Low Background Counting, Materials Purity, Radon issue Prisca Cushman University of Minnesota Not LBC… New Name? AALRMS Assay and Acquisition of Low Radiation.

Slides:



Advertisements
Similar presentations
The Role of Environmental Monitoring in the Green Economy Strategy K Nathan Hill March 2010.
Advertisements

Assay and Acquisition of Radiopure Materials Priscilla Cushman University of Minnesota July 14, 2010 NSF Review PRESENTATION(s) OUTLINE P. Cushman S4 Management.
Introduction Radon is a radioactive noble gas in the uranium decay chain. It emanates out of many materials due to its very low chemical reactivity. The.
Underground Facilities Stub 2 Stub 2a,3 ‘H’ Area JIF Area The underground research facilities have evolved since dark matter studies began at Boulby. There.
DMSAG 14/8/06 Mark Boulay Towards Dark Matter with DEAP at SNOLAB Mark Boulay Canada Research Chair in Particle Astrophysics Queen’s University DEAP-1:
Soudan Underground Laboratory Features Moderate depth (2100 mwe) augmented with active muon veto shield Existing infrastructure (power, water, networking,
WP3: R&D on ultra low-level WP3: R&D on ultra low-level detectors and facilities JRA1 general meeting, Paris, Feb. 14 th 2006.
SNOLAB is drawing on expertise developed by the SNO collaboration for screening materials for new experiments. Material Screening DUSEL Town Meeting 2-4.
Status of activities of the WP4 on Radiopurity of Materials Pia Loaiza Laboratoire Souterrain de Modane JRA1 meeting Paris February 20 th, 2007.
WP3: R&D on ultra low-level detectors and facilities WP3: R&D on ultra low-level detectors and facilities LNGS: status and outlook.
Materials Assay & ICPMS for DUSEL R&D
WP1: Measurement of the backgrounds in the EU underground sites Dr. Matthias Laubenstein Laboratori Nazionali del Gran Sasso ITALY J1 General Meeting Paris.
Background Study in NDBD Ming Shao. sources environmental gamma radioactivity cosmic rays Neutrons Radon contamination of materials which detectors and.
Low radioactivity at the Modane Underground Laboratory
DUSEL Low-Background Counting (to get the program started) Dongming Mei 1, Kevin Lesko 2,Christina Keller 1, Yongchen Sun 1, Zhongbao Yin 1, Keenan Thomas.
ILIAS Physics in deep underground laboratories JRA1 : Low background techniques WP4 : Radiopurity of materials Pía Loaiza Laboratoire Souterrain de Modane,
Low Background Counting Facility at Henderson DUSEL Lots of resources already exist, e.g. 1. Homestake NUSL Reference Design Report WBS 6.1 (Low-level.
DUSEL Experiment Development and Coordination (DEDC) Internal Design Review July 16-18, 2008 Steve Elliott, Derek Elsworth, Daniela Leitner, Larry Murdoch,
LAUNCH - Low-energy, Astroparticle Underground, Neutrino physics and Cosmology in Heidelberg, Low-level techniques applied in experiments.
Proposal for high sensitive measurements of 238 U and 232 Th with NAA Ezio Previtali INFN Sez. Milano Milano-Bicocca University ILIAS: JRA1 3rd General.
Low-Background Activation Analysis NAA for ultrapure materials analysis Richard M. Lindstrom Analytical Chemistry Division National Institute of Standards.
Nuclear energy.
CHIPP Workshop on Detector R&D June - University of Geneva Common R&D for astroparticle physics: Activities of ApPEC and ASPERA Bernard Revaz and.
Radioactivity Chapter 10 section 1 page
SCSC 311 Information Systems: hardware and software.
Certification and Accreditation CS Phase-1: Definition Atif Sultanuddin Raja Chawat Raja Chawat.
Low background Screening and Prototyping Facility at the Soudan Underground Lab 40’ x 35’ x 100’ cavern surrounded by a 99% efficient active muon veto.
NUCLEAR VS. CHEMICAL CHEMICAL reactions involve rearranging of atoms: e.g., H 2 +O 2  H 2 O No new atoms are created. Chemistry involves electrons only.
APS April meeting Jacksonville, 2007 WIMP Search With SNOLAB Chris Jillings SNOLAB Staff Scientist For the DEAP-1 Collaboration.
A large water shield for dark matter, double beta decay and low background screening. T. Shutt - Case R. Gaitskell - Brown.
Radioactivity. Contents Atomic Structure Atomic Structure Isotopes Isotopes Background Radiation Background Radiation Alpha, Beta, Gamma Alpha, Beta,
Database Administrator RAL Proposed Workshop Goals Dirk Duellmann, CERN.
INTERNATIONAL PHD PROJECTS IN APPLIED NUCLEAR PHYSICS AND INNOVATIVE TECHNOLOGIES This project is supported by the Foundation for Polish Science – MPD.
Office of Science U.S. Department of Energy U.S. Department of Energy’s Office of Science Raymond L. Orbach Director, Office of Science May 17, 2005 Advancing.
Johannes Gutleber CERN Directorate of Accelerators & Technology September 22, 2015 H2020 EUCard3 Reliability & Availability Task RAMS Training Topic.
© 2006 DTP PMC; made available under the EPL v1.0 | July 12, 2006 | DTP Enablement Project Creation Review Creation Review: Eclipse Data Tools Platform.
F August S. Pordes - Fermilab1 Liquid Argon for Direct Detection of Dark Matter Work and Plans at Fermilab.
Warszawa, July 3rd Measurements of natural radioactivity in European underground labs within the ILIAS project Jan Kisiel Institute of Physics, University.
STATE AND LOCAL IMPLEMENTATION GRANT PROGRAM 1 December 6, 2012.
May 6, 2006Henderson Dusel Capstone Meeting Low Background Counting A Facility Wish List for the New Underground Laboratory F. Calaprice.
Underground Laboratories and Low Background Experiments Pia Loaiza Laboratoire Souterrain de Modane Bordeaux, March 16 th, 2006.
Priscilla Cushman DUSEL S4 Workshop University of Minnesota Oct 1, 2009 Lead, SD Principle Investigators Priscilla Cushman (University of Minnesota) Dongming.
Status Report on ILC Project in Japan Seiichi SHIMASAKI Director, Office for Particle and Nuclear Research Promotion June 19, 2015.
Ch. 25 Nuclear Changes Begins on p. 35 of your PACKET.
Chapter 10: Nuclear Chemistry
Advancing Science: OSTI’s Current and Future Search Strategies Jeff Given IT Operations Manager Computer Protection Program Manager Office of Scientific.
Department of Energy Office of Science  FY 2007 Request for Office of Science is 14% above FY 2006 Appropriation  FY 2007 Request for HEP is 8% above.
ILIAS Project Summary ILIAS is an Integrated Infrastructure Initiative that has pulled together all of Europe's leading infrastructures in Astroparticle.
B.Sadoulet CDMS DUSEL The Deep Underground Science and Engineering Laboratory The process Themes DUSEL and CDMS Bernard Sadoulet Dept. of Physics.
Trace element analysis of K, U and Th in high purity materials by Neutron Activation Analysis P. ILA Dept. of Earth Atmospheric & Planetary Sciences Massachusetts.
DEPARTMENT OF PHYSICS AND ASTRONOMY X-ray Astronomy and Space Instrumentation I3 Meeting, December 2004 Integrating Space Radiation Sensing Infrastructures.
John Womersley 1/13 Fermilab’s Future John Womersley Fermilab May 2004.
A screening facility for next generation low-background experiments Tom Shutt Case Western Reserve University.
DUSEL Development Process: The Roadmap from Science & Engineering Plan to the Facility Description Lee Petersen CNA Consulting Engineers.
Luciano Pandola, INFN Gran Sasso Luciano Pandola INFN Gran Sasso Genova, July 18 th, 2005 Geant4 and the underground physics community.
WA 104 : TOOLS FOR WORK ORGANIZATION IN THE CLEAN ROOM Erwan Bertrand Olga Beltramello.
Phase I: Use available 76 Ge diodes from Heidelberg- Moscow and IGEX experiments (~18 kg). Scrutinize with high siginificance current evidence. Phase II:
Assembly 12/14/06 #1 Assembly and Commissioning Paul Huffman.
Detector R&D through the NSF PHY division. Jim Shank/Jim Whitmore, NSF CPAD Meeting Arlington, TX 5-7 October, 2015.
Toward a coherent program in Assay and Related Technologies Priscilla Cushman LRT2013 University of Minnesota LNGS April 10, 2013.
The Princeton NaI Experiment (SABRE) Frank Calaprice Princeton University Cosmic Frontier Workshop SLAC March
Nuclear Radiation Today Chapter 10.3 Notes. Where is radiation? Radiation is everywhere—the form of nuclear radiation that occurs naturally is called.
Main Entry: syn·er·gy Inflected Form(s): plural -gies Etymology: New Latin synergia, from Greek synergos working together A mutually advantageous conjunction.
Testing throughout Lifecycle Ljudmilla Karu. Verification and validation (V&V) Verification is defined as the process of evaluating a system or component.
Particle Physics Sector Young-Kee Kim / Greg Bock Leadership Team Strategic Planning Winter Workshop January 29, 2013.
SuperCDMS & Radon Ray Bunker
2.3: Detecting Radioactivity, Nuclear Reactions
Major Nuclear and Radiation Physics experimental facilities in
Delivering Risk Informed Engineering Programs (50.69) The OG Plan
Open to the Public & Open for Business
Presentation transcript:

Low Background Counting, Materials Purity, Radon issue Prisca Cushman University of Minnesota Not LBC… New Name? AALRMS Assay and Acquisition of Low Radiation Materials and Space N.B. NOT yet approved by the Working Group Cross-cutting Group of about 20 drawn from Dark Matter Neutrinoless Double Beta Decay Solar Neutrinos Energetic Particles Also met with 1-km vertical space NNBAR (neutron monitoring, NAA) Nuclear Astrophysics (neutron backgrounds) Contacted (future integration) with E&O, Geomicrobiology, PODDS, radiometric analysis, Induced Flow-Transport-Activity, Cosmic ray imaging

S4 Vision for the Low Background and Materials Purity Group DUSEL must have world class facilities capable of providing assay and ultra-clean materials support for ISE local staff with the requisite expertise. lead and direct future R&D efforts to develop enhanced sensitivities Implementation plan early, well-equipped LBCF at DUSEL ramping up fast enough to keep up as experiments come online. support for distributed sites which are already serving the community E&O component (training physics students, HS projects on screeners) Gamma screening - HPGe at both 300’ and 4850’ level. Alpha, Beta, and Rn counting - Commercial pre-screeners, new technology that is currently being developed. Radon emanation chambers and systems. ICP-MS enabling technology - reach sub-uBq/kg level. clean reagents and wet-lab NAA and RNAA - radiochemistry (NAA),wet lab (RNAA), dedicated HPGe’s Underground storage of ultra-pure materials - cryogens, water, noble liquids and gases, copper, lead and germanium. Underground ultra-pure material production facilities - electroformed copper, Kr removal, crystal growth, clean machine shop, EDM machines, and laser welders. Large Whole Body Counter - longer term, ultra-sensitive, large samples, deep

In Nov ’07 Town Meeting, the community agreed to submit a single S4 proposal articulate an integrated program define the necessary technologies and capabilities specify R&D program needed to develop screening and materials purity integration of physics experiment needs identification of the larger user community (bio, geo, environ, security) integrate with ILIAS (e.g. JRA-1) participate in worldwide underground site characterization open database material radiopurities assay capabilities existing and new facilities – enable effective scheduling simulation packages (Cosmo n, fission/  n ) R&D activities (Identified by Town Meeting, Removed by S4 process definition) enhanced beta screening measure the rate/spectrum of the ambient neutron background development of low radiation photodetectors production of ultra-pure electroformed Cu enhanced ICP-MS sensitivity, 39Ar removal, and Kr removal. DUSEL R&D S5 Experiments, DUSEL R&D SBIR, DUSEL R&D S5

We organized ourselves via the wiki tool Assigned names for the major tasks in the ISE Job for each person Identify major questions and subsystems Identify the type and amount of engineering required Provide extensive references to projects and people who have already done similar work (Define the expertise ) Integrate with the other Physics groups around that task Next Meeting May 9 Teleconferences every 2 weeks

Identified Major Worry #1: S4 is designed to prepare for the DUSEL MREFC But LBC must occur very early THUS Early Implementation at SUSEL should include some LBC functionality We (S4) are not the group to do this But we may be the people to do this * Alerted SUSEL management to this need (discussions with Jose) * Work to understand this in parallel * Seek other funding: State? EPSCoR? DUSEL R&D ? * Need something AT SUSEL, but also consider funding screening devices in other sites that will be moved to DUSEL later. Training of students Test elements and assembly issues for Detectors going to DUSEL Local expertise, cost effective.

Major Worry #2 Defining the overlap will be tricky: We do not want 3 Integrative “common” proposals that duplicate work and interfere destructively. What is the scope of the AALRMS S4 now that R&D is gone? Is it just a loose collection of the other Physics Groups? PLAN: Common Proposals could simply identify representatives that work with the AALRMS project engineers… or the OTHER WAY AROUND? Facilities could clearly spell out their responsibilities and lend resources to AALRMS…. Or simply take over those aspects. AALRMS Facilities DM Groups Dbl Beta Groups Solar Nu’s

Consider seriously whether there shouldn’t be ONE INTEGRATIVE PROPOSAL (rather than multiple “common proposals” ) This S4 then becomes a proposal which * Connects Facilities to Experiments Managed by the Lab itself, since it is not an EXPERIMENT * Contains working groups within it that are organized by experiment LBC is then defined by experiments, but shared via identified commonalities as well as other common infrastructure * Explores the common infrastructure within Physics Groups (via their working groups in THIS S4) between Physics Groups (via another working group in this SAME S4) * Identifies Synergies to geo/bio * Creates Integrative tools and common databases