108–650 Senate Hearings Before the Committee on Appropriations
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January-February, 2018 Volume 36 No
Nuclear Plant Instrumentation & Journal Control An International Publication Published in the United States January-February, 2018 Volume 36 No. 1 Brunswick, USA ISSN: 2162-6413 What’s in a Name? Commitment. Sustainability. People. AREVA NP is now Framatome. We’re the same people you know and trust. For decades, Framatome has been improving the nuclear fl eet and advancing nuclear energy throughout the world. That same experience, knowledge and passion in our people is what drives our company forward — always performing and delivering with excellence. Engineering • Fuel • Installed Base • I&C Component Manufacturing • Large Projects Your performance is our everyday commitment. www.framatome.com/us © 2018 Framatome Inc. All rights reserved. Got radiation? See what you’ve been missing PhotoPhoPhotPhotoottoocooc courtesycocourteu tteessyy ofo f EUROfusion.EEUUROfRROfuROOfuOfOffuusionsiosioniiooonn.We.W. Website:WWeebsitbbsbsisits te:e:w: www.euro-fusion.orgw ww.ewwww.ew e urouururo-oo--fusffuussion.oorgg Imaging in radiation environments just got easier With superior capabilities for operating in radiation environments, the MegaRAD cameras provide excellent image quality well beyond dose limitations of conventional cameras, and are well suited for radiation hardened imaging applications MegaRAD3 produce color MegaRAD1 produce KiloRAD PTZ radiation or monochrome video up to monochrome video up to resistant camera with 3 x 106 rads total dose 1 x 106 rads total dose Pan/Tilt/Zoom In the United States: International: For customer service, call 1-800-888-8761 For customer service, call [01) 315-451-9410 To fax an order, use 1-315-451-9421 To fax an order, use [01) 315-451-9410 Email: sales.cidtec@thermofi sher.com Email: sales.cidtec@thermofi sher.com Find out more at thermofi sher.com/cidtec For Research Use Only. -
Modeling-Enhanced Innovations Trailblazing Nuclear Energy Reinvigoration (MEITNER) Overview
Modeling-Enhanced Innovations Trailblazing Nuclear Energy Reinvigoration (MEITNER) Overview B. PROGRAM OVERVIEW 1. Summary Nuclear reactor plants are complex systems where many types and scales of technologies must work together seamlessly. Design choices at each of those scales and for each of those technologies impact the rest of the system in terms of functionality, cost, and constructability. For nuclear energy to contribute in the coming decades, the next generation of nuclear reactor plants need to simultaneously achieve “walkaway” safe and secure operation, extremely low construction capital costs, and dramatically shorter construction and commissioning times than currently-available plants. To attain these goals, new, innovative, enabling technologies for existing advanced reactor designs are needed. The development of these enabling technologies requires understanding the inter-relatedness of design choices. Thus, ARPA-E encourages a rethinking of how pieces of the nuclear reactor system fit together when developing these enabling technologies. Through the MEITNER1 (Modeling-Enhanced Innovations Trailblazing Nuclear Energy Reinvigoration) program, ARPA-E seeks to identify and develop innovative technologies to enable the advanced nuclear reactor design community to mature their designs for future commercial deployment. These enabling technologies can establish the basis for a modern, domestic supply chain supporting nuclear technology. As provided in this FOA, ARPA-E will select multiple Awardees (Prime Recipients) to develop -
Footnotes for ATOMIC ADVENTURES
Footnotes for ATOMIC ADVENTURES Secret Islands, Forgotten N-Rays, and Isotopic Murder - A Journey into the Wild World of Nuclear Science By James Mahaffey While writing ATOMIC ADVENTURES, I tried to be careful not to venture off into subplots, however interesting they seemed to me, and keep the story flowing and progressing at the right tempo. Some subjects were too fascinating to leave alone, and there were bits of further information that I just could not abandon. The result is many footnotes at the bottom of pages, available to the reader to absorb at his or her discretion. To get the full load of information from this book, one needs to read the footnotes. Some may seem trivia, but some are clarifying and instructive. This scheme works adequately for a printed book, but not so well with an otherwise expertly read audio version. Some footnotes are short enough to be inserted into the audio stream, but some are a rambling half page of dense information. I was very pleased when Blackstone Audio agreed wholeheartedly that we needed to include all of my footnotes in this version of ATOMIC ADVENTURES, and we came up with this added feature: All 231 footnotes in this included text, plus all the photos and explanatory diagrams that were included in the text. I hope you enjoy reading some footnotes while listening to Keith Sellon-Wright tell the stories in ATOMIC ADVENTURES. James Mahaffey April 2017 2 Author’s Note Stories Told at Night around the Glow of the Reactor Always striving to beat the Atlanta Theater over on Edgewood Avenue, the Forsyth Theater was pleased to snag a one-week engagement of the world famous Harry Houdini, extraordinary magician and escape artist, starting April 19, 1915.1 It was issued an operating license, no. -
The U.S. Department of Energy's Ten-Year-Plans for the Office Of
U.S. DEPARTMENT OF ENERGY The U.S. Department of Energy’s Ten-Year-Plans for the Office of Science National Laboratories FY 2019 FY 2019 Annual Laboratory Plans for the Office of Science National Laboratories i Table of Contents Introduction ................................................................................................................................................................1 Ames Laboratory ........................................................................................................................................................3 Lab-at-a-Glance ......................................................................................................................................................3 Mission and Overview ............................................................................................................................................3 Core Capabilities .....................................................................................................................................................4 Science Strategy for the Future ..............................................................................................................................8 Infrastructure .........................................................................................................................................................8 Argonne National Laboratory ................................................................................................................................. -
U.S. Department of Energy ORDER Washington, D.C
U.S. Department of Energy ORDER Washington, D.C. DOE O 482.1 Approved: 01-12-01 SUBJECT: DOE FACILITIES TECHNOLOGY PARTNERING PROGRAMS 1. OBJECTIVES. a. To establish Department of Energy (DOE) policy, consistent with the terms of the facility contract or delegation of authority, to— (1) facilitate the efficient and expeditious development, transfer, and exploitation of Federally owned or originated technology to non-DOE entities for the public benefit and to enhance the accomplishment of DOE missions; (2) leverage DOE resources, through its programs and facilities, through partnering; and (3) ensure fairness of opportunity, protect the national security, promote the economic interests of the United States, prevent inappropriate competition with the private sector, and provide a variety of means to respond to private-sector concerns and interests about facility technology partnering activities. b. To ensure that DOE and its facilities— (1) recognize that technology transfer, through partnering in all its forms, is a mission of DOE and its facilities, consistent with the provisions of the National Competitiveness Technology Transfer Act; the Stevenson-Wydler Technology Innovation Act (Public Law 96-480), as amended by the Federal Technology Transfer Act (Public Law 99-502); and other relevant legislation, as directed by Congress; (2) carry out technology partnering activities in accordance with their applicable laws and authorities; (3) carry out policy and assign roles and responsibilities for the oversight, management, and administration of DOE facility technology partnering activities; (4) ensure the consistent development and application of policy and procedures in planning and conducting technology partnering activities at DOE facilities; and DISTRIBUTION: INITIATED BY: All Departmental Elements Office of Policy 2 DOE O 482.1 1-12-01 (5) ensure the availability of timely and accurate technology partnering data and information to monitor, evaluate, and describe DOE technology partnering activities. -
Title Liberation of Neutrons in the Nuclear Explosion of Uranium
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Kyoto University Research Information Repository Liberation of neutrons in the nuclear explosion of uranium Title irradiated by thermal neutrons Author(s) 萩原, 篤太郎 Citation 物理化學の進歩 (1939), 13(6): 145-150 Issue Date 1939-12-31 URL http://hdl.handle.net/2433/46203 Right Type Departmental Bulletin Paper Textversion publisher Kyoto University 1 9fii~lt~mi~~ Vol. 13n No. 6 (1939) i LIBERATION OF NEUTRONS.. IN THE NUCLEAR EXPLOSION OF URANIUM IRRADIATED BY THERMAL NEUTRONS By Tolai•r:vFo IIrtlsiNaaa 1'he discovery ivas first announced by Kahn and Strassmanlir'. that uranium under neutron irradiation is split by absorbing the neuttntis into two lighter elements of roughly equal weight and charge, being accompanied h}' a:very large amount of ~energy release. This leads to~ the consic(eration that these fission fragments would contain considerable ea-cess of neutrons as compared with the corresponding heaviest stable isotopes with the same nuclear charges, assuming a division into two parts only. Apart of these exceh neutrons teas found, in fact, to be disposed of by the subsequent (~-ray transformations of the fission products;" but another possibility of reducing the neutron excess seems to be a direct i nnissioie of the neutrons, .vhich would either be emitted as apart of explosiat products. almost i;istantaneously at the moment ofthe nuclear splitting or escape from hi~hh' excited nuclei of the residual fragments. It may, Clterefore,he ex- rd pected that the explosion process mould produce even larger number of secondary neutrons than one. -
Federal Register/Vol. 69, No. 162/Monday, August 23, 2004
Federal Register / Vol. 69, No. 162 / Monday, August 23, 2004 / Notices 51825 Format (PDF) on the Internet at the Energy, 1000 Independence Avenue, and oxidation process). Other following site: http://www.ed.gov/news/ SW., Washington, DC 20585; e-mail: corrections include: B&T Metals (OH) fedregister. [email protected]; toll free: (the DOE designation was in error and To use PDF you must have Adobe 1–877–447–9756; URL: http:// has been removed), Foote Mineral (PA) Acrobat Reader, which is available free www.eh.doe.gov/advocacy/. (the BE designation has been on the at this site. If you have questions about SUPPLEMENTARY INFORMATION: program’s Web site (noted below) since using PDF, call the U.S. Government inception, but was inadvertently Printing Office (GPO), toll free, at 1– Purpose missing from the Federal Register 888–293–6498; or in the Washington, The Energy Employees Occupational notice), Swenson Evaporator (is located DC, area at (202) 512–1530. Illness Compensation Program Act of in Harvey, not Chicago, IL) and C.H. 2000 (‘‘Act’’), Title 36 of Public Law Schnorr, PA (previously Schnoor). This Note: The official version of this document 106–398, establishes a program to is the document published in the Federal notice also deletes the listing for Ledoux Register. Free Internet access to the official provide compensation to individuals (NY) entirely because it was learned that edition of the Federal Register and the Code who developed illnesses as a result of no radioactivity was used at that of Federal Regulations is available on GPO their employment in nuclear weapons location. -
New Brunswick Laboratory
NBL-335 MARCH 1996 PROGRESS REPORT OCTOBER 1994 THROUGH SEPTEMBER 1995 U.S. DEPARTMENT OF ENERGY • CHICAGO OPERATIONS OFFICE • ARGONNE, ILLINOIS DISTRIBUTION OF THIS DOCUMENT IS UNLIMITED NBL-335 U. S. DEPARTMENT OF ENERGY CHICAGO OPERATIONS OFFICE NEW BRUNSWICK LABORATORY H. RODNEY MARTIN, ACTING DIRECTOR PROGRESS REPORT OCTOBER 1994 THROUGH SEPTEMBER 1995 DOE RESEARCH AND DEVELOPMENT REPORT MARCH 1996 *BJB? DISTRIBUTION OF THIS DOCUMENT 18 UNLIMITED TABLE OF CONTENTS MISSION i EXECUTIVE SUMMARY iii SAFEGUARDS ASSISTANCE PROGRAM 1 International Safeguards Assistance 5 REFERENCE MATERIALS PROGRAM 8 Reference Materials Sales 11 Preparation of Non-Destructive Assay Gamma-Ray Spectroscopy Reference Standards: Status Report 13 Preparation and Certification of CRM U930-D: Status Report 15 Preparation and Certification of CRM U010-A: Status Report 16 Repackaging of CRM 42(1-4) Counting Standard Materials 17 Preparation and Certification of CRM 145, Uranyl Nitrate Solution 18 Certification of CRM 125-A, Uranium Dioxide Pellet 19 SAFEGUARDS MEASUREMENT EVALUATION PROGRAM 21 Development of Computerized Integrated Safeguards Sample Exchange Program Database Application 24 MEASUREMENT DEVELOPMENT PROGRAM 29 Use of the Inspector for In-Field Non-Destructive Assay and Hold-Up Measurements 31 Development of Plutonium Isotope Dilution Mass Spectrometry for Routine Analysis 35 Statistical Evaluation of the Laser Kinetic Phosphorimetric Analysis of Uranium 38 Semiquantitative Non-Destructive Analysis of Solids by Wavelength Dispersive X-Ray Fluorescence Spectrometry 42 Automation of the NBL Constant Current Couiometer 43 Plutonium Isotopic Assay from Alpha Spectroscopy 45 Installation, Acceptance and Training for New ICP-AES Instrument 53 ICP-MS Acquisition and Installation 54 MEASUREMENT SERVICES PROGRAM 54 PUBLICATIONS AND REPORTS 57 DISTRIBUTION LIST 59 MISSION The mission of the New Brunswick Laboratory of the U. -
Uranium Mining and the U.S. Nuclear Weapons Program
Uranium Mining and the U.S. Nuclear Weapons Program Uranium Mining and the U.S. Nuclear Weapons Program By Robert Alvarez Formed over 6 billion years ago, uranium, a dense, silvery-white metal, was created “during the fiery lifetimes and explosive deaths in stars in the heavens around us,” stated Nobel Laureate Arno Penzias.1 With a radioactive half-life of about 4.5 billion years, uranium-238 is the most dominant of several unstable uranium isotopes in nature and has enabled scientists to understand how our planet was created and formed. For at least the last 2 billion years, uranium shifted from deep in the earth to the rocky shell-like mantle, and then was driven by volcanic processes further up to oceans and to the continental crusts. The Colorado Plateau at the foothills of the Rocky Mountains, where some of the nation’s largest uranium deposits exist, began to be formed some 300 million years ago, followed later by melting glaciers, and erosion which left behind exposed layers of sand, silt and mud. One of these was a canary-yellow sediment that would figure prominently in the nuclear age. From 1942 to 1971, the United States nuclear weapons program purchased about 250,000 metric tons of uranium concentrated from more than 100 million tons of ore.2 Although more than half came from other nations, the uranium industry heavily depended on Indian miners in the Colorado Plateau. Until recently,3 their importance remained overlooked by historians of the atomic age. There is little doubt their efforts were essential for the United States to amass one of the most destructive nuclear arsenals in the world. -
NSW 2020 International Impact Report FINAL
2020 INTERNATIONAL IMPACT REPORT NUCLEAR SCIENCE WEEK 2020 October 19-23, 2020 www.nuclearscienceweek.orG report issued February 28, 2021 About tHis Report: This report represents a compendium of the many hours of effort that has gone into a remarkable public outreach effort to disseminate current, accurate information about nuclear science, it’s impact on our world and its history during the observance of Nuclear 1 Science Week in 2020. As we know, the year of 2020 was deeply impacted by the pandemic of Covid-19 or Coronavirus. This devastating health crises has changed much of how public interaction occurs world-wide from planning meetings and events to receptions, seminars and classroom visitation and site tours. All of these changes required nimble planning and incredible ingenuity from the places where nuclear science is discussed and where work in the field takes place. Almost all of the events held in celebration and observance in 2020 were done remotely this past year to keep every participant safe and to limit direct interaction against the spread of Corona Virus. This International Impact Report has been developed to record the many places where Nuclear Science Week was observed, the groups that participated and organized these events; and the numbers of people, mostly members of the public, that participated. The year 2020 represents the eleventh anniversary of this event and annual time that NSW has been observed and the scale of it as a week for public discourse and learning continues to grow as evidenced by this report of impact. It is hoped that this report will be used to record interactions, entice larger groups to engage, to encourage more discussion, to transmit more knowledge and excite more students about nuclear science and related STEM fields as potential future career pathways. -
ETSN05 -- Lecture 5 the Last Lecture Today
10/9/2013 ETSN05 -- Lecture 5 The last lecture Today • About final report and individual assignment • Short introduction to “problems” • Discussion about “typical problems in the course” 1 10/9/2013 Plan-Do-Study-Act Plan Act Do E.g. Bergman, Klefsjö, Quality, Study Studentliteratur, 1994. Quality Improvement Paradigm 1. Characterize 2. Set goals 3. Choose model 4. Execute Proj org EF 5. Analyze 6. Package V. Basili, G. Caldiera, D. Rombach, Experience Factory, in J.J. Marciniak (ed) Encyclopedia of Software Engineering, pp. 469-576, Wiley, 1994. (Also summarized in C. Wohlin, P. Runeson, M. Höst, M. C. Ohlsson, B. Regnell, A. Wesslén, "Experimentation in Software Engineering", Springer, 2012.) 2 10/9/2013 Learning organization • “A learning organisation is an organisation skilled at creating, acquiring, and transferring knowledge, and at modifying its behaviour to reflect new knowledge and insights” D. A. Garvin, “Building a Learning Organization”, in Harward Business Review on Knowledge Management, pp. 47–80, Harward Business School Press, Boston, USA, 1998. • Requires: systematic problem solving, experimentation, learning from past experiences, learning from others, and transferring knowledge Postmortem analysis • IEEE Software, May/June 2002 3 10/9/2013 Postmortem analysis cont. • “Ensures that the team members recognize and remember what they learned during the project” •“Identifies improvement opportunities and provides a means to initiate sustained change” Three sections of the PFR • Historical overview of the project – Figures, -
FY 2011 Volume 4
DOE/CF-0050 Volume 4 Department of Energy FY 2011 Congressional Budget Request Science February 2010 Office of Chief Financial Officer Volume 4 DOE/CF-0050 Volume 4 Department of Energy FY 2011 Congressional Budget Request Science February 2010 Office of Chief Financial Officer Volume 4 Printed with soy ink on recycled paper Volume 4 Table of Contents Page Appropriation Account Summary.............................................................................................................3 Appropriation Language ...........................................................................................................................5 Overview...................................................................................................................................................7 Funding by Site by Program ...................................................................................................................17 Advanced Scientific Computing Research .............................................................................................55 Basic Energy Sciences ............................................................................................................................79 Biological and Environmental Research...............................................................................................155 Fusion Energy Sciences ........................................................................................................................207 High Energy Physics.............................................................................................................................247