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    US-EU-Japan Working Group on Critical Materials 4 th Annual Meeting Iowa State University Hosted by The Critical Materials Institute The Ames Laboratory September 8, 2014 AGENDA 8:30 Registration 9:00 Welcome Alex King, Director, Critical Materials Institute Opening Remarks 9:10 Akito Tani, Deputy Director-General, Manufacturing Industries Bureau, MET 9:20 Gwenole Cozigou, Director, DG Enterprise and Industry 9:30 Mark Johnson, Director, Advanced Manufacturing Office, DOE Session 1: Anticipating

  5. DOE Releases Request for Information on Critical Materials, Including Fuel

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Cell Platinum Group Metal Catalysts | Department of Energy Releases Request for Information on Critical Materials, Including Fuel Cell Platinum Group Metal Catalysts DOE Releases Request for Information on Critical Materials, Including Fuel Cell Platinum Group Metal Catalysts February 17, 2016 - 3:03pm Addthis The U.S. Department of Energy (DOE) has released a Request for Information (RFI) on critical materials in the energy sector, including fuel cell platinum group metal catalysts. The RFI

  6. Critical Materials Institute Gains Ten Industrial and Research Affiliates |

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Department of Energy Critical Materials Institute Gains Ten Industrial and Research Affiliates Critical Materials Institute Gains Ten Industrial and Research Affiliates April 12, 2016 - 10:32am Addthis News release from the Ames Laboratory, April 11, 2016. The Critical Materials Institute, a U.S. Department of Energy Innovation Hub led by the Ames Laboratory, has gained ten new affiliates to its research program, seeking ways to eliminate and reduce reliance on rare-earth metals and other

  7. Critical Materials Institute signs new member United Technologies...

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    signs new member United Technologies Research Center Contacts: For release: Aug. 18, 2015 Alex King, Director, Critical Materials Institute, (515) 296-4505 Laura Millsaps, Ames...

  8. EV Everywhere Workshop: Electric Motors and Critical Materials...

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    EV Everywhere Workshop: Electric Motors and Critical Materials Breakout Group Report Presentation given at the EV Everywhere Grand Challenge Electric Drive (Power Electronics ...

  9. Mines Welcomes Middle School Students | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    of Science and Technology. The students spent the day at Mines to learn about Earth, energy, the environment, critical materials and mining. The students enjoyed a chemistry show ...

  10. Critical Magnetic Field Determination of Superconducting Materials

    SciTech Connect (OSTI)

    Canabal, A.; Tajima, T.; Dolgashev, V.A.; Tantawi, S.G.; Yamamoto, T.; /Tsukuba, Natl. Res. Lab. Metrol.

    2011-11-04

    Superconducting RF technology is becoming more and more important. With some recent cavity test results showing close to or even higher than the critical magnetic field of 170-180 mT that had been considered a limit, it is very important to develop a way to correctly measure the critical magnetic field (H{sup RF}{sub c}) of superconductors in the RF regime. Using a 11.4 GHz, 50-MW, <1 {mu}s, pulsed power source and a TE013-like mode copper cavity, we have been measuring critical magnetic fields of superconductors for accelerator cavity applications. This device can eliminate both thermal and field emission effects due to a short pulse and no electric field at the sample surface. A model of the system is presented in this paper along with a discussion of preliminary experimental data.

  11. Energy Department Releases New Critical Materials Strategy |...

    Broader source: Energy.gov (indexed) [DOE]

    The report examines the role of rare earth metals and other materials used in four clean ... The strategy analyzes 14 elements and identifies five specific rare earth metals, ...

  12. Microsoft Word - TRILATERAL CRITICAL MATERIALS WORKSHOP Summary...

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    ... magnetic mechanisms (for nanocomposites, non-rare-earth materials, and neodymium-iron-boron magnets). * Techniques to enhance the stability and texture of nanocomposite structures ...

  13. Increasing Access to Materials Critical to the Clean Energy Economy |

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Department of Energy Access to Materials Critical to the Clean Energy Economy Increasing Access to Materials Critical to the Clean Energy Economy January 9, 2013 - 12:30pm Addthis Europium, a rare earth element that has the same relative hardness of lead, is used to create fluorescent lightbulbs. With no proven substitutes, europium is considered critical to the clean energy economy. | Photo courtesy of the Ames Laboratory. Europium, a rare earth element that has the same relative hardness

  14. CMI at Mines Hosts 160 Sixth Graders | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    CMI at Mines Hosts 160 Sixth Graders Colorado School of Mines graduate student Mandi Hutchinson shows a compact fluorescent light bulb as she discusses the use of critical materials and rare earths in current technologies. The Denver School of Science and Technology's (DSST) College View sixth graders visited the Colorado School of Mines campus on Wednesday, July 8, for their fourth annual visit. More than 160 students enjoyed critical materials and energy presentations delivered by the Critical

  15. Chief Research Scientist | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    both scientific and general audiences. These include: Material Matters: The Rare Earth Crisis -- The SupplyDemand Situation for 2010-2015, Vol. 6, Article 2 U.S. Atomic Energy...

  16. CMI hosts EU, Japan to discuss global critical materials strategy |

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Critical Materials Institute CMI hosts EU, Japan to discuss global critical materials strategy mlthach's picture Submitted by mlthach on Wed, 09/10/2014 - 18:00 Finding ways to ensure the planet's supply of rare earths and other materials necessary for clean energy technologies is a global challenge, and experts from around the world gathered to meet it at the fourth annual EU-US-Japan Trilateral Conference on Critical Materials on Monday (September 8, 2014). The U.S. Department of Energy's

  17. Critical Materials for a Clean Energy Future | Department of Energy

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Critical Materials for a Clean Energy Future Critical Materials for a Clean Energy Future October 19, 2011 - 5:46pm Addthis David Sandalow David Sandalow Former Under Secretary of Energy (Acting) and Assistant Secretary for Policy & International Affairs Why does it matter? Four clean energy technologies-wind turbines, electric vehicles, photovoltaic cells and fluorescent lighting-use materials at risk of supply disruptions in the next five years. Earlier this month, United States, Japanese

  18. Critical parameters of superconducting materials and structures

    SciTech Connect (OSTI)

    Fluss, M.J.; Howell, R.H.; Sterne, P.A.; Dykes, J.W.; Mosley, W.D.; Chaiken, A.; Ralls, K.; Radousky, H.

    1995-02-01

    We report here the completion of a one year project to investigate the synthesis, electronic structure, defect structure, and physical transport properties of high temperature superconducting oxide materials. During the course of this project we produced some of the finest samples of single crystal detwinned YBa{sub 2}Cu{sub 3}O{sub 7}, and stoichiometrically perfect (Ba,K)BiO{sub 3}. We deduced the Fermi surface of YBa{sub 2}Cu{sub 3}O{sub 7}, (La,Sr){sub 2}CuO{sub 4}, and (Ba,K)BiO{sub 3} through the recording of the electron momentum density in these materials as measured by positron annihilation spectroscopy and angle resolved photoemission. We also performed extensive studies on Pr substituted (Y,Pr)Ba{sub 2}Cu{sub 3}O{sub 7} so as to further understand the origin of the electron pairing leading to superconductivity.

  19. Critical Materials and Rare Futures: Ames Laboratory Signs a...

    Energy Savers [EERE]

    Critical Materials and Rare Futures: Ames Laboratory Signs a New Agreement on Rare-Earth Research June 15, 2011 - 7:07pm Addthis The plasma torch in the Retech plasma furnace is ...

  20. EERE Announces Up to $4 Million for Critical Materials Recovery...

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Photo courtesy of Geothermal Technologies Office, U.S. Department of Energy Critical materials like rare-earth elements and lithium play a vital role in many clean-energy ...

  1. Meet CMI Leaders and Administrators | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Leaders and Administrators The Critical Materials Institute leaders and administrators include: Director Alex King Deputy Director Rod Eggert Operations Cynthia Feller Finance Carol Bergman Education & Outreach Barry Martin and Cynthia Howell Commercialization Deb Covey Technology Deployment Iver Anderson

  2. CMI Webinar: Corby Anderson, July 2016, part 2 | Critical Materials

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Institute 2 Corby Anderson, Colorado School of Mines, presented on The Critical Aspect of Critical Materials" on July 20, 2016. The full webinar ran nearly an hour; the archive is available in four files of 10 to 12 minutes each. This second part runs 11:29. Here are links to the first part, third part

  3. CMI Webinar: Corby Anderson, July 2016, part 3 | Critical Materials

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Institute 3 Corby Anderson, Colorado School of Mines, presented on The Critical Aspect of Critical Materials" on July 20, 2016. The full webinar ran nearly an hour; the archive is available in four files of 10 to 12 minutes each. This third part runs 11:20. Here are links to the first part, second part,

  4. CMI Webinar: Corby Anderson, July 2016, part 4 | Critical Materials

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Institute 4 Corby Anderson, Colorado School of Mines, presented on The Critical Aspect of Critical Materials" on July 20, 2016. The full webinar ran nearly an hour; the archive is available in four files of 10 to 12 minutes each. This fourth part runs 10:30. Here are links to the first part, second part, and third

  5. Meet CMI Researcher Rod Eggert | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Rod Eggert Image of Rod Eggert, researcher at Critical Materials Institute CMI researcher Rod Eggert is a geochemist turned economist. More formally, he is professor and former director of the Division of Economics and Business at the Colorado School of Mines, where he has taught since 1986. As deputy director of the Critical Materials Institute, he works with the director and the rest of the leadership team to guide and manage CMI, oversee the supply-chain and economic analysis that provides

  6. Meet CMI Researcher Lynn Boatner | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Lynn Boatner Image of Lynn Boatner, researcher with Critical Materials Institute CMI researcher Lynn A. Boatner, an ORNL Corporate Fellow and Battelle Distinguished Inventor, is currently the Director of the ORNL Center for Radiation Detection Materials and Systems, and he leads the Synthesis and Properties of Novel Materials Group in the ORNL Materials Science and Technology Division. He holds a Ph.D. degree in Physics from Vanderbilt University. Lynn is a Fellow of the following societies: The

  7. CMI Webinar: Corby Anderson, July 2016, part 1 | Critical Materials

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Institute Corby Anderson, July 2016, part 1 Corby Anderson, Colorado School of Mines, presented on The Critical Aspect of Critical Materials" on July 20, 2016. The full webinar ran nearly an hour; the archive is available in four files of 10 to 12 minutes each. This first part runs 10:26. Here are links to the second part, third part and the fourth

  8. Top 10 Things You Didn't Know About Critical Materials | Department of

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Energy Critical Materials Top 10 Things You Didn't Know About Critical Materials January 18, 2013 - 10:15am Addthis Miss the Google+ Hangout on Critical Materials? Watch the video of it now. Rebecca Matulka Rebecca Matulka Former Digital Communications Specialist, Office of Public Affairs More about critical materials: Check out the Department's 2011 Critical Materials Strategy report. Learn how the new Critical Materials Hub will address challenges across the entire lifecycle of materials

  9. What is a CriticalMaterial

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    A N E N E R G Y I N N O V A T I O N H U B This presentation does not contain any proprietary, confidential, or otherwise restricted information. What is a "Critical Material?" * Any substance used in technology that is subject to supply risks, and for which there are no easy substitutes. * Or, in plain English - stuff you really need but can't always get. * The list of materials that are considered critical depends on who, where and when you ask. * CMI focuses on clean energy

  10. Meet CMI Leader Iver Anderson | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Leader Iver Anderson Iver Anderson Iver E. Anderson leads the Critical Materials Institute Industry Council and efforts in Technology Deployment. Iver is a Senior Metallurgist at Ames Laboratory (USDOE) and Adjunct Professor in the Materials Science and Engineering department at Iowa State University. He is a Fellow of both the American Powder Metallurgy Institute and ASM International. Currently, he is serving on the Board of Trustees of ASM International. Iver earned a Ph.D. in Metallurgical

  11. Meet CMI Researcher Brian Sales | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Brian Sales CMI focus area deputy leader Brian Sales CMI researcher Brian Sales is the Deputy Lead for Focus Area 2, Developing Substitutes. In this role, he assists Adam Schwartz in overseeing projects that reduce the usage of critical rare earth elements by developing substitute materials with equivalent or superior properties. Dr. Sales' research has focused on the discovery, synthesis, and development of new materials with potential to impact advanced energy technologies. He has made

  12. Meet CMI Researcher Eric Peterson | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Peterson CMI focus area leader Eric Peterson CMI researcher Eric Peterson leads Focus Area 3, Improving Reuse and Recycling, for the Critical Materials Institute. At Idaho National Laboratory, Eric leads the Process Science and Technology Business Area and is also a Consulting Scientist at the Laboratory, where he has spent the past 23 years performing research on polymeric and related materials. His research has varied from the most fundamental understanding of molecular interactions to

  13. CMI Education Partners Offer Courses | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Partners Offer Courses The CMI Team includes six education members. The CMI Education and Outreach staff reviewed the courses these colleges and universities offer, and created an inventory of those related to critical materials and rare earth elements. The list of courses taught by CMI Team members is available by university and grouped by topic: Geology Engineering/ Geochemistry Mining Engineering Metallurgical Engineering/ Material Science Chemistry Engineering Mineral Economics and Business

  14. CMI Unique Facility: Filtration Test Facility | Critical Materials

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Institute Filtration Test Facility filtration set up for CMI unique facility at Idaho National Laboratory The Filtration Test Facility is one of more than a dozen unique facilities developed by the Critical Materials Institute, an Energy Innovation Hub of the U.S. Department of Energy. The chemical separation of materials is often water-intensive. It is important to establish filtration methods that are both efficient and environmentally sound. Mineral processing streams are particularly

  15. ARPA-E Workshop on Rare Earth and Critical Materials | Department...

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    ARPA-E Workshop on Rare Earth and Critical Materials ARPA-E Workshop on Rare Earth and Critical Materials ARPA-E Workshop on Rare Earth and Critical Materials, December 6, 2010 PDF...

  16. Criticality safety analysis on fissile materials in Fukushima reactor cores

    SciTech Connect (OSTI)

    Liu, Xudong; Lemaitre-Xavier, E.; Ahn, Joonhong; Hirano, Fumio

    2013-07-01

    The present study focuses on the criticality analysis for geological disposal of damaged fuels from Fukushima reactor cores. Starting from the basic understanding of behaviors of plutonium and uranium, a scenario sequence for criticality event is considered. Due to the different mobility of plutonium and uranium in geological formations, the criticality safety is considered in two parts: (1) near-field plutonium system and (2) far-field low enriched uranium (LEU) system. For the near-field plutonium system, a mathematical analysis for pure-solute transport was given, assuming a particular buffer material and waste form configuration. With the transport and decay of plutonium accounted, the critical mass of plutonium was compared with the initial load of a single canister. Our calculation leads us to the conclusion that our system with the initial loading being the average mass of plutonium in an assembly just before the accident is very unlikely to become critical over time. For the far-field LEU system, due to the uncertainties in the geological and geochemical conditions, calculations were made in a parametric space that covers the variation of material compositions and different geometries. Results show that the LEU system could not remain sub-critical within the entire parameter space assumed, although in the iron-rich rock, the neutron multiplicity is significantly reduced.

  17. U.S. Department of Energy Critical Materials Strategy

    SciTech Connect (OSTI)

    Bauer, D.; Diamond, D.; Li, J.; Sandalow, D.; Telleen, P.; Wanner, B.

    2010-12-01

    This report examines the role of rare earth metals and other materials in the clean energy economy. It was prepared by the U.S. Department of Energy (DOE) based on data collected and research performed during 2010. Its main conclusions include: (a) Several clean energy technologies -- including wind turbines, electric vehicles, photovoltaic cells and fluorescent lighting -- use materials at risk of supply disruptions in the short term. Those risks will generally decrease in the medium and long term. (b) Clean energy technologies currently constitute about 20 percent of global consumption of critical materials. As clean energy technologies are deployed more widely in the decades ahead, their share of global consumption of critical materials will likely grow. (c) Of the materials analyzed, five rare earth metals (dysprosium, neodymium, terbium, europium and yttrium), as well as indium, are assessed as most critical in the short term. For this purpose, 'criticality' is a measure that combines importance to the clean energy economy and risk of supply disruption. (d) Sound policies and strategic investments can reduce the risk of supply disruptions, especially in the medium and long term. (e) Data with respect to many of the issues considered in this report are sparse. In the report, DOE describes plans to (i) develop its first integrated research agenda addressing critical materials, building on three technical workshops convened by the Department during November and December 2010; (ii) strengthen its capacity for information-gathering on this topic; and (iii) work closely with international partners, including Japan and Europe, to reduce vulnerability to supply disruptions and address critical material needs. DOE will work with other stakeholders -- including interagency colleagues, Congress and the public -- to shape policy tools that strengthen the United States' strategic capabilities. DOE also announces its plan to develop an updated critical materials strategy

  18. U.S. Department of Energy - Critical Materials Strategy

    SciTech Connect (OSTI)

    2010-12-01

    The Critical Materials Strategy builds on the Department’s previous work in this area and provides a foundation for future action. This Strategy is a first step toward a comprehensive response to the challenges before us. We hope it will also encourage others to engage in a dialogue about these issues and work together to achieve our Nation’s clean energy goals.

  19. CMI Webinar: Eric Peterson, April 2016, part 1 | Critical Materials

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Institute Eric Peterson, April 2016, part 1 Eric Peterson, Idaho National Laboratory, presented on Recycling and Reuse of Critical Materials on April 27, 2016. The full webinar ran nearly an hour; the archive is available in three files of 15 to 18 minutes each. This first part runs 15:45. Here are links to the second part and the third

  20. CMI Webinar: Eric Peterson, April 2016, part 2 | Critical Materials

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Institute 2 Eric Peterson, Idaho National Laboratory, presented on Recycling and Reuse of Critical Materials on April 27, 2016. The full webinar ran nearly an hour; the archive is available in three files of 15 to 18 minutes each. This second part runs 17:02. Here are links to the first part and the third

  1. CMI Webinar: Eric Peterson, April 2016, part 3 | Critical Materials

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Institute 3 Eric Peterson, Idaho National Laboratory, presented on Recycling and Reuse of Critical Materials on April 27, 2016. The full webinar ran nearly an hour; the archive is available in three files of 15 to 18 minutes each. This third part runs 18:06. Here are links to the first part and the second

  2. Meet CMI Researcher Anja Mudring | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Anja Mudring CMI researcher Anja Mudring CMI researcher Anja Mudring is a materials chemist who is harmessing the promising qualities of ionic liquids, salts in a liquid state, to optimize processes for critical materials. "Ionic liquids have a lot of useful qualities, but most useful for materials processing is that ionic liquids are made up of two parts: the cation and the anion. We can play around with the chemical identities of each of those components and that opens the doors to huge

  3. 3-D Printer Speeds Metals Research | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    3-D Printer Speeds Metals Research The Critical Materials Institute has a new 3D printer for metals research. Ryan Ott, principal investigator at the Ames Laboratory and the CMI, is using 3D printing technology to discover new materials. He uses the printer to produce a large variety of alloys in less time than needed in traditional casting methods. "Metal 3D printers are slowly becoming more commonplace," Ott said. "They can be costly, and are often limited to small-scale

  4. Meet CMI Leader Deb Covey | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Deb Covey Deb Covey Ames Lab Director Adam Schwartz (left) and Associate Director for Sponsored Research Administration Deb Covey (right) explain BAM, a low-friction, high-wear coating, to State Senator Jerry Behn (center) during ISU Day at the State Capital on Feb. 23, 2015. Deb Covey leads the Critical Materials Institute efforts in commercialization. She started working for The Ames Laboratory in 1989 in its Fossil Energy Program. In 1992, she accepted a position managing the Intellectual

  5. Meet CMI Researcher Bruce Moyer | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Bruce Moyer CMI focus area leader Bruce Moyer plays a saxaphone. CMI researcher Bruce Moyer is the lead of Focus Area 1, Diversifying Supply. In this role, he oversees projects that will expand the variety of source materials, increase processing efficiency, and find new uses for the abundant non-critical rare earths. To accomplish this task, Bruce draws upon his 34 years of experience in the field of separation science and technology, specializing in both fundamental and applied aspects of

  6. Meet CMI Researcher Corby Anderson | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Corby Anderson Image of Corby Anderson, researcher at Critical Materials Institute CMI researcher Dr. Corby Anderson has more than 34 years of global experience in industrial operations, management, engineering, design, consulting, teaching, research and professional service. His career includes positions with Morton Thiokol, Key Tronic Corporation, Sunshine Mining and Refining Company, H. A Simons Ltd. and at Montana Tech. He holds a BSc in Chemical Engineering and an MSc and PhD in

  7. Meet CMI Researcher Scott Herbst | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Scott Herbst CMI researcher Scott Herbst is the deputy lead of Focus Area 1 Diversifying Supply. In this role, he assists Dr. Moyer with these important projects that will expand the variety of source materials, increase processing efficiency, and find new uses for the abundant non-critical rare earths. Dr. Herbst is a Chemical Engineer at the Idaho National Laboratory (INL) and has well over 20 years experience in nuclear fuel reprocessing, separation process chemistry and engineering, and

  8. Meet CMI Researcher Theresa Windus | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Theresa Windus Image of Theresa Windus, researcher at Critical Materials Institute CMI researcher Theresa Windus joined Iowa State University as a full professor and an associate researcher with DOE's Ames Laboratory in August of 2006. She develops new methods and algorithms for high performance computational chemistry as well as applying those techniques to both basic and applied research. Her current interests are rare earth and heavy element chemistry, catalysis, aerosol formation, cellulose

  9. Active nondestructive assay of nuclear materials: principles...

    Office of Scientific and Technical Information (OSTI)

    Active nondestructive assay of nuclear materials: principles and applications Citation Details In-Document Search Title: Active nondestructive assay of nuclear materials: ...

  10. Meet CMI Researcher Paul Canfield | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Paul Canfield Image of Paul Canfield, researcher at Critical Materials Institute CMI researcher Dr. Paul C Canfield graduated, Suma Cum Laude, with a BS in Physics from the University of Virginia in 1983. He then performed his Master and Ph.D. work at UCLA with Professor George Gruner and received his Ph.D. in Experimental Condensed Matter physics in 1990. From 1990 - 1993 Dr. Canfield was a post-doctoral researcher in Los Alamos National Laboratory working with Drs. Joe Thompson and Zachary

  11. A new neutron absorber material for criticality control

    SciTech Connect (OSTI)

    Wells, Alan H.

    2007-07-01

    A new neutron absorber material based on a nickel metal matrix composite has been developed for applications such as the Transport, Aging, and Disposal (TAD) canister for the Yucca Mountain Project. This new material offers superior corrosion resistance to withstand the more demanding geochemical environments found in a 300,000 year to a million year repository. The lifetime of the TAD canister is currently limited to 10,000 years, reflecting the focus of current regulations embodied in 10 CFR 63. The use of DOE-owned nickel stocks from decommissioned enrichment facilities could reduce the cost compared to stainless steel/boron alloy. The metal matrix composite allows the inclusion of more than one neutron absorber compound, so that the exact composition may be adjusted as needed. The new neutron absorber material may also be used for supplementary criticality control of stored or transported PWR spent fuel by forming it into cylindrical pellets that can be inserted into a surrogate control rod. (authors)

  12. RFI U.S. Department of Energy - Critical Materials Strategy Request...

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    RFI U.S. Department of Energy - Critical Materials Strategy Request for Information RFI U.S. Department of Energy - Critical Materials Strategy Request for Information U.S....

  13. Join Us Tuesday, Jan. 15 for a Google+ Hangout on Critical Materials

    Broader source: Energy.gov [DOE]

    What are critical materials? We will be answering that question and more during our first Google+ Hangout.

  14. Coating Active Materials for Applications in Electrochemical...

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    carbon precursor on the electro-active material to form a carbon-coated electro-active material Process reduces manufacturing cost Coating process produces carbon-coated metal...

  15. News about Rare Earths, New or Critical Materials, and Their Uses: |

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Critical Materials Institute Rare Earths, New or Critical Materials, and Their Uses: 2016 Rare earth materials: Developing a comprehensive approach could help DOD better manage national security risks in the supply chain, Feb. 11, 2016 New request for information to inform Department of Energy Critical Materials Strategy, Feb. 10, 2016 2015 UK gets federal funds to research coal-based rare earth elements, Dec. 20, 2015 Salvage neodymium magnets from an old hard drive, Dec. 10, 2015 Battery

  16. FA 3: Improving Reuse and Recycling | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Focus Area 3 - Peterson, Jones Electronic Waste: DOD is Recovering Materials but Several ... Read more about Electronic Waste: DOD is Recovering Materials but Several Factors May ...

  17. Need rare-earths know-how? The Critical Materials Institute offers...

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Need rare-earths know-how? The Critical Materials Institute offers lower-cost access to experts and research Contacts: For release: Dec. 1, 2015 Alex King, Director, Critical...

  18. EERE Announces Up to $4 Million for Critical Materials Recovery from

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Geothermal Fluids | Department of Energy Announces Up to $4 Million for Critical Materials Recovery from Geothermal Fluids EERE Announces Up to $4 Million for Critical Materials Recovery from Geothermal Fluids December 1, 2015 - 1:56pm Addthis EERE Announces Up to $4 Million for Critical Materials Recovery from Geothermal Fluids Timothy Patrick Reinhardt Program Manager, Systems Analysis & Low Temperature and Coproduced Resources Program, Geothermal Technologies Program Extracting and

  19. Contacts: Alex King, Director, Critical Materials Institute, (515) 296-4505

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Five Critical Materials Institute researchers named Most Influential Scientific Minds of 2014 Contacts: Alex King, Director, Critical Materials Institute, (515) 296-4505 Laura Millsaps, Public Affairs, Ames Laboratory, (515) 294-3474 Five physicists who conduct research for the Critical Materials Institute, a U.S. Department of Energy Innovation Hub, have been named to the Thomson Reuters Most Influential Scientific Minds of 2014. They are:  Sergey Bud'ko, Ames Laboratory and Iowa State

  20. The Department of Energy's Critical Materials Strategy | Department...

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    The U.S. Department of Energy (DOE) supports a proactive and comprehensive approach to address the challenges associated with the use of rare earth elements and other critical ...

  1. CMI Education Partner: Iowa State University | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Partner: Iowa State University Iowa State University offers courses in several areas: Materials Engineering Materials Science and Engineering Recycling/Industrial Engineering Geology Chemistry http://catalog.iastate.edu/collegescurricula/ Course could be changed semester by semester. The list below is based on general information of Iowa State University. Materials Engineering Courses primarily for undergraduates: MAT E 214. Structural Characterization of Materials. (2-2) Cr. 3. F.S. Prereq: MAT

  2. CMI Education Partner: University of California, Davis | Critical Materials

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Institute University of California, Davis The University of California, Davis offers courses in several areas: Chemical and Materials Science Engineering Chemistry Geology http://catalog.ucdavis.edu/programs.html course list Chemical and Materials Science Engineering , Chemistry, Chemical Physics(website cannot be opened) Courses in Engineering: Chemical and Materials Science (ECM) Lower Division 51. Material Balances (4) Lecture-4 hours. Prerequisite: Mathematics 21D with C- or better, and

  3. ANNUAL TRILATERAL U.S. - EU - JAPAN CONFERENCE ON CRITICAL MATERIALS...

    Broader source: Energy.gov (indexed) [DOE]

    November 4, 2014 LAB COMMISSION MEETING MINUTES Microsoft Word - USJapanREEagendaver7.doc Trans-Atlantic Workshop on Rare Earth Elements and Other Critical Materials for a ...

  4. ANNUAL TRILATERAL U.S. - EU - JAPAN CONFERENCE ON CRITICAL MATERIALS

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    FOR A CLEAN ENERGY FUTURE, SEPTEMBER 8-9, 2014 | Department of Energy ANNUAL TRILATERAL U.S. - EU - JAPAN CONFERENCE ON CRITICAL MATERIALS FOR A CLEAN ENERGY FUTURE, SEPTEMBER 8-9, 2014 ANNUAL TRILATERAL U.S. - EU - JAPAN CONFERENCE ON CRITICAL MATERIALS FOR A CLEAN ENERGY FUTURE, SEPTEMBER 8-9, 2014 Agenda from the fourth meeting of the Annual Trilateral U.S. - EU - Japan Conference on Critical Materials for a Clean Energy Future US-EU-Japan Working Group on Critical Materials.pdf (120.49

  5. Meet CMI Researcher Ryan Ott | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Ryan Ott CMI researcher Ryan Ott leads the CMI project on rapid assessment methodologies. This includes using 3d printing for discovering new materials, which he describes in this CMI Success Story and this video on The Ames Laboratory's YouTube channel. He's also The Ames Laboratory's lead researcher on a project to help improve the processing techniques to reclaim rare-earth materials. The project harnesses fundamental materials science to help address possible shortages in rare earths, which

  6. Die Materials for Critical Applications and Increased Production...

    Office of Scientific and Technical Information (OSTI)

    To resist heat checking, die materials should have a low coefficient of thermal expansion, high thermal conductivity, high hot yield strength, good temper softening resistance, ...

  7. US-EU-Japan Working Group on Critical Materials

    Office of Environmental Management (EM)

    Materials Institute - Colorado School of Mines 12:20 Buffet Lunch 12:30 Canadian Rare Earth Elements - feeding the global supply chain Janice Zinck, Manager, Natural Resources ...

  8. Department of Energy Releases its 2011 Critical Materials Strategy...

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    It will help us seize opportunities, using American innovation to find substitutes, promote recycling and help secure supplies of rare earth elements and other materials used in ...

  9. CMI Education and Outreach in 2013 | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    in 2013: Hardin Valley Academy in Knoxville, Tennessee, December: CMI Director Alex King talked to sophomores Materials Research Society, Dec. 2: Karl Gschneidner, chief...

  10. Meet CMI Leader Barry Martin | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Materials Institute's education and outreach could be, beginning with the proposal writing team and Nigel Middleton. Beginning in May 2014, Martin leads the education and...

  11. Meet CMI Researcher Patrick Zhang | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Patrick Zhang CMI Researcher Patrick Zhang is at the Florida Industrial and Phosphate Research Institute (FIPR). In March 2015, he offered the first CMI Webinar: Critical Elements in Phosphate Ore: Recovery of Rare Earths and Uranium from Florida Phosphate Ore Processing. A recording of the webinar is available

  12. Activation of porous MOF materials

    DOE Patents [OSTI]

    Hupp, Joseph T; Farha, Omar K

    2014-04-01

    A method for the treatment of solvent-containing MOF material to increase its internal surface area involves introducing a liquid into the MOF in which liquid the solvent is miscible, subjecting the MOF to supercritical conditions for a time to form supercritical fluid, and releasing the supercritical conditions to remove the supercritcal fluid from the MOF. Prior to introducing the liquid into the MOF, occluded reaction solvent, such as DEF or DMF, in the MOF can be exchanged for the miscible solvent.

  13. Activation of porous MOF materials

    DOE Patents [OSTI]

    Hupp, Joseph T; Farha, Omar K

    2013-04-23

    A method for the treatment of solvent-containing MOF material to increase its internal surface area involves introducing a liquid into the MOF in which liquid the solvent is miscible, subjecting the MOF to supercritical conditions for a time to form supercritical fluid, and releasing the supercritical conditions to remove the supercritical fluid from the MOF. Prior to introducing the liquid into the MOF, occluded reaction solvent, such as DEF or DMF, in the MOF can be exchanged for the miscible solvent.

  14. Materials of Criticality Safety Concern in Waste Packages

    SciTech Connect (OSTI)

    Larson, S.L.; Day, B.A.

    2006-07-01

    10 CFR 71.55 requires in part that the fissile material package remain subcritical when considering 'the most reactive credible configuration consistent with the chemical and physical form of the material'. As waste drums and packages may contain unlimited types of materials, determination of the appropriately bounding moderator and reflector materials to ensure compliance with 71.55 requires a comprehensive analysis. Such an analysis was performed to determine the materials or elements that produce the most reactive configuration with regards to both moderation and reflection of a Pu-239 system. The study was originally performed for the TRUPACT-II shipping package and thus the historical fissile mass limit for the package, 325 g Pu-239, was used [1]. Reactivity calculations were performed with the SCALE package to numerically assess the moderation or reflection merits of the materials [2]. Additional details and results are given in SAIC-1322-001 [3]. The development of payload controls utilizing process knowledge to determine the classification of special moderator and/or reflector materials and the associated fissile mass limit is also addressed. (authors)

  15. CMI Education and Outreach in 2015 | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    5 CMI education and outreach staff talk to some of the hundreds of middle and high school students at the Colorado Energy Expo. CMI education and outreach in 2015: CMI webinar: Alex King, CMI, and Stacy Joiner, Ames Laboratory, discussed updates to the CMI Affiliates Membership Program. A recording of the webinar is available, Dec. 9 CMI Director Alex King presented a guest lecture entitled "Critical information for your career (or: megatrends that you need to watch)" for 100

  16. Critical Materials Institute Gains Ten Industrial and Research...

    Energy Savers [EERE]

    ... Today he looks back at over 60 years of studying rare earth metals. At 85, Mr. Rare Earth is Retiring The plasma torch in the Retech plasma furnace is one tool used in Materials ...

  17. Die Materials for Critical Applications and Increased Production...

    Office of Scientific and Technical Information (OSTI)

    A paper copy of this document is also available for sale to the public from the National Technical Information Service, Springfield, VA at www.ntis.gov. Die materials for aluminum ...

  18. Meet CMI Researcher Tom Lograsso | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Tom Lograsso CMI focus area leader Tom Lograsso CMI Researcher Thomas Lograsso leads Focus Area 2, Developing Substitutes. He started this role in May 2014. Previously he led Focus Area 4, Crosscutting Research while serving as the interim director of The Ames Laboratory. Also at Ames Lab, Tom leads a BES Synthesis & Processing effort on Novel Materials Preparation and Processing Methodology, whose goal is to develop synthesis protocols for new materials including quasicrystals,

  19. CMI Education Partner: Colorado School of Mines | Critical Materials

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Institute Education Partner: Colorado School of Mines Colorado School of Mines offers courses in several areas: Geology Engineering/Geochemistry Mining Engineering Metallurgical Engineering/Materials Science Chemistry Engineering Mineral Economics and Business Geology Engineering/Geochemistry GEGN101. EARTH AND ENVIRONMENTAL SYSTEMS. 4.0 Hours. (I, II, S) Fundamental concepts concerning the nature, composition and evolution of the lithosphere, hydrosphere, atmosphere and biosphere of the

  20. Meet CMI Researcher David Reed | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    David Reed CMI researcher David Reed is the principal investigator for the CMI project bioleaching for recovery of recycled rare earth elements. CMI Researcher David Reed is the PI for project 3.2.5 Bioleaching for Recovery of Recycled REE. The objective of this project is to develop and deploy a biological strategy for recovery of rare earth elements from recyclable materials. His collaborators include Vicki Thompson, Dayna Daubaras, and Debra Bruhn at Idaho National Laboratory and Yongqin Jiao

  1. Meet CMI Researcher Ed Jones | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Ed Jones CMI focus area deputy leader Ed Jones CMI researcher Ed Jones has been at Lawrence Livermore National Laboratory (LLNL) for 22 years, where his work has centered on the analysis, engineering, reliability and performance of energy, environmental, and national asset systems, including infrastructure and materials. He has developed extensive capabilities in the application of probabilistic methods and models to complex performance problems. Recent innovations have been applied to carbon

  2. Meet CMI Researcher Ikenna Nlebedim | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Meet CMI Researcher Ikenna Nlebedim Image: left, CMI researcher Ikenna Nlebedim, and right, Summer 2015 SULI student Gavin Hester CMI researcher Ikenna Nlebedim researches magnets. His research led to a new method for recycling rare earth magnetic material from manufacturing waste. This Ames Laboratory news release describes the process. Also, in this Ames Lab 101 video file, Nlebedim describes recycling rare earths from magnet scraps on the factory floor. Nlebedim led a student researcher for

  3. Meet CMI Researcher Vitalij Pecharsky | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Vitalij Pecharsky Vitalij Pecharsky teaches Chemical and Physical Metallurgy of Rare Earths at Iowa State University. Vitalij Pecharsky, Ames Lab senior metallurgist and ISU Distinguished Professor in materials science and engineering, teaches a course at Iowa State University on the chemical and physical metallurgy of rare earths. The course offered at Iowa State University is available as a distance education course for researchers and industry representatives. It is offered every other spring

  4. Critical and strategic materials proceedings of the laboratory study group meeting

    SciTech Connect (OSTI)

    Not Available

    1983-06-01

    These Proceedings serve to identify the appropriate role for the DOE-BES-DMS Laboratory program concerning critical and strategic materials, identify and articulate high priority DOE-BES-DMS target areas so as to maximize programmatic responsiveness to national needs concerning critical and strategic materials, and identify research, expertise, and resources (including Collaborative Research Centers) that are relevant to critical and strategic materials that is either underway or in place under the DOE-BES-DMS Laboratory program. Laboratory statements of collaborative research are given.

  5. CMI Education and Outreach in 2014 | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    4 CMI education and outreach in 2014: Denver students visit geology museum at Colorado School of Mines. Colorado School of Mines, October 18: 14 members of the Owen Branch of the Boys & Girls Clubs of Metro Denver visited Colorado School of Mines for a museum tour to see minerals, phosphors and metals and to discuss the materials people use daily. Colorado School of Mines, July 17: 150 underserved sixth graders visited Colorado School of Mines. Colorado School of Mines, July 9: 180 6th and

  6. Meet CMI Director Alex King | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Director Alex King CMI Director Alex King CMI Director Alex King was born and raised in London. He attended the University of Sheffield as an undergraduate and earned his doctorate from Oxford. He was a postdoc at Oxford and then M.I.T. before joining the faculty at the State University of New York at Stony Brook, where he also served as the Vice Provost for Graduate Studies (Dean of the Graduate School). He was appointed as Professor and Head of the School of Materials Engineering at Purdue in

  7. CMI Education Resources for K-12 | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Resources for K-12 CMI Education Resources for Elementary School There are a lot of recipes for the cornstarch/water mixture sometimes called oobleck. CMI recommends the one in the activity guide for PBS NOVA "Making Stuff with David Pogue," which includes a smart glove idea. Hooked on Science: Mystery Pipe example in Southeast Missourian; additional ideas from Jason Lindsey, science outreach educator with Hooked on Science, online at hookedonscience.org. American Chemical Society

  8. Critical materials research needed to secure U.S. manufacturing, officials say

    Office of Energy Efficiency and Renewable Energy (EERE)

    Energy Department officials said yesterday that developing alternatives to critical materials, like rare earth metals used in solar panels and wind turbines, is crucial to American manufacturing stability and can help the United States circumvent global market pressures.

  9. Novel Magnetic States in the Heavy-Fermion Quantum-Critical Material...

    Office of Scientific and Technical Information (OSTI)

    by NMR Citation Details In-Document Search Title: Novel Magnetic States in the Heavy-Fermion Quantum-Critical Material CeRhIn5 at High Magnetic Fields Studied by NMR Authors: ...

  10. Novel Magnetic States in the Heavy-Fermion Quantum-Critical Material...

    Office of Scientific and Technical Information (OSTI)

    by NMR Citation Details In-Document Search Title: Novel Magnetic States in the Heavy-Fermion Quantum-Critical Material CeRhIn5 at High Magnetic Fields Studied by NMR You ...

  11. Chapter 6: Innovating Clean Energy Technologies in Advanced Manufacturing | Critical Materials Technology Assessment

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Critical Materials Chapter 6: Technology Assessments NOTE: This technology assessment is available as an appendix to the 2015 Quadrennial Technology Review (QTR). Critical Materials is one of fourteen manufacturing-focused technology assessments prepared in support of Chapter 6: Innovating Clean Energy Technologies in Advanced Manufacturing. For context within the 2015 QTR, key connections between this technology assessment, other QTR technology chapters, and other Chapter 6 technology

  12. Trans-Atlantic Workshop on Rare Earth Elements and Other Critical Materials for a Clean Energy Future

    Office of Energy Efficiency and Renewable Energy (EERE)

    Trans-Atlantic Workshop on Rare Earth Elements and Other Critical Materials for a Clean Energy Future

  13. Critical Materials and Rare Futures: Ames Laboratory Signs a New Agreement

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    on Rare-Earth Research | Department of Energy Critical Materials and Rare Futures: Ames Laboratory Signs a New Agreement on Rare-Earth Research Critical Materials and Rare Futures: Ames Laboratory Signs a New Agreement on Rare-Earth Research June 15, 2011 - 7:07pm Addthis The plasma torch in the Retech plasma furnace is one tool used in Materials Preparation Center to create ultra-high purity metal alloy samples, particularly rare-earth metals, located at the Ames Lab. | Photo Courtesy of

  14. Critical Materials:

    Office of Environmental Management (EM)

    ... Notably, Tesla 141 employs induction motors, rather than motors using rare earth permanent ... using rare earth permanent 143 magnets, Tesla may have chosen this technology in part ...

  15. Coating Active Materials for Applications in Electrochemical Devices |

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Argonne National Laboratory Coating Active Materials for Applications in Electrochemical Devices Technology available for licensing: A process that includes suspending/dissolving an electro-active material and a carbon precursor in a solvent; and then depositing the carbon precursor on the electro-active material to form a carbon-coated electro-active material Process reduces manufacturing cost Coating process produces carbon-coated metal oxides without the problems associated with

  16. Nanoporous Materials Can Tune the Critical Point of a Pure Substance

    SciTech Connect (OSTI)

    Braun, Efrem; Chen, Joseph J.; Schnell, Sondre K.; Lin, Li-Chiang; Reimer, Jeffrey A.; Smit, Berend

    2015-09-30

    Molecular simulations and NMR relaxometry experiments demonstrate that pure benzene or xylene confined in isoreticular metal–organic frameworks (IRMOFs) exhibit true vapor–liquid phase equilibria where the effective critical point may be reduced by tuning the structure of the MOF. Our results are consistent with vapor and liquid phases extending over many MOF unit cells. These results are counterintuitive since the MOF pore diameters are approximately the same length scale as the adsorbate molecules. Lastly, as applications of these materials in catalysis, separations, and gas storage rely on the ability to tune the properties of adsorbed molecules, we anticipate that the ability to systematically control the critical point, thereby preparing spatially inhomogeneous local adsorbate densities, could add a new design tool for MOF applications.

  17. Nanoporous Materials Can Tune the Critical Point of a Pure Substance

    DOE Public Access Gateway for Energy & Science Beta (PAGES Beta)

    Braun, Efrem; Chen, Joseph J.; Schnell, Sondre K.; Lin, Li-Chiang; Reimer, Jeffrey A.; Smit, Berend

    2015-09-30

    Molecular simulations and NMR relaxometry experiments demonstrate that pure benzene or xylene confined in isoreticular metal–organic frameworks (IRMOFs) exhibit true vapor–liquid phase equilibria where the effective critical point may be reduced by tuning the structure of the MOF. Our results are consistent with vapor and liquid phases extending over many MOF unit cells. These results are counterintuitive since the MOF pore diameters are approximately the same length scale as the adsorbate molecules. Lastly, as applications of these materials in catalysis, separations, and gas storage rely on the ability to tune the properties of adsorbed molecules, we anticipate that the abilitymore » to systematically control the critical point, thereby preparing spatially inhomogeneous local adsorbate densities, could add a new design tool for MOF applications.« less

  18. Energy Department Announces $3 Million to Lower Cost of Geothermal Energy and Boost U.S. Supply of Critical Materials

    Office of Energy Efficiency and Renewable Energy (EERE)

    The Energy Department today announced $3 million for research and development to help grow U.S. low-to-moderate-temperature geothermal resources and support a domestic supply of critical materials, such as lithium carbonate and rare earth elements.

  19. Critically safe vacuum pickup for use in wet or dry cleanup of radioactive materials

    DOE Patents [OSTI]

    Zeren, Joseph D.

    1994-01-01

    A vacuum pickup of critically safe quantity and geometric shape is used in cleanup of radioactive materials. Collected radioactive material is accumulated in four vertical, parallel, equally spaced canisters arranged in a cylinder configuration. Each canister contains a filter bag. An upper intake manifold includes four 90 degree spaced, downward facing nipples. Each nipple communicates with the top of a canister. The bottom of each canister communicates with an exhaust manifold comprising four radially extending tubes that meet at the bottom of a centrally located vertical cylinder. The top of the central cylinder terminates at a motor/fan power head. A removable HEPA filter is located intermediate the top of the central cylinder and the power head. Four horizontal bypass tubes connect the top of the central cylinder to the top of each of the canisters. Air enters the vacuum cleaner via a hose connected to the intake manifold. Air then travels down the canisters, where particulate material is accumulated in generally equal quantities in each filter bag. Four air paths of bag filtered air then pass radially inward to the bottom of the central cylinder. Air moves up the central cylinder, through the HEPA filter, through a vacuum fan compartment, and exits the vacuum cleaner. A float air flow valve is mounted at the top of the central cylinder. When liquid accumulates to a given level within the central cylinder, the four bypass tubes, and the four canisters, suction is terminated by operation of the float valve.

  20. Rare earth elements and critical metal content of extracted landfilled material and potential recovery opportunities

    SciTech Connect (OSTI)

    Gutiérrez-Gutiérrez, Silvia C.; Coulon, Frédéric; Jiang, Ying; Wagland, Stuart

    2015-08-15

    Highlights: • Samples from multiple core drills were obtained from 4× landfill sites in the UK. • Each sample analysed for rare earth elements, critical metals and valuable metals. • Two stage microwave digestion method ensuring high yield. • High quantities of copper and aluminium were observed in the soil layers of landfill. • Across 4× landfills aluminium and copper present has a value of around $400 million. - Abstract: Rare earth elements (REEs), Platinum group metals (PGMs) and other critical metals currently attract significant interest due to the high risks of supply shortage and substantial impact on the economy. Their uses in many applications have made them present in municipal solid waste (MSW) and in commercial and industrial waste (C&I), since several industrial processes produce by-products with high content of these metals. With over 4000 landfills in the UK alone, the aim of this study was to assess the existence of these critical metals within landfills. Samples collected from four closed landfills in UK were subjected to a two-step acid digestion to extract 27 metals of interest. Concentrations across the four landfill sites were 58 ± 6 mg kg{sup −1} for REEs comprising 44 ± 8 mg kg{sup −1} for light REEs, 11 ± 2 mg kg{sup −1} for heavy REEs and 3 ± 1 mg kg{sup −1} for Scandium (Sc) and 3 ± 1.0 mg kg{sup −1} of PGMs. Compared to the typical concentration in ores, these concentrations are too low to achieve a commercially viable extraction. However, content of other highly valuable metals (Al and Cu) was found in concentrations equating to a combined value across the four landfills of around $400 million, which increases the economic viability of landfill mining. Presence of critical metals will mainly depend on the type of waste that was buried but the recovery of these metals through landfill mining is possible and is economically feasible only if additional materials (plastics, paper, metallic items and other) are

  1. Predicting critical temperatures of iron(II) spin crossover materials: Density functional theory plus U approach

    SciTech Connect (OSTI)

    Zhang, Yachao

    2014-12-07

    A first-principles study of critical temperatures (T{sub c}) of spin crossover (SCO) materials requires accurate description of the strongly correlated 3d electrons as well as much computational effort. This task is still a challenge for the widely used local density or generalized gradient approximations (LDA/GGA) and hybrid functionals. One remedy, termed density functional theory plus U (DFT+U) approach, introduces a Hubbard U term to deal with the localized electrons at marginal computational cost, while treats the delocalized electrons with LDA/GGA. Here, we employ the DFT+U approach to investigate the T{sub c} of a pair of iron(II) SCO molecular crystals (α and β phase), where identical constituent molecules are packed in different ways. We first calculate the adiabatic high spin-low spin energy splitting ΔE{sub HL} and molecular vibrational frequencies in both spin states, then obtain the temperature dependent enthalpy and entropy changes (ΔH and ΔS), and finally extract T{sub c} by exploiting the ΔH/T − T and ΔS − T relationships. The results are in agreement with experiment. Analysis of geometries and electronic structures shows that the local ligand field in the α phase is slightly weakened by the H-bondings involving the ligand atoms and the specific crystal packing style. We find that this effect is largely responsible for the difference in T{sub c} of the two phases. This study shows the applicability of the DFT+U approach for predicting T{sub c} of SCO materials, and provides a clear insight into the subtle influence of the crystal packing effects on SCO behavior.

  2. Review of activities in USA on HTS materials

    SciTech Connect (OSTI)

    Peterson, D.E.

    1995-02-01

    Rapid progress in attaining practical applications of High Temperature Superconductors (HTS) has been made since the discovery of these new materials. Many critical parameters influencing HTS powder synthesis and wire processing have been identified through a combination of fundamental exploration and applied research. The complexity of these novel materials with regard to phase behavior and physical properties has become evident as a result of these careful studies. Achieving optimal mechanical and superconducting properties in wires and tapes will require further understanding and synergy among several different technical disciplines. Highlights of efforts towards producing practical superconductors for electric power applications based on rare earth-, bismuth-, and thallium-based systems are reviewed.

  3. Surface-Modified Active Materials for Lithium Ion Battery Electrodes -

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Energy Innovation Portal Active Materials for Lithium Ion Battery Electrodes Lawrence Berkeley National Laboratory Contact LBL About This Technology Technology Marketing Summary Berkeley Lab researcher Gao Liu has developed a new fabrication technique for lithium ion battery electrodes that lowers binder cost without sacrificing performance and reliability. Description The innovative process evaporates a thin polymer coating on the active materials' particles and mixes these coated particles

  4. Calcium alloy as active material in secondary electrochemical cell

    DOE Patents [OSTI]

    Roche, Michael F.; Preto, Sandra K.; Martin, Allan E.

    1976-01-01

    Calcium alloys such as calcium-aluminum and calcium-silicon, are employed as active material within a rechargeable negative electrode of an electrochemical cell. Such cells can use a molten salt electrolyte including calcium ions and a positive electrode having sulfur, sulfides, or oxides as active material. The calcium alloy is selected to prevent formation of molten calcium alloys resulting from reaction with the selected molten electrolytic salt at the cell operating temperatures.

  5. Long-lived activation products in reactor materials

    SciTech Connect (OSTI)

    Evans, J.C.; Lepel, E.L.; Sanders, R.W.; Wilkerson, C.L.; Silker, W.; Thomas, C.W.; Abel, K.H.; Robertson, D.R.

    1984-08-01

    The purpose of this program was to assess the problems posed to reactor decommissioning by long-lived activation products in reactor construction materials. Samples of stainless steel, vessel steel, concrete, and concrete ingredients were analyzed for up to 52 elements in order to develop a data base of activatable major, minor, and trace elements. Large compositional variations were noted for some elements. Cobalt and niobium concentrations in stainless steel, for example, were found to vary by more than an order of magnitude. A thorough evaluation was made of all possible nuclear reactions that could lead to long lived activation products. It was concluded that all major activation products have been satisfactorily accounted for in decommissioning planning studies completed to date. A detailed series of calculations was carried out using average values of the measured compositions of the appropriate materials to predict the levels of activation products expected in reactor internals, vessel walls, and bioshield materials for PWR and BWR geometries. A comparison is made between calculated activation levels and regulatory guidelines for shallow land disposal according to 10 CFR 61. This analysis shows that PWR and BWR shroud material exceeds the Class C limits and is, therefore, generally unsuitable for near-surface disposal. The PWR core barrel material approaches the Class C limits. Most of the remaining massive components qualify as either Class A or B waste with the bioshield clearly Class A, even at the highest point of activation. Selected samples of activated steel and concrete were subjected to a limited radiochemical analysis program as a verification of the computer model. Reasonably good agreement with the calculations was obtained where comparison was possible. In particular, the presence of /sup 94/Nb in activated stainless steel at or somewhat above expected levels was confirmed.

  6. Annual Trilateral U.S. – EU – Japan Conference on Critical Materials for a Clean Energy Future, October 4-5, 2011

    Office of Energy Efficiency and Renewable Energy (EERE)

    Agenda from the first meeting of the Annual Trilateral U.S. – EU – Japan Conference on Critical Materials for a Clean Energy Future

  7. (Critical topics of plasma facing materials/plasma facing component data for the next step fusion devices)

    SciTech Connect (OSTI)

    Burchell, T.D.

    1991-01-04

    The Unites States-Japan Workshop P-165 brought together approximately 60 scientists and engineers to discuss critical topics of plasma facing materials and components for the next-step fusion device. In addition to the United States and Japanese participants, there were several guest attendees from Europe. The international makeup of the participants greatly enhanced the success of the workshop. The author jointly chaired a workshop session entitled Impact of Neutron Effects to Plasma Facing Materials and Plasma Facing Component (PFC) Feasibilities for the International Thermonuclear Experimental Reactor (ITER),'' and presented an overview paper on neutron effects and materials selection for the next-step plasma facing devices. The author presented his work on the effects of neutron irradiation on graphites and carbon-carbon (c/c) composite materials, which are strong candidate materials for PFC's in ITER. The workshop addressed many issues of current concern to the PFC/PFM community including: plasma erosion of PFM's; trapping/detrapping of hydrogen isotopes; large machine operating experience; and extent of the materials database.

  8. Positive Active Material For Alkaline Electrolyte Storage Battert Nickel Electrodes

    DOE Patents [OSTI]

    Bernard, Patrick; Baudry, Michelle

    2000-12-05

    A method of manufacturing a positive active material for nickel electrodes of alkaline storage batteries which consists of particles of hydroxide containing mainly nickel and covered with a layer of a hydroxide phase based on nickel and yttrium is disclosed. The proportion of the hydroxide phase is in the range 0.15% to 3% by weight of yttrium expressed as yttrium hydroxide relative to the total weight of particles.

  9. Using DFT Methods to Study Activators in Optical Materials

    DOE Public Access Gateway for Energy & Science Beta (PAGES Beta)

    Du, Mao-Hua

    2015-08-17

    Density functional theory (DFT) calculations of various activators (ranging from transition metal ions, rare-earth ions, ns2 ions, to self-trapped and dopant-bound excitons) in phosphors and scintillators are reviewed. As a single-particle ground-state theory, DFT calculations cannot reproduce the experimentally observed optical spectra, which involve transitions between multi-electronic states. However, DFT calculations can generally provide sufficiently accurate structural relaxation and distinguish different hybridization strengths between an activator and its ligands in different host compounds. This is important because the activator-ligand interaction often governs the trends in luminescence properties in phosphors and scintillators, and can be used to search for new materials.more » DFT calculations of the electronic structure of the host compound and the positions of the activator levels relative to the host band edges in scintillators are also important for finding optimal host-activator combinations for high light yields and fast scintillation response. Mn4+ activated red phosphors, scintillators activated by Ce3+, Eu2+, Tl+, and excitons are shown as examples of using DFT calculations in phosphor and scintillator research.« less

  10. Using DFT Methods to Study Activators in Optical Materials

    SciTech Connect (OSTI)

    Du, Mao-Hua

    2015-08-17

    Density functional theory (DFT) calculations of various activators (ranging from transition metal ions, rare-earth ions, ns2 ions, to self-trapped and dopant-bound excitons) in phosphors and scintillators are reviewed. As a single-particle ground-state theory, DFT calculations cannot reproduce the experimentally observed optical spectra, which involve transitions between multi-electronic states. However, DFT calculations can generally provide sufficiently accurate structural relaxation and distinguish different hybridization strengths between an activator and its ligands in different host compounds. This is important because the activator-ligand interaction often governs the trends in luminescence properties in phosphors and scintillators, and can be used to search for new materials. DFT calculations of the electronic structure of the host compound and the positions of the activator levels relative to the host band edges in scintillators are also important for finding optimal host-activator combinations for high light yields and fast scintillation response. Mn4+ activated red phosphors, scintillators activated by Ce3+, Eu2+, Tl+, and excitons are shown as examples of using DFT calculations in phosphor and scintillator research.

  11. Materials for Consideration in Standardized Canister Design Activities.

    SciTech Connect (OSTI)

    Bryan, Charles R.; Ilgen, Anastasia Gennadyevna; Enos, David George; Teich-McGoldrick, Stephanie; Hardin, Ernest

    2014-10-01

    This document identifies materials and material mitigation processes that might be used in new designs for standardized canisters for storage, transportation, and disposal of spent nuclear fuel. It also addresses potential corrosion issues with existing dual-purpose canisters (DPCs) that could be addressed in new canister designs. The major potential corrosion risk during storage is stress corrosion cracking of the weld regions on the 304 SS/316 SS canister shell due to deliquescence of chloride salts on the surface. Two approaches are proposed to alleviate this potential risk. First, the existing canister materials (304 and 316 SS) could be used, but the welds mitigated to relieve residual stresses and/or sensitization. Alternatively, more corrosion-resistant steels such as super-austenitic or duplex stainless steels, could be used. Experimental testing is needed to verify that these alternatives would successfully reduce the risk of stress corrosion cracking during fuel storage. For disposal in a geologic repository, the canister will be enclosed in a corrosion-resistant or corrosion-allowance overpack that will provide barrier capability and mechanical strength. The canister shell will no longer have a barrier function and its containment integrity can be ignored. The basket and neutron absorbers within the canister have the important role of limiting the possibility of post-closure criticality. The time period for corrosion is much longer in the post-closure period, and one major unanswered question is whether the basket materials will corrode slowly enough to maintain structural integrity for at least 10,000 years. Whereas there is extensive literature on stainless steels, this evaluation recommends testing of 304 and 316 SS, and more corrosion-resistant steels such as super-austenitic, duplex, and super-duplex stainless steels, at repository-relevant physical and chemical conditions. Both general and localized corrosion testing methods would be used to

  12. Heavy fermions, quantum criticality, and unconventional superconductivity in filled skutterudites and related materials

    SciTech Connect (OSTI)

    Andraka, Bohdan

    2015-05-14

    The main goal of this program was to explore the possibility of novel states and behaviors in Pr-based system exhibiting quantum critical behavior, PrOs?Sb??. Upon small changes of external parameter, such as magnetic field, physical properties of PrOs?Sb?? are drastically altered from those corresponding to a superconductor, to heavy fermion, to field-induced ordered phase with primary quadrupolar order parameter. All these states are highly unconventional and not understood in terms of current theories thus offer an opportunity to expand our knowledge and understanding of condensed matter. At the same time, these novel states and behaviors are subjects to intense international controversies. In particular, two superconducting phases with different transition temperatures were observed in some samples and not observed in others leading to speculations that sample defects might be partially responsible for these exotic behaviors. This work clearly established that crystal disorder is important consideration, but contrary to current consensus this disorder suppresses exotic behavior. Superconducting properties imply unconventional inhomogeneous state that emerges from unconventional homogeneous normal state. Comprehensive structural investigations demonstrated that upper superconducting transition is intrinsic, bulk, and unconventional. The high quality of in-house synthesized single crystals was indirectly confirmed by de Haas-van Alphen quantum oscillation measurements. These measurements, for the first time ever reported, spanned several different phases, offering unprecedented possibility of studying quantum oscillations across phase boundaries.

  13. Enhancing activated-peroxide formulations for porous materials :

    SciTech Connect (OSTI)

    Krauter, Paula; Tucker, Mark D.; Tezak, Matthew S.; Boucher, Raymond

    2012-12-01

    During an urban wide-area incident involving the release of a biological warfare agent, the recovery/restoration effort will require extensive resources and will tax the current capabilities of the government and private contractors. In fact, resources may be so limited that decontamination by facility owners/occupants may become necessary and a simple decontamination process and material should be available for this use. One potential process for use by facility owners/occupants would be a liquid sporicidal decontaminant, such as pHamended bleach or activated-peroxide, and simple application devices. While pH-amended bleach is currently the recommended low-tech decontamination solution, a less corrosive and toxic decontaminant is desirable. The objective of this project is to provide an operational assessment of an alternative to chlorine bleach for low-tech decontamination applications activated hydrogen peroxide. This report provides the methods and results for activatedperoxide evaluation experiments. The results suggest that the efficacy of an activated-peroxide decontaminant is similar to pH-amended bleach on many common materials.

  14. Critical role of intercalated water for electrocatalytically active nitrogen-doped graphitic systems

    DOE Public Access Gateway for Energy & Science Beta (PAGES Beta)

    Martinez, Ulises; Dumont, Joseph H.; Holby, Edward F.; Artyushkova, Kateryna; Purdy, Geraldine M.; Singh, Akhilesh; Mack, Nathan H.; Atanassov, Plamen; Cullen, David A.; More, Karren L.; et al

    2016-03-18

    Graphitic materials are very essential in energy conversion and storage because of their excellent chemical and electrical properties. The strategy for obtaining functional graphitic materials involves graphite oxidation and subsequent dissolution in aqueous media, forming graphene-oxide nanosheets (GNs). Restacked GNs contain substantial intercalated water that can react with heteroatom dopants or the graphene lattice during reduction. We demonstrate that removal of intercalated water using simple solvent treatments causes significant structural reorganization, substantially affecting the oxygen reduction reaction (ORR) activity and stability of nitrogen-doped graphitic systems. Amid contrasting reports describing the ORR activity of GN-based catalysts in alkaline electrolytes, we demonstratemore » superior activity in an acidic electrolyte with an onset potential of ~0.9 V, a half-wave potential (E½) of 0.71 V, and a selectivity for four-electron reduction of >95%. Finally and further, durability testing showed E½ retention >95% in N2- and O2-saturated solutions after 2000 cycles, demonstrating the highest ORR activity and stability reported to date for GN-based electrocatalysts in acidic media.« less

  15. Breckinridge Project, initial effort. Report XI, Volume III. Critical design areas. [Identification of critical design areas; design or materials problems, trade-off areas, items affecting operability and reliability

    SciTech Connect (OSTI)

    1982-01-01

    Several meetings have been held with representatives from Ashland Synthetic Fuels, Inc.; Airco Energy Company, Inc.; Bechtel Group, Inc.; and HRI Engineering, Inc. to identify critical design areas in the Phase Zero work. (Critical design areas are defined as those requiring additional data or further work to finalize design or material selection, to optimize the trade-off between capital investment and operating cost, or to enhance system operability and reliability.) The critical design areas so identified are summarized by plant in this volume of Report XI. Items of a proprietary nature have been omitted from this report, but are included in the limited access version.

  16. Surface modification of active material structures in battery electrodes

    DOE Patents [OSTI]

    Erickson, Michael; Tikhonov, Konstantin

    2016-02-02

    Provided herein are methods of processing electrode active material structures for use in electrochemical cells or, more specifically, methods of forming surface layers on these structures. The structures are combined with a liquid to form a mixture. The mixture includes a surface reagent that chemically reacts and forms a surface layer covalently bound to the structures. The surface reagent may be a part of the initial liquid or added to the mixture after the liquid is combined with the structures. In some embodiments, the mixture may be processed to form a powder containing the structures with the surface layer thereon. Alternatively, the mixture may be deposited onto a current collecting substrate and dried to form an electrode layer. Furthermore, the liquid may be an electrolyte containing the surface reagent and a salt. The liquid soaks the previously arranged electrodes in order to contact the structures with the surface reagent.

  17. Microstructure and Property Evolution in Advanced Cladding and Duct Materials Under Long-Term Irradiation at Elevated Temperature: Critical Experiments

    SciTech Connect (OSTI)

    Was, Gary; Jiao, Zhijie; Allen, Todd; Yang, Yong

    2013-12-20

    radiation on these important materials. The objective of this project is to conduct critical experiments to understand the evolution of microstructural and microchemical features (loops, voids, precipitates, and segregation) and mechanical properties (hardening and creep) under high temperature and full dose range radiation, including the effect of differences in the initial material composition and microstructure on the microstructural response, including key questions related to saturation of the microstructure at high doses and temperatures.

  18. Critical Materials Workshop

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    ... Example-Copper Vertical axis: Composite, weighted impact of supply restriction ... main suppliers -small number of mining, smelting, refining companies in those countries ...

  19. Critical Materials Strategy Summary

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    ... November and December 2010; (ii) strengthen its capacity for ... including Japan and Europe, to reduce vulnerability ... as well as encouraging additional supplies around the world. ...

  20. Research | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Research Four Research Thrusts organizational chart of four research thrusts (A click on the org chart image will lead to a pdf version that includes hotlinks for the e-mail addresses for leaders.) CMI has more than 30 projects focused in four areas. Project titles are available in a table, which can be sorted by project leader, location of project leader, project title or project number. CMI research is conducted at partner institutions, including national laboratories, universities and

  1. Critical Materials Institute

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    ... Bonded Magnets 19. Procedure for Concentrating Rare-earth Elements in Ne odymium Iron Boron- based Permanent Magnets for Efficient RecyclingRecovery 20. Enhancing Consumer ...

  2. Disclaimers | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    makes any warranty, express or implied, including warranties of merchantability and fitness for a particular purpose, or assumes any legal liability or responsibility for the...

  3. Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    in neo magnets * Co in Li ion batteries * Steel from enclosure Approach to Recycling ... and base metals, rare earth oxides and steel Recovery Flowsheet: 1. Shred and separate ...

  4. Solar Energy Educational Material, Activities and Science Projects

    Office of Scientific and Technical Information (OSTI)

    DOE Documents with ActivitiesProjects: Web Pages Solar Energy Education. Renewable Energy Activities for Junior HighMiddle School Science Solar Energy Education. Renewable Energy ...

  5. Solar Energy Educational Material, Activities and Science Projects

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Solar Energy Educational Materials Solar with glasses "The sun has produced energy for billions of years. Solar energy is the solar radiation that reaches the earth. Solar energy ...

  6. Criticality safety basics, a study guide

    SciTech Connect (OSTI)

    V. L. Putman

    1999-09-01

    This document is a self-study and classroom guide, for criticality safety of activities with fissile materials outside nuclear reactors. This guide provides a basic overview of criticality safety and criticality accident prevention methods divided into three parts: theory, application, and history. Except for topic emphasis, theory and history information is general, while application information is specific to the Idaho National Engineering and Environmental Laboratory (INEEL). Information presented here should be useful to personnel who must know criticality safety basics to perform their assignments safely or to design critically safe equipment or operations. However, the guide's primary target audience is fissile material handler candidates.

  7. Critical analysis of the Hanford spent nuclear fuel project activity based cost estimate

    SciTech Connect (OSTI)

    Warren, R.N.

    1998-09-29

    In 1997, the SNFP developed a baseline change request (BCR) and submitted it to DOE-RL for approval. The schedule was formally evaluated to have a 19% probability of success [Williams, 1998]. In December 1997, DOE-RL Manager John Wagoner approved the BCR contingent upon a subsequent independent review of the new baseline. The SNFP took several actions during the first quarter of 1998 to prepare for the independent review. The project developed the Estimating Requirements and Implementation Guide [DESH, 1998] and trained cost account managers (CAMS) and other personnel involved in the estimating process in activity-based cost (ABC) estimating techniques. The SNFP then applied ABC estimating techniques to develop the basis for the December Baseline (DB) and documented that basis in Basis of Estimate (BOE) books. These BOEs were provided to DOE in April 1998. DOE commissioned Professional Analysis, Inc. (PAI) to perform a critical analysis (CA) of the DB. PAI`s review formally began on April 13. PAI performed the CA, provided three sets of findings to the SNFP contractor, and initiated reconciliation meetings. During the course of PAI`s review, DOE directed the SNFP to develop a new baseline with a higher probability of success. The contractor transmitted the new baseline, which is referred to as the High Probability Baseline (HPB), to DOE on April 15, 1998 [Williams, 1998]. The HPB was estimated to approach a 90% confidence level on the start of fuel movement [Williams, 1998]. This high probability resulted in an increased cost and a schedule extension. To implement the new baseline, the contractor initiated 26 BCRs with supporting BOES. PAI`s scope was revised on April 28 to add reviewing the HPB and the associated BCRs and BOES.

  8. High-Activity Radioactive Materials Removed From Mexico | National...

    National Nuclear Security Administration (NNSA)

    of our long-standing partnership with Mexico to prevent proliferation and secure the materials that can be used by terrorists in an improvised nuclear device or dirty bomb." ...

  9. Electron-beam activated thermal sputtering of thermoelectric materials

    SciTech Connect (OSTI)

    Wu Jinsong; Dravid, Vinayak P.; He Jiaqing; Han, Mi-Kyung; Sootsman, Joseph R.; Girard, Steven; Arachchige, Indika U.; Kanatzidis, Mercouri G.

    2011-08-15

    Thermoelectricity and Seebeck effect have long been observed and validated in bulk materials. With the development of advanced tools of materials characterization, here we report the first observation of such an effect in the nanometer scale: in situ directional sputtering of several thermoelectric materials inside electron microscopes. The temperature gradient introduced by the electron beam creates a voltage-drop across the samples, which enhances spontaneous sputtering of specimen ions. The sputtering occurs along a preferential direction determined by the direction of the temperature gradient. A large number of nanoparticles form and accumulate away from the beam location as a result. The sputtering and re-crystallization are found to occur at temperatures far below the melting points of bulk materials. The sputtering occurs even when a liquid nitrogen cooling holder is used to keep the overall temperature at -170 deg. C. This unique phenomenon that occurred in the nanometer scale may provide useful clues to understanding the mechanism of thermoelectric effect.

  10. Electron-beam activated thermal sputtering of thermoelectric materials.

    SciTech Connect (OSTI)

    Wu, J.; He, J.; Han, M-K.; Sootsman, J. R.; Girard, S.; Arachchige, I. U.; Kanatzidis, M. G.; Dravid, V. P.

    2011-08-01

    Thermoelectricity and Seebeck effect have long been observed and validated in bulk materials. With the development of advanced tools of materials characterization, here we report the first observation of such an effect in the nanometer scale: in situ directional sputtering of several thermoelectric materials inside electron microscopes. The temperature gradient introduced by the electron beam creates a voltage-drop across the samples, which enhances spontaneous sputtering of specimen ions. The sputtering occurs along a preferential direction determined by the direction of the temperature gradient. A large number of nanoparticles form and accumulate away from the beam location as a result. The sputtering and re-crystallization are found to occur at temperatures far below the melting points of bulk materials. The sputtering occurs even when a liquid nitrogen cooling holder is used to keep the overall temperature at -170 C. This unique phenomenon that occurred in the nanometer scale may provide useful clues to understanding the mechanism of thermoelectric effect.

  11. Geek-Up[3.18.2011]: Catalytically Active Material and BELLA

    Broader source: Energy.gov [DOE]

    PNL scientists are making catyltically active material that may help advance fuel cell and solar energy storage applications and Berkeley is "boosting" their BELLA accelerator.

  12. Material and Chemical Processing (Concentrated Solar) (4 Activities)

    K-12 Energy Lesson Plans and Activities Web site (EERE)

    Concentrated sunlight is a versatile and high-quality form of energy with several potential applications besides producing heat and electricity. Today, scientists are developing systems that use concentrated sunlight to detoxify hazardous wastes, to drive chemical reactions, and to treat materials for increased hardness and resistance to corrosion.

  13. Criticality Model

    SciTech Connect (OSTI)

    A. Alsaed

    2004-09-14

    computational method will be used for evaluating the criticality potential of configurations of fissionable materials (in-package and external to the waste package) within the repository at Yucca Mountain, Nevada for all waste packages/waste forms. The criticality computational method is also applicable to preclosure configurations. The criticality computational method is a component of the methodology presented in ''Disposal Criticality Analysis Methodology Topical Report'' (YMP 2003). How the criticality computational method fits in the overall disposal criticality analysis methodology is illustrated in Figure 1 (YMP 2003, Figure 3). This calculation will not provide direct input to the total system performance assessment for license application. It is to be used as necessary to determine the criticality potential of configuration classes as determined by the configuration probability analysis of the configuration generator model (BSC 2003a).

  14. Demolitions Produce Recyclable Materials for Organization Promoting Economic Activity

    Broader source: Energy.gov [DOE]

    Demolitions have helped generate more than 8 million pounds of metal at the Piketon site for recycling, further promoting economic activity in the region thanks to the American Recovery and...

  15. Activated carbon fiber composite material and method of making

    DOE Patents [OSTI]

    Burchell, Timothy D.; Weaver, Charles E.; Chilcoat, Bill R.; Derbyshire, Frank; Jagtoyen, Marit

    2001-01-01

    An activated carbon fiber composite for separation and purification, or catalytic processing of fluids is described. The activated composite comprises carbon fibers rigidly bonded to form an open, permeable, rigid monolith capable of being formed to near-net-shape. Separation and purification of gases are effected by means of a controlled pore structure that is developed in the carbon fibers contained in the composite. The open, permeable structure allows the free flow of gases through the monolith accompanied by high rates of adsorption. By modification of the pore structure and bulk density the composite can be rendered suitable for applications such as gas storage, catalysis, and liquid phase processing.

  16. Activated carbon fiber composite material and method of making

    DOE Patents [OSTI]

    Burchell, Timothy D.; Weaver, Charles E.; Chilcoat, Bill R.; Derbyshire, Frank; Jagtoyen, Marit

    2000-01-01

    An activated carbon fiber composite for separation and purification, or catalytic processing of fluids is described. The activated composite comprises carbon fibers rigidly bonded to form an open, permeable, rigid monolith capable of being formed to near-net-shape. Separation and purification of gases are effected by means of a controlled pore structure that is developed in the carbon fibers contained in the composite. The open, permeable structure allows the free flow of gases through the monolith accompanied by high rates of adsorption. By modification of the pore structure and bulk density the composite can be rendered suitable for applications such as gas storage, catalysis, and liquid phase processing.

  17. Recovery of Rare Earths, Precious Metals and Other Critical Materials from Geothermal Waters with Advanced Sorbent Structures

    DOE Data Explorer [Office of Scientific and Technical Information (OSTI)]

    Pamela M. Kinsey

    2015-09-30

    The work evaluates, develops and demonstrates flexible, scalable mineral extraction technology for geothermal brines based upon solid phase sorbent materials with a specific focus upon rare earth elements (REEs). The selected organic and inorganic sorbent materials demonstrated high performance for collection of trace REEs, precious and valuable metals. The nanostructured materials typically performed better than commercially available sorbents. Data contains organic and inorganic sorbent removal efficiency, Sharkey Hot Springs (Idaho) water chemsitry analysis, and rare earth removal efficiency from select sorbents.

  18. Exploratory research on mutagenic activity of coal-related materials

    SciTech Connect (OSTI)

    Warshawsky, D.; Schoeny, R. S.

    1980-01-01

    The following samples were found to be mutagenic for strains TA1538, TA98 and TA100 Salmonella typhimurium: ETTM-10, ETTM-11, ETTM-15, ETTM-16, and ETTM-17. ETTM-13 was marginally mutagenic for TA1537. ETTM-14 was slightly mutagenic for TA1537, TA1538, and TA98. Mutagenicity by all samples was demonstrated only in the presence of hepatic enzyme extracts (S9) which provided metabolic activation. ETTM-11 was shown to be the most mutagenic sample assayed thus far; specific activity was 2.79 x 10/sup 4/ TA98 revertants/mg sample. Fractionation by serial extractions with increasingly polar organic solvents was done at least 2 x with ETTM-10, ETTM-11, ETTM-15, ETTM-16 and ETTM-17. For some samples highly mutagenic fractions were observed.

  19. Application of neutron-activation analysis to geological materials

    SciTech Connect (OSTI)

    Laul, J.C.; Wogman, N.A.

    1980-12-01

    Neutron activation analysis (NAA) is an extremely sensitive, selective, and precise method, which yields a wealth of elemental information from even a small-sized sample. By varying neutron fluxes, irradiation times, decay and counting intervals in instrumental NAA, it is possible to accurately determine about 35 elements in a geological aliquot. When INAA is coupled with coincidence-noncoincidence Ge(Li)-Na(Tl) counting, it enhances the sensitivities of various elements by order of magnitude. The attractive features of INAA are that it is fast, nondestructive and economical.

  20. Active nondestructive assay of nuclear materials: principles and applications

    SciTech Connect (OSTI)

    Gozani, Tsahi

    1981-01-01

    The purpose of this book is to present, coherently and comprehensively, the wealth of available but scattered information on the principles and applications of active nondestructive analysis (ANDA). Chapters are devoted to the following: background and overview; interactions of neutrons with matter; interactions of ..gamma..-rays with matter; neutron production and sources; ..gamma..-ray production and sources; effects of neutron and ..gamma..-ray transport in bulk media; signatures of neutron- and photon-induced fissions; neutron and photon detection systems and electronics; representative ANDA systems; and instrument analysis, calibration, and measurement control for ANDA. Each chapter has an introductory section describing the relationship of the topic of that chapter to ANDA. Each chapter ends with a section that summarizes the main results and conclusions of the chapter, and a reference list.

  1. THERMAL IMAGING OF ACTIVE MAGNETIC REGERNERATOR MCE MATERIALS DURING OPERATION

    SciTech Connect (OSTI)

    Shassere, Benjamin; West, David L; Abdelaziz, Omar; Evans III, Boyd Mccutchen

    2012-01-01

    An active magnetic regenerator (AMR) prototype was constructed that incorporates a Gd sheet into the regenerator wall to enable visualization of the system s thermal transients. In this experiment, the thermal conditions inside the AMR are observed under a variety of operating conditions. An infrared (IR) camera is employed to visualize the thermal transients within the AMR. The IR camera is used to visually and quantitatively evaluate the temperature difference and thus giving means to calculate the performance of the system under the various operating conditions. Thermal imaging results are presented for two differing experimental test runs. Real time imaging of the thermal state of the AMR has been conducted while operating the system over a range of conditions. A 1 Tesla twin-coil electromagnet (situated on a C frame base) is used for this experiment such that all components are stationary during testing. A modular, linear reciprocating system has been realized in which the effects of regenerator porosity and utilization factor can be investigated. To evaluate the performance variation in porosity and utilization factor the AMR housing was constructed such that the plate spacing of the Gd sheets may be varied. Each Gd sheet has dimensions of 38 mm wide and 66 mm long with a thickness of 1 mm and the regenerator can hold a maximum of 29 plates with a spacing of 0.25 mm. Quantitative and thermal imaging results are presented for several regenerator configurations.

  2. Neutron Activation and Thermoluminescent Detector Responses to a Bare Pulse of the CEA Valduc SILENE Critical Assembly

    SciTech Connect (OSTI)

    Miller, Thomas Martin; Celik, Cihangir; McMahan, Kimberly L.; Lee, Yi-kang; Gagnier, Emmanuel; Authier, Nicolas; Piot, Jerome; Jacquet, Xavier; Rousseau, Guillaume; Reynolds, Kevin H.

    2015-09-01

    This benchmark experiment was conducted as a joint venture between the US Department of Energy (DOE) and the French Commissariat à l'Energie Atomique (CEA). Staff at the Oak Ridge National Laboratory (ORNL) in the US and the Centre de Valduc in France planned this experiment. The experiment was conducted on October 11, 2010 in the SILENE critical assembly facility at Valduc. Several other organizations contributed to this experiment and the subsequent evaluation, including CEA Saclay, Lawrence Livermore National Laboratory (LLNL), the Y-12 National Security Complex (NSC), Babcock International Group in the United Kingdom, and Los Alamos National Laboratory (LANL). The goal of this experiment was to measure neutron activation and thermoluminescent dosimeter (TLD) doses from a source similar to a fissile solution critical excursion. The resulting benchmark can be used for validation of computer codes and nuclear data libraries as required when performing analysis of criticality accident alarm systems (CAASs). A secondary goal of this experiment was to qualitatively test performance of two CAAS detectors similar to those currently and formerly in use in some US DOE facilities. The detectors tested were the CIDAS MkX and the Rocky Flats NCD-91. These detectors were being evaluated to determine whether they would alarm, so they were not expected to generate benchmark quality data.

  3. Rattling Nucleons: New Developments in Active Interrogation of Special Nuclear Material

    SciTech Connect (OSTI)

    Robert C. Runkle; David L. Chichester; Scott J. Thompson

    2012-01-01

    Active interrogation is a vigorous area of research and development due to its promise of offering detection and characterization capabilities of special nuclear material in environments where passive detection fails. The primary value added by active methods is the capability to penetrate shielding - special nuclear material itself, incidental materials, or intentional shielding - and advocates hope that active interrogation will provide a solution to the problem of detecting shielded uranium, which is at present the greatest obstacle to interdiction efforts. The technique also provides a unique benefit for quantifying nuclear material in high background-radiation environments, an area important for nuclear material safeguards and material accountancy. Progress has been made in the field of active interrogation on several fronts, most notably in the arenas of source development, systems integration, and the integration and exploitation of multiple fission and non-fission signatures. But penetration of interrogating radiation often comes at a cost, not only in terms of finance and dose but also in terms of induced backgrounds, system complexity, and extended measurement times (including set up and acquisition). These costs make the calculus for deciding to implement active interrogation more subtle than may be apparent. The purpose of this review is thus to examine existing interrogation methods, compare and contrast their attributes and limitations, and identify missions where active interrogation may hold the most promise.

  4. Materials

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Materials Materials Access to Hopper Phase II (Cray XE6) If you are a current NERSC user, you are enabled to use Hopper Phase II. Use your SSH client to connect to Hopper II:...

  5. Materials

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Materials Materials Understanding and manipulating the most fundamental properties of materials can lead to major breakthroughs in solar power, reactor fuels, optical computing, telecommunications. News Releases Science Briefs Photos Picture of the Week Publications Social Media Videos Fact Sheets Yu Seung Kim (left) and Kwan-Soo Lee (right) New class of fuel cells offer increased flexibility, lower cost A new class of fuel cells based on a newly discovered polymer-based material could bridge

  6. Electrode-active material for electrochemical batteries and method of preparation

    DOE Patents [OSTI]

    Varma, Ravi

    1987-01-01

    A battery electrode material comprising a non-stoichiometric electrode-active material which forms a redox pair with the battery electrolyte, an electrically conductive polymer present in the range of from about 2% by weight to about 5% by weight of the electrode-active material, and a binder. The conductive polymer provides improved proton or ion conductivity and is a ligand resulting in metal ion or negative ion vacancies of less than about 0.1 atom percent. Specific electrodes of nickel and lead are disclosed.

  7. Electrode-active material for electrochemical batteries and method of preparation

    DOE Patents [OSTI]

    Varma, R.

    1983-11-07

    A battery electrode material comprises a non-stoichiometric electrode-active material which forms a redox pair with the battery electrolyte, an electrically conductive polymer present in the range of from about 2% by weight to about 5% by weight of the electrode-active material, and a binder. The conductive polymer provides improved proton or ion conductivity and is a ligand resulting in metal ion or negative ion vacancies of less than about 0.1 atom percent. Specific electrodes of nickel and lead are disclosed.

  8. IFMIF - International Fusion Materials Irradiation Facility Conceptual Design Activity/Interim Report

    SciTech Connect (OSTI)

    Rennich, M.J.

    1995-12-01

    Environmental acceptability, safety, and economic viability win ultimately be the keys to the widespread introduction of fusion power. This will entail the development of radiation- resistant and low- activation materials. These low-activation materials must also survive exposure to damage from neutrons having an energy spectrum peaked near 14 MeV with annual radiation doses in the range of 20 displacements per atom (dpa). Testing of candidate materials, therefore, requires a high-flux source of high energy neutrons. The problem is that there is currently no high-flux source of neutrons in the energy range above a few MeV. The goal, is therefore, to provide an irradiation facility for use by fusion material scientists in the search for low-activation and damage-resistant materials. An accellerator-based neutron source has been established through a number of international studies and workshops` as an essential step for materials development and testing. The mission of the International Fusion Materials Irradiation Facility (IFMIF) is to provide an accelerator-based, deuterium-lithium (D-Li) neutron source to produce high energy neutrons at sufficient intensity and irradiation volume to test samples of candidate materials up to about a full lifetime of anticipated use in fusion energy reactors. would also provide calibration and validation of data from fission reactor and other accelerator-based irradiation tests. It would generate material- specific activation and radiological properties data, and support the analysis of materials for use in safety, maintenance, recycling, decommissioning, and waste disposal systems.

  9. Real space mapping of ionic diffusion and electrochemical activity in energy storage and conversion materials

    DOE Patents [OSTI]

    Kalinin, Sergei V; Balke, Nina; Kumar, Amit; Dudney, Nancy J; Jesse, Stephen

    2014-05-06

    A method and system for probing mobile ion diffusivity and electrochemical reactivity on a nanometer length scale of a free electrochemically active surface includes a control module that biases the surface of the material. An electrical excitation signal is applied to the material and induces the movement of mobile ions. An SPM probe in contact with the surface of the material detects the displacement of mobile ions at the surface of the material. A detector measures an electromechanical strain response at the surface of the material based on the movement and reactions of the mobile ions. The use of an SPM tip to detect local deformations allows highly reproducible measurements in an ambient environment without visible changes in surface structure. The measurements illustrate effective spatial resolution comparable with defect spacing and well below characteristic grain sizes of the material.

  10. Material Activation Benchmark Experiments at the NuMI Hadron Absorber Hall in Fermilab

    SciTech Connect (OSTI)

    Matsumura, H.; Matsuda, N.; Kasugai, Y.; Toyoda, A.; Yashima, H.; Sekimoto, S.; Iwase, H.; Oishi, K.; Sakamoto, Y.; Nakashima, H.; Leveling, A.; Boehnlein, D.; Lauten, G.; Mokhov, N.; Vaziri, K.

    2014-06-15

    In our previous study, double and mirror symmetric activation peaks found for Al and Au arranged spatially on the back of the Hadron absorber of the NuMI beamline in Fermilab were considerably higher than those expected purely from muon-induced reactions. From material activation bench-mark experiments, we conclude that this activation is due to hadrons with energy greater than 3 GeV that had passed downstream through small gaps in the hadron absorber.

  11. Physical, Hydraulic, and Transport Properties of Sediments and Engineered Materials Associated with Hanford Immobilized Low-Activity Waste

    SciTech Connect (OSTI)

    Rockhold, Mark L.; Zhang, Z. F.; Meyer, Philip D.; Thomle, Jonathan N.

    2015-02-28

    Current plans for treatment and disposal of immobilized low-activity waste (ILAW) from Hanford’s underground waste storage tanks include vitrification and storage of the glass waste form in a nearsurface disposal facility. This Integrated Disposal Facility (IDF) is located in the 200 East Area of the Hanford Central Plateau. Performance assessment (PA) of the IDF requires numerical modeling of subsurface flow and reactive transport processes over very long periods (thousands of years). The models used to predict facility performance require parameters describing various physical, hydraulic, and transport properties. This report provides updated estimates of physical, hydraulic, and transport properties and parameters for both near- and far-field materials, intended for use in future IDF PA modeling efforts. Previous work on physical and hydraulic property characterization for earlier IDF PA analyses is reviewed and summarized. For near-field materials, portions of this document and parameter estimates are taken from an earlier data package. For far-field materials, a critical review is provided of methodologies used in previous data packages. Alternative methods are described and associated parameters are provided.

  12. Industrial Activities at DOE: Efficiency, Manufacturing, Process, and Materials R&D

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    Industrial Activities at DOE: Efficiency, Manufacturing, Process & Materials R&D Joe Cresko David Hardy Advanced Manufacturing Office Metrology Workshop December 9, 2013 NREL Industrial Energy Use 2 Source: Manufacturing Energy and Carbon Footprint, derived from 2006 MECS AMO programs target: * Research, Development and Demonstration of new, advanced processes and materials technologies that reduce energy consumption for manufactured products and enable life-cycle energy savings *

  13. Electrode including porous particles with embedded active material for use in a secondary electrochemical cell

    DOE Patents [OSTI]

    Vissers, Donald R.; Nelson, Paul A.; Kaun, Thomas D.; Tomczuk, Zygmunt

    1978-04-25

    Particles of carbonaceous matrices containing embedded electrode active material are prepared for vibratory loading within a porous electrically conductive substrate. In preparing the particles, active materials such as metal chalcogenides, solid alloys of alkali or alkaline earth metals along with other metals and their oxides in powdered or particulate form are blended with a thermosetting resin and particles of a volatile to form a paste mixture. The paste is heated to a temperature at which the volatile transforms into vapor to impart porosity at about the same time as the resin begins to cure into a rigid, solid structure. The solid structure is then comminuted into porous, carbonaceous particles with the embedded active material.

  14. Method of preparing porous, active material for use in electrodes of secondary electrochemical cells

    DOE Patents [OSTI]

    Vissers, Donald R.; Nelson, Paul A.; Kaun, Thomas D.; Tomczuk, Zygmunt

    1977-01-01

    Particles of carbonaceous matrices containing embedded electrode active material are prepared for vibratory loading within a porous electrically conductive substrate. In preparing the particles, active materials such as metal chalcogenides, solid alloys of alkali or alkaline earth metals along with other metals and their oxides in powdered or particulate form are blended with a thermosetting resin and particles of a volatile to form a paste mixture. The paste is heated to a temperature at which the volatile transforms into vapor to impart porosity at about the same time as the resin begins to cure into a rigid, solid structure.The solid structure is then comminuted into porous, carbonaceous particles with the embedded active material.

  15. GUIDANCE FOR THE PROPER CHARACTERIZATION AND CLASSIFICATION OF LOW SPECIFIC ACTIVITY MATERIALS AND SURFACE CONTAMINATED OBJECTS FOR DISPOSAL

    SciTech Connect (OSTI)

    PORTSMOUTH JH; BLACKFORD LT

    2012-02-13

    Regulatory concerns over the proper characterization of certain waste streams led CH2M HILL Plateau Remediation Company (CHPRC) to develop written guidance for personnel involved in Decontamination & Decommissioning (D&D) activities, facility management and Waste Management Representatives (WMRs) involved in the designation of wastes for disposal on and off the Hanford Site. It is essential that these waste streams regularly encountered in D&D operations are properly designated, characterized and classified prior to shipment to a Treatment, Storage or Disposal Facility (TSDF). Shipments of waste determined by the classification process as Low Specific Activity (LSA) or Surface Contaminated Objects (SCO) must also be compliant with all applicable U.S. Department of Transportation (DOE) regulations as well as Department of Energy (DOE) orders. The compliant shipment of these waste commodities is critical to the Hanford Central Plateau cleanup mission. Due to previous problems and concerns from DOE assessments, CHPRC internal critiques as well as DOT, a management decision was made to develop written guidance and procedures to assist CHPRC shippers and facility personnel in the proper classification of D&D waste materials as either LSA or SCO. The guidance provides a uniform methodology for the collection and documentation required to effectively characterize, classify and identify candidate materials for shipping operations. A primary focus is to ensure that waste materials generated from D&D and facility operations are compliant with the DOT regulations when packaged for shipment. At times this can be difficult as the current DOT regulations relative to the shipment of LSA and SCO materials are often not clear to waste generators. Guidance is often sought from NUREG 1608/RAMREG-003 [3]: a guidance document that was jointly developed by the DOT and the Nuclear Regulatory Commission (NRC) and published in 1998. However, NUREG 1608 [3] is now thirteen years old and

  16. Progress and goals for INMM ASC N15 consensus standard ""Administrative practices for the determination and reporting of results of non-destructive assay measurements of nuclear material in situ for safeguards nuclear criticality safety and other purposes

    SciTech Connect (OSTI)

    Bracken, David S; Lamb, Frank W

    2009-01-01

    This paper will discuss the goals and progress to date on the development of INMM Accredited Standard Committee (ASC) N15 consensus standard Administrative Practices for the Determination and Reporting of Results of Non-Destructive Assay Measurements of Nuclear Material in situ for Safeguards, Nuclear Criticality Safety, and Other Purposes. This standard will define administrative practices in the areas of data generation and reporting of NDA assay of holdup deposits with consideration of the stakeholders of the reported results. These stakeholders may include nuclear material accounting and safeguards, nuclear criticality safety, waste management, health physics, facility characterization, authorization basis, radiation safety, and site licensing authorities. Stakeholder input will be solicited from interested parties and incorporated during the development of the document. Currently only one consensus standard exists that explicitly deals with NDA holdup measurements: ASTM C1455 Standard Test Method for Nondestructive Assay of Special Nuclear Material Holdup Using Gamma-Ray Spectroscopic Methods. The ASTM International standard emphasizes the activities involved in actually making measurements, and was developed by safeguards and NDA experts. This new INMM ASC N15 standard will complement the existing ASTM international standard. One of the largest driving factors for writing this new standard was the recent emphasis on in situ NDA measurements by the safeguards community due to the Defense Nuclear Facility Safety Board (DNFSB) recommendation 2007-1 on in situ NDA measurements. Specifically, DNFSB recommendation 2007-1 referenced the lack of programmatic requirements for accurate in situ measurements and the use of measurement results for compliance with safety based requirements. That being the case, this paper will also discuss the progress made on the Implementation Plan for Defense Nuclear Facilities Safety Board Recommendation 2007-1 Safety-Related In Situ

  17. Developing Substitutes | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Substitutes diagram for focus area 2, developing substitutes (A click on the org chart image will lead to a pdf version that includes hotlinks for the e-mail addresses of the...

  18. Diversifying Supply | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Diversifying Supply diagram for focus area 1 diversifying supply (A click on the org chart image will lead to a pdf version that includes hotlinks for the e-mail addresses of the leaders.)

  19. Electric Motors and Critical Materials

    Office of Energy Efficiency and Renewable Energy (EERE) Indexed Site

    ranges) Barriers Interfering with Reaching the Targets * Rare earth magnet costs * Copper plus high-temperature insulation costs * Temperature dependence of demagnetization * ...

  20. Critical Materials Institute - course inventory

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Estimations and limitations of reserves, and their sociological, political, and economic effects. Offered in alternate years. GE credit: SciEng | SE, SL.-I. (I.) Verosub

  21. ...

  1. Focus Areas | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Focus Areas FA 1: Diversifying Supply FA 2: Developing Substitutes FA 3: Improving Reuse and Recycling FA 4: Crosscutting Research

  2. Critical Materials Institute - invention disclosures

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    a>

  3. High Command Fidelity Electromagnetically Driven Calorimeter (High-CoFi EleDriCal)
    Patent...

  4. Organizational Leadership | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Organizational Leadership organizational chart for CMI leadership More details on the research organizational structure are available on the research home page. The CMI Advisory Board met March 7, 2014, at The Ames Laboratory.

  5. Critical Materials Institute Affiliates Program

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    of its Contract DE-AC02-07CH11358, with administrative offices at 311 TASF, Ames, IA 50011-3020, is the recipient of funding from the U.S. Department of Energy's Office of...

  6. Crosscutting Research | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Crosscutting Research diagram for focus area four, crosscutting research (A click on the org chart image will lead to a pdf version that includes hotlinks for the e-mail addresses of the leaders.) The Ames Laboratory offers more information about the rapid assessment project in this news release and video

  7. CMI Affiliates | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    CIO Blog Archive CIO Blog Archive RSS June 24, 2016 DOE FITARA Implementation Plan The Office of the Chief Information Officer is pleased to announce publication of the U.S. Department of Energy (DOE) Federal Information Technology Acquisition Reform Act (FITARA) Implementation Plan. June 12, 2015 The National Maker Faire aims to celebrate all things science, technology, engineering, art, and math through do-it-yourself and do-it-with-others projects and fun. 3D Cobra, Renewable Energy, and

  8. CMI Values | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Values CMI Values -- we listen, we are safe, we collaborate, we respect, we move fast, we are agile, we are responsible, and we deliver. We Listen: We are driven by the needs of technology and our best information comes from our industry partners. We Are Safe: We conduct all of our work in a manner that protects our workers, the public and the environment. We Collaborate: We bring together the best available expertise to solve the problems at hand. We Respect: We treat each other well and value

  9. Privacy Notice | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    certain information automatically. What we collect and store automatically is: the Internet Protocol (IP) address of the domain from which you access the Internet (i.e....

  10. Security Notice | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    User login Username * Password * Request new password Log in Forgot Your Password? Security Notice This computer system is operated on a U.S. Federal Government network ...

  11. Electric Motors and Critical Materials

    Broader source: Energy.gov [DOE]

    Presentation given at the EV Everywhere Grand Challenge - Electric Drive (Power Electronics and Electric Machines) Workshop on July 24, 2012 held at the Doubletree O'Hare, Chicago, IL.

  12. course inventory | Critical Materials Institute

    Broader source: All U.S. Department of Energy (DOE) Office Webpages (Extended Search)

    Read more about CMI Education Partner: Colorado School of Mines CMI Course Inventory: Mineral Economics and Business Mineral Economics and Business Of the six CMI Team members that ...

  13. Effect of packing material on methane activation in a dielectric barrier discharge reactor

    SciTech Connect (OSTI)

    Jo, Sungkwon; Hoon Lee, Dae; Seok Kang, Woo; Song, Young-Hoon

    2013-12-15

    The conversion of methane is measured in a planar-type dielectric barrier discharge reactor using ?-Al{sub 2}O{sub 3} (sphere), ?-Al{sub 2}O{sub 3} (sphere), and ?-Al{sub 2}O{sub 3} (1620 mesh). Investigations on the surface properties and shape of the three packing materials clearly indicate that methane activation is considerably affected by the material used. Capacitances inside the discharge gap are estimated from chargevoltage plots, and a comparison of the generated and transferred charges for different packing conditions show that the difference in surface properties between ?- and ?-phase Al{sub 2}O{sub 3} affects the discharge characteristics. Moreover, all packing conditions show different charge characteristics that are related to the electron density. Finally, the packing material's shape affects the local electron temperature, which is strongly related to methane conversion. The combined results indicate that both microscale and macroscale variations in a packing material affect the discharge characteristics, and a packing material should be considered carefully for effective methane activation.

  14. Secondary cell with orthorhombic alkali metal/manganese oxide phase active cathode material

    DOE Patents [OSTI]

    Doeff, M.M.; Peng, M.Y.; Ma, Y.; Visco, S.J.; DeJonghe, L.C.

    1996-09-24

    An alkali metal manganese oxide secondary cell is disclosed which can provide a high rate of discharge, good cycling capabilities, good stability of the cathode material, high specific energy (energy per unit of weight) and high energy density (energy per unit volume). The active material in the anode is an alkali metal and the active material in the cathode comprises an orthorhombic alkali metal manganese oxide which undergoes intercalation and deintercalation without a change in phase, resulting in a substantially linear change in voltage with change in the state of charge of the cell. The active material in the cathode is an orthorhombic structure having the formula M{sub x}Z{sub y}Mn{sub (1{minus}y)}O{sub 2}, where M is an alkali metal; Z is a metal capable of substituting for manganese in the orthorhombic structure such as iron, cobalt or titanium; x ranges from about 0.2 in the fully charged state to about 0.75 in the fully discharged state, and y ranges from 0 to 60 atomic %. Preferably, the cell is constructed with a solid electrolyte, but a liquid or gelatinous electrolyte may also be used in the cell. 11 figs.

  15. Secondary cell with orthorhombic alkali metal/manganese oxide phase active cathode material

    DOE Patents [OSTI]

    Doeff, Marca M.; Peng, Marcus Y.; Ma, Yanping; Visco, Steven J.; DeJonghe, Lutgard C.

    1996-01-01

    An alkali metal manganese oxide secondary cell is disclosed which can provide a high rate of discharge, good cycling capabilities, good stability of the cathode material, high specific energy (energy per unit of weight) and high energy density (energy per unit volume). The active material in the anode is an alkali metal and the active material in the cathode comprises an orthorhombic alkali metal manganese oxide which undergoes intercalation and deintercalation without a change in phase, resulting in a substantially linear change in voltage with change in the state of charge of the cell. The active material in the cathode is an orthorhombic structure having the formula M.sub.x Z.sub.y Mn.sub.(1-y) O.sub.2, where M is an alkali metal; Z is a metal capable of substituting for manganese in the orthorhombic structure such as iron, cobalt or titanium; x ranges from about 0.2 in the fully charged state to about 0.75 in the fully discharged state, and y ranges from 0 to 60 atomic %. Preferably, the cell is constructed with a solid electrolyte, but a liquid or gelatinous electrolyte may also be used in the cell.

  16. Push for new materials, chemicals from biomass sparks active R and D

    SciTech Connect (OSTI)

    Borman, S. )

    1990-09-01

    This paper discusses how a resurgence of interest in the production of new materials, chemicals, and fuels from biomass resources such as wood, cellulose, lignin, starch, and chitin is sparking active R and D efforts in these areas. Biobased materials and chemicals currently under development include composites of conventional plastics with lignocellulosics (chemicals from wood and other plant sources); lignocellulosic nonwoven mates that can be pressed into rigid shapes to form doors, walls, and even auto body parts; phenolic chemicals produced from wood waste and bark; membranes made from chitosan (a substance derived from crustacean shells); and biodegradable plastics containing starch.

  17. Evaluation of Activity Concentration Values and Doses due to the Transport of Low Level Radioactive Material

    SciTech Connect (OSTI)

    Rawl, Richard R; Scofield, Patricia A; Leggett, Richard Wayne; Eckerman, Keith F

    2010-04-01

    The International Atomic Energy Agency (IAEA) initiated an international Coordinated Research Project (CRP) to evaluate the safety of transport of naturally occurring radioactive material (NORM). This report presents the United States contribution to that IAEA research program. The focus of this report is on the analysis of the potential doses resulting from the transport of low level radioactive material. Specific areas of research included: (1) an examination of the technical approach used in the derivation of exempt activity concentration values and a comparison of the doses associated with the transport of materials included or not included in the provisions of Paragraph 107(e) of the IAEA Safety Standards, Regulations for the Safe Transport of Radioactive Material, Safety Requirements No. TS-R-1; (2) determination of the doses resulting from different treatment of progeny for exempt values versus the A{sub 1}/A{sub 2} values; and (3) evaluation of the dose justifications for the provisions applicable to exempt materials and low specific activity materials (LSA-I). It was found that the 'previous or intended use' (PIU) provision in Paragraph 107(e) is not risk informed since doses to the most highly exposed persons (e.g., truck drivers) are comparable regardless of intended use of the transported material. The PIU clause can also have important economic implications for co-mined ores and products that are not intended for the fuel cycle but that have uranium extracted as part of their industrial processing. In examination of the footnotes in Table 2 of TS-R-1, which identifies the progeny included in the exempt or A1/A2 values, there is no explanation of how the progeny were selected. It is recommended that the progeny for both the exemption and A{sub 1}/A{sub 2} values should be similar regardless of application, and that the same physical information should be used in deriving the limits. Based on the evaluation of doses due to the transport of low-level NORM

  18. Studies on Supercapacitor Electrode Material from Activated Lignin-Derived Mesoporous Carbon

    SciTech Connect (OSTI)

    Saha, Dipendu; Li, Yunchao; Bi, Zhonghe; Chen, Jihua; Keum, Jong Kahk; Hensley, Dale K; Grappe, Hippolyte A.; Meyer III, Harry M; Dai, Sheng; Paranthaman, Mariappan Parans; Naskar, Amit K

    2014-01-01

    We synthesized mesoporous carbon from pre-cross-linked lignin gel impregnated with a surfactant as the pore-forming agent, and then activated the carbon through physical and chemical methods to obtain activated mesoporous carbon. The activated mesoporous carbons exhibited 1.5- to 6-fold increases in porosity with a maximum BET specific surface area of 1148 m2/g and a pore volume of 1.0 cm3/g. Slow physical activation helped retain dominant mesoporosity; however, aggressive chemical activation caused some loss of the mesopore volume fraction. Plots of cyclic voltammetric data with the capacitor electrode made from these carbons showed an almost rectangular curve depicting the behavior of ideal double-layer capacitance. Although the pristine mesoporous carbon exhibited the same range of surface-area-based capacitance as that of other known carbon-based supercapacitors, activation decreased the surface-area-based specific capacitance and increased the gravimetric-specific capacitance of the mesoporous carbons. Surface activation lowered bulk density and electrical conductivity. Warburg impedance as a vertical tail in the lower frequency domain of Nyquist plots supported good supercapacitor behavior for the activated mesoporous carbons. Our work demonstrated that biomass-derived mesoporous carbon materials continue to show potential for use in specific electrochemical applications.

  19. Electrodes and electrochemical storage cells utilizing tin-modified active materials

    DOE Patents [OSTI]

    Anani, Anaba; Johnson, John; Lim, Hong S.; Reilly, James; Schwarz, Ricardo; Srinivasan, Supramaniam

    1995-01-01

    An electrode has a substrate and a finely divided active material on the substrate. The active material is ANi.sub.x-y-z Co.sub.y Sn.sub.z, wherein A is a mischmetal or La.sub.1-w M.sub.w, M is Ce, Nd, or Zr, w is from about 0.05 to about 1.0, x is from about 4.5 to about 5.5, y is from 0 to about 3.0, and z is from about 0.05 to about 0.5. An electrochemical storage cell utilizes such an electrode as the anode. The storage cell further has a cathode, a separator between the cathode and the anode, and an electrolyte.

  20. Energetic materials research and development activities at Sandia National Laboratories supported under DP-10 programs

    SciTech Connect (OSTI)

    Ratzel, A.C. III

    1998-09-01

    This report provides summary descriptions of Energetic Materials (EM) Research and Development activities performed at Sandia National Laboratories and funded through the Department of Energy DP-10 Program Office in FY97 and FY98. The work falls under three major focus areas: EM Chemistry, EM Characterization, and EM Phenomenological Model Development. The research supports the Sandia component mission and also Sandia's overall role as safety steward for the DOE Nuclear Weapons Complex.

  21. Critical technologies research: Opportunities for DOE

    SciTech Connect (OSTI)

    Not Available

    1992-12-01

    Recent studies have identified a number of critical technologies that are essential to the nation`s defense, economic competitiveness, energy independence, and betterment of public health. The National Critical Technologies Panel (NCTP) has identified the following critical technology areas: Aeronautics and Surface Transportation; Biotechnology and Life Sciences; Energy and Environment; Information and Communications; Manufacturing; and Materials. Sponsored by the Department of Energy`s Office of Energy Research (OER), the Critical Technologies Research Workshop was held in May 1992. Approximately 100 scientists, engineers, and managers from the national laboratories, industry, academia, and govemment participated. The objective of the Berkeley Workshop was to advance the role of the DOE multiprogram energy laboratories in critical technologies research by describing, defining, and illustrating research areas, opportunities, resources, and key decisions necessary to achieve national research goals. An agenda was developed that looked at DOE`s capabilities and options for research in critical technologies and provided a forum for industry, academia, govemment, and the national laboratories to address: Critical technology research needs; existing research activities and resources; capabilities of the national laboratories; and opportunities for national laboratories, industries, and universities. The Workshop included plenary sessions in which presentations by technology and policy leaders set the context for further inquiry into critical technology issues and research opportunities. Separate sessions then focused on each of the following major areas of technology: Advanced materials; biotechnology and life sciences; energy and environment; information and communication; and manufacturing and transportation.

  1. Critical technologies research: Opportunities for DOE

    SciTech Connect (OSTI)

    Not Available

    1992-12-01

    Recent studies have identified a number of critical technologies that are essential to the nation's defense, economic competitiveness, energy independence, and betterment of public health. The National Critical Technologies Panel (NCTP) has identified the following critical technology areas: Aeronautics and Surface Transportation; Biotechnology and Life Sciences; Energy and Environment; Information and Communications; Manufacturing; and Materials. Sponsored by the Department of Energy's Office of Energy Research (OER), the Critical Technologies Research Workshop was held in May 1992. Approximately 100 scientists, engineers, and managers from the national laboratories, industry, academia, and govemment participated. The objective of the Berkeley Workshop was to advance the role of the DOE multiprogram energy laboratories in critical technologies research by describing, defining, and illustrating research areas, opportunities, resources, and key decisions necessary to achieve national research goals. An agenda was developed that looked at DOE's capabilities and options for research in critical technologies and provided a forum for industry, academia, govemment, and the national laboratories to address: Critical technology research needs; existing research activities and resources; capabilities of the national laboratories; and opportunities for national laboratories, industries, and universities. The Workshop included plenary sessions in which presentations by technology and policy leaders set the context for further inquiry into critical technology issues and research opportunities. Separate sessions then focused on each of the following major areas of technology: Advanced materials; biotechnology and life sciences; energy and environment; information and communication; and manufacturing and transportation.

  2. M-transfer activity of MCM-41 materials in 1-hexene isomerization reactions

    SciTech Connect (OSTI)

    Dominguez, J.M.; Hernandez, F.; Terres, E.; Toledo, A.; Navarrete, J.

    1996-10-01

    The gasoline reformulation scheme includes the use of oxygenated additives MTBE (methyl-ter-butyl-ether), TAME (ter-amyl-methyl-ether), ETBE (ethyl-ter-butyl-ether) and DIPE (di-isopropyl-ether), which have the iso-olefins (i-C{sub 3}{sup =}, i-C{sub 4}{sup =}, i-C{sub 5}{sup =}) as precursors. In this respect, olefin production from FCC units must be enhanced to cover the demand. A series of new catalytic materials with lower hydrogen transfer activity could enhance the olefin yield from the FCC reactors.

  3. Activated barrier for protection of special nuclear materials in vital areas

    SciTech Connect (OSTI)

    Timm, R.E.; Miranda, J.E.; Reigle, D.L.; Valente, A.D.

    1984-07-15

    The Argonne National Laboratory and Sandia National Laboratory have recently installed an activated barrier, the Access Denial System (ADS) for the upgrade of safeguards of special nuclear materials. The technology of this system was developed in the late 70's by Sandia National Laboratory-Albuquerque. The installation was the first for the Department of Energy. Subsequently, two additional installations have been completed. The Access Denial System, combined with physical restraints, provide the system delay. The principal advantages of the activated barrier are: (1) it provides an order of magnitude improvement in delay over that of a fixed barrier, (2) it can be added to existing vital areas with a minimum of renovations, (3) existing operations are minimally impacted, and (4) health and safety risks are virtually nonexistent. Hardening of the vital areas using the ADS was accomplished in a cost-effective manner. 3 references, 1 figure, 1 table.

  4. SEQUESTRATION OF METALS IN ACTIVE CAP MATERIALS: A LABORATORY AND NUMERICAL EVALUATION

    SciTech Connect (OSTI)

    Dixon, K.; Knox, A.

    2012-02-13

    Active capping involves the use of capping materials that react with sediment contaminants to reduce their toxicity or bioavailability. Although several amendments have been proposed for use in active capping systems, little is known about their long-term ability to sequester metals. Recent research has shown that the active amendment apatite has potential application for metals contaminated sediments. The focus of this study was to evaluate the effectiveness of apatite in the sequestration of metal contaminants through the use of short-term laboratory column studies in conjunction with predictive, numerical modeling. A breakthrough column study was conducted using North Carolina apatite as the active amendment. Under saturated conditions, a spike solution containing elemental As, Cd, Co, Se, Pb, Zn, and a non-reactive tracer was injected into the column. A sand column was tested under similar conditions as a control. Effluent water samples were periodically collected from each column for chemical analysis. Relative to the non-reactive tracer, the breakthrough of each metal was substantially delayed by the apatite. Furthermore, breakthrough of each metal was substantially delayed by the apatite compared to the sand column. Finally, a simple 1-D, numerical model was created to qualitatively predict the long-term performance of apatite based on the findings from the column study. The results of the modeling showed that apatite could delay the breakthrough of some metals for hundreds of years under typical groundwater flow velocities.

  5. Special Form Testing of Sealed Source Encapsulation for High-Alpha-Activity Actinide Materials

    SciTech Connect (OSTI)

    Martinez, Oscar A

    2016-01-01

    In the United States all transportation of radioactive material is regulated by the U.S. Department of Transportation (DOT). Beginning in 2008 a new type of sealed-source encapsulation package was developed and tested by Oak Ridge National Laboratory (ORNL). These packages contain high-alpha-activity actinides and are regulated and transported in accordance with the requirements for DOT Class 7 hazardous material. The DOT provides specific regulations pertaining to special form encapsulation designs. The special form designation indicates that the encapsulated radioactive contents have a very low probability of dispersion even when subjected to significant structural events. The special form designs have been shown to simplify the delivery, transport, acceptance, and receipt processes. It is intended for these sealed-source encapsulations to be shipped to various facilities making it very advantageous for them to be certified as special form. To this end, DOT Certificates of Competent Authority (CoCAs) have been sought for the design suitable for containing high-alpha-activity actinide materials. This design consists of the high-alpha-activity material encapsulated within a triangular zirconia canister, referred to as a ZipCan, tile that is then enclosed by a spherical shell. The spherical shell design, with ZipCan tile inside, was tested for compliance with the special form regulations found in 49 CFR 173.469. The spherical enclosure was subjected to 9-m impact, 1 m percussion, and 10-minute thermal tests at the Packaging Evaluation Facility located at the National Transportation Research Center in Knoxville, TN USA and operated by ORNL. Before and after each test, the test units were subjected to a helium leak check and a bubble test. The ZipCan tiles and core were also subjected to the tests required for ISO 2919:2012(E), including a Class IV impact test and heat test and subsequently subjected to helium leakage rate tests [49 CFR 173.469(a)(4)(i)]. The impact

  6. In-Situ Radiological Surveys to Address Nuclear Criticality Safety Requirements During Remediation Activities at the Shallow Land Disposal Area, Armstrong County, Pennsylvania - 12268

    SciTech Connect (OSTI)

    Norris, Phillip; Mihalo, Mark; Eberlin, John; Lambert, Mike; Matthews, Brian

    2012-07-01

    Cabrera Services Inc. (CABRERA) is the remedial contractor for the Shallow Land Disposal Area (SLDA) Site in Armstrong County Pennsylvania, a United States (US) Army Corps of Engineers - Buffalo District (USACE) contract. The remediation is being completed under the USACE's Formerly Utilized Sites Remedial Action Program (FUSRAP) which was established to identify, investigate, and clean up or control sites previously used by the Atomic Energy Commission (AEC) and its predecessor, the Manhattan Engineer District (MED). As part of the management of the FUSRAP, the USACE is overseeing investigation and remediation of radiological contamination at the SLDA Site in accordance with the Comprehensive Environmental Response, Compensation, and Liability Act (CERCLA), 42 US Code (USC), Section 9601 et. seq, as amended and, the National Oil and Hazardous Substance Pollution Contingency Plan (NCP), Title 40 of the Code of Federal Regulations (CFR) Section 300.430(f) (2). The objective of this project is to clean up radioactive waste at SLDA. The radioactive waste contains special nuclear material (SNM), primarily U-235, in 10 burial trenches, Cabrera duties include processing, packaging and transporting the waste to an offsite disposal facility in accordance with the selected remedial alternative as defined in the Final Record of Decision (USACE, 2007). Of particular importance during the remediation is the need to address nuclear criticality safety (NCS) controls for the safe exhumation and management of waste containing fissile materials. The partnership between Cabrera Services, Inc. and Measutronics Corporation led to the development of a valuable survey tool and operating procedure that are essential components of the SLDA Criticality Safety and Material Control and Accountability programs. Using proven existing technologies in the design and manufacture of the Mobile Survey Cart, the continued deployment of the Cart will allow for an efficient and reliable methodology to

  7. Determination of uranium and thorium in semiconductor memory materials by high fluence neutron activation analysis

    SciTech Connect (OSTI)

    Dyer, F.F.; Emery, J.F.; Northcutt, K.J.; Scott, R.M.

    1981-01-01

    Uranium and thorium were measured by absolute neutron activation analysis in high-purity materials used to manufacture semiconductor memories. The main thrust of the study concerned aluminum and aluminum alloys used as sources for thin film preparation, evaporated metal films, and samples from the Czochralski silicon crystal process. Average levels of U and Th were found for the source alloys to be approx. 65 and approx. 45 ppB, respectively. Levels of U and Th in silicon samples fell in the range of a few parts per trillion. Evaporated metal films contained about 1 ppB U and Th, but there is some question about these results due to the possibility of contamination.

  8. Processes for making dense, spherical active materials for lithium-ion cells

    DOE Patents [OSTI]

    Kang, Sun-Ho; Amine, Khalil

    2011-11-22

    Processes are provided for making dense, spherical mixed-metal carbonate or phosphate precursors that are particularly well suited for the production of active materials for electrochemical devices such as lithium ion secondary batteries. Exemplified methods include precipitating dense, spherical particles of metal carbonates or metal phosphates from a combined aqueous solution using a precipitating agent such as ammonium hydrogen carbonate, sodium hydrogen carbonate, or a mixture that includes sodium hydrogen carbonate. Other exemplified methods include precipitating dense, spherical particles of metal phosphates using a precipitating agent such as ammonium hydrogen phosphate, ammonium dihydrogen phosphate, sodium phosphate, sodium hydrogen phosphate, sodium dihydrogen phosphate, or a mixture of any two or more thereof. Further provided are compositions of and methods of making dense, spherical metal oxides and metal phosphates using the dense, spherical metal precursors. Still further provided are electrodes and batteries using the same.

  9. Criticality Model Report

    SciTech Connect (OSTI)

    J.M. Scaglione

    2003-03-12

    The purpose of the ''Criticality Model Report'' is to validate the MCNP (CRWMS M&O 1998h) code's ability to accurately predict the effective neutron multiplication factor (k{sub eff}) for a range of conditions spanned by various critical configurations representative of the potential configurations commercial reactor assemblies stored in a waste package may take. Results of this work are an indication of the accuracy of MCNP for calculating eigenvalues, which will be used as input for criticality analyses for spent nuclear fuel (SNF) storage at the proposed Monitored Geologic Repository. The scope of this report is to document the development and validation of the criticality model. The scope of the criticality model is only applicable to commercial pressurized water reactor fuel. Valid ranges are established as part of the validation of the criticality model. This model activity follows the description in BSC (2002a).

  10. Process for forming a homogeneous oxide solid phase of catalytically active material

    DOE Patents [OSTI]

    Perry, Dale L.; Russo, Richard E.; Mao, Xianglei

    1995-01-01

    A process is disclosed for forming a homogeneous oxide solid phase reaction product of catalytically active material comprising one or more alkali metals, one or more alkaline earth metals, and one or more Group VIII transition metals. The process comprises reacting together one or more alkali metal oxides and/or salts, one or more alkaline earth metal oxides and/or salts, one or more Group VIII transition metal oxides and/or salts, capable of forming a catalytically active reaction product, in the optional presence of an additional source of oxygen, using a laser beam to ablate from a target such metal compound reactants in the form of a vapor in a deposition chamber, resulting in the deposition, on a heated substrate in the chamber, of the desired oxide phase reaction product. The resulting product may be formed in variable, but reproducible, stoichiometric ratios. The homogeneous oxide solid phase product is useful as a catalyst, and can be produced in many physical forms, including thin films, particulate forms, coatings on catalyst support structures, and coatings on structures used in reaction apparatus in which the reaction product of the invention will serve as a catalyst.