Neutrino Factory Target Vessel Concept Update V. Graves Target Studies EVO June 12, 2012.

Slides:



Advertisements
Similar presentations
Mercury Chamber Update V. Graves NF-IDS Meeting October 4, 2011.
Advertisements

Titan-izing the Target Module V.B. Graves 16 Dec 2005.
Oak Ridge SNS Experimental Facilities X /arb 1 SNS MPS Review Target-MPS Review WBS Ron Battle Target Controls, Target Systems Experimental.
A Neutrino Factory Target Station Design based on Solid Targets J. R. J. Bennett STFC, Rutherford Appleton Laboratory, Harwell Science.
POSTER TEMPLATE BY: Presentations.com POSTER TEMPLATE BY: Presentations.com Outlet Inlet n’=375 n=150 n φ =75 (dφ=1.2 ⁰ ) Extra Terms.
Managed by UT-Battelle for the Department of Energy Neutrino Factory Mercury Containment Concepts V.B. Graves 2 nd Oxford-Princeton High- Powered Target.
Neutrino Factory Target Cryostat Review Van Graves Cale Caldwell IDS-NF Phone Meeting August 10, 2010.
Neutrino Factory Mercury Flow Loop V. Graves C. Caldwell IDS-NF Videoconference March 9, 2010.
Particle Production of a Carbon/Mercury Target System for the Intensity Frontier X. Ding, UCLA H.G. Kirk, BNL K.T. McDonald, Princeton Univ MAP Spring.
MERIT Hg System Design Update V.B. Graves P.T. Spampinato T.A. Gabriel MERIT Collaboration Meeting Princeton University Nov 17-18, 2005.
1Managed by UT-Battelle for the U.S. Department of Energy MERIT Videoconference 11 Mar 2009 Neutrino Factory Cryostat 1 Concept V.B. Graves MERIT Videoconference.
1Managed by UT-Battelle for the U.S. Department of Energy NF/IDS Hg Vessel Layout 30 Jun 09 Cryostat 2 Front Drain Mercury Vessel Concept Matthew F. Glisson.
MERIT Equipment Disposal Van Graves MERIT Video Conference September 1, 2010.
Mercury Nozzle Status V.B. Graves Hg Jet Design Meeting Princeton University Nov 15, 2004.
MERIT Primary Containment Inspection Van Graves MERIT Video Conference October 13, 2010.
KT McDonald Muon Collider 2011 June 28, The Target System Baseline K. McDonald Princeton U. (June 28, 2011) Muon Collider 2011 Telluride, CO More.
Above: Energy deposition in the superconducting magnet and the tungsten-carbide shield inside them. Approximately 2.4 MW must be dissipated in the shield.
1Managed by UT-Battelle for the U.S. Department of Energy NF-IDS Videoconference 2 Jun 2009 Neutrino Factory Magnet Layout Comparison V.B. Graves NF-IDS.
Harold G. Kirk Brookhaven National Laboratory Target System Update IDS-NF Plenary Meeting Arlington, VA October 18, 2011.
KT McDonald Target Studies Meeting June 14, Mechanical Issues for the Target System K. McDonald Princeton U. (June 14, 2011) Target Studies Meeting.
Harold G. Kirk Brookhaven National Laboratory Target Baseline IDS-NF Plenary CERN March 23-24, 2009.
1Managed by UT-Battelle for the U.S. Department of Energy NMFCC Friday Meeting 10 Apr 2009 Neutrino Factory Nozzle Layouts V.B. Graves NFMCC Friday Meeting.
IDS-NF Target Studies H. Kirk (BNL) July 8, 2009.
11/26/2002Edgar L Black IIT MICE Video Conference November 27, 2002 Summary of safety implementation for proposal.
Maintenance Schemes For ARIES-CS X.R. Wang a S. Malang b A.R. Raffray a and the ARIES Team a University of California, San Diego, 9500 Gilman Drive, La.
MICE Hydrogen System Implementation Tom Bradshaw Elwyn Baynham Iouri Ivaniouchenkov Jim Rochford.
Above: On-axis field profiles of resistive, superconducting and all magnets, and bore-tube radius r = 7.5 (B/20T) −½ cm. Above: Hoop strain ε θ in resistive.
1Managed by UT-Battelle for the U.S. Department of Energy NF Splash Mitigation 12 July 2011 Neutrino Factory Mercury Pool Splash Mitigation V.B. Graves.
Managed by UT-Battelle for the Department of Energy Review of NFMCC Studies 1 and 2: Target Support Facilities V.B. Graves Meeting on High Power Targets.
Mercury Chamber Considerations V. Graves IDS-NF Target Studies July 2011.
Water Tests of Hg System V.B. Graves P.T. Spampinato Muon Collaboration Friday Meeting Dec 8, 2006.
1Managed by UT-Battelle for the U.S. Department of Energy MERIT Videoconference 5 Aug 2009 Cryostat Front End Design Update Matthew Glisson Van Graves.
MICE Hydrogen System Design Tom Bradshaw Iouri Ivaniouchenkov Elwyn Baynham Columbia Meeting June 2003.
Front End Technologies Harold Kirk Brookhaven National Laboratory February 19, 2014.
IDS-NF Mercury System Overview Van Graves IDS-NF 5 th Plenary Meeting April 9, 2010.
1Managed by UT-Battelle for the U.S. Department of Energy PASI_2012_Flowing_Target_Challenges Challenges for Flowing Targets Bernie Riemer (ORNL) (Jan.
A powder jet target for a Neutrino Factory Ottone Caretta, Chris Densham (RAL), Tom Davies (Exeter University), Richard Woods (Gericke Ltd)
Neutrino Factory Mercury Vessel: Initial Cooling Calculations V. Graves Target Studies Nov 15, 2012.
Review of Recent IDS120 Target Concepts Van Graves October 31, 2013.
Conceptual Design Review of the NPDGamma Experiment in Beam Line 13 Seppo Penttila NPDGamma project manager September 25, 2007 at SNS.
20to2T5m100cm Images Van Graves February 13, 2014.
K. McDonald Target Studies Meeting June 29, Materials for the Target System Internal Shield K. McDonald Princeton U. (June 27, 2010) Iron Plug Proton.
KT McDonald MAP Front End Meeting March 3, Finalizing the C- and Hg-Target Configurations for 6.75-GeV Proton Beams Present studies are for a carbon.
IDS120j WITHOUT RESISTIVE MAGNETS: NEW Hg MODULE mars1510 ( DESKTOP ) vs. mars1512 ( PRINCETON CLUSTER ) Nicholas Souchlas, PBL (3/28/2012) 1.
Shield Module Design Considerations Adam Carroll Van Graves July 3, 2014.
EDM Engineering Issues General Mechanical Considerations EDM Cryostat Plan D ANSYS EMAG Calculations ANSYS MECH Calculations 3 June ‘03 J. Boissevain.
IDS120j WITHOUT RESISTIVE MAGNETS ( 20 cm GAPS AND 15.8 g/cc W BEADS ) AZIMUTHAL DPD DISTRIBUTION STUDIES FOR: BP#1, SH#1, SHVS#1/LFL, SC#1+SC#2, BeWind.
IDS120j WITHOUT RESISTIVE MAGNETS MODIFYING Hg MODULE Nicholas Souchlas, PBL (11/1/2012) 1.
IDS120j WITH AND WITHOUT RESISTIVE MAGNETS PION AND MUON STUDIES WITHIN TAPER REGION, III ( 20 cm GAPS BETWEEN CRYOSTATS ) Nicholas Souchlas, PBL (9/4/2012)
ITER TBM MEETING March UCLA DCLL Module Design Prepared by M. Dagher UCLA P. Fogarty ORNL.
IDS120j WITHOUT RESISTIVE MAGNETS SEMGENTATION STUDIES FOR BEAM PIPE BEYOND FIRST CRYOSTAT ( 20 cm GAPS AND 15.8 g/cc W BEADS ) Nicholas Souchlas, PBL.
Date 2007/Sept./12-14 EDR kick-off-meeting Global Design Effort 1 Cryomodule Interface definition N. Ohuchi.
IDS120j WITHOUT RESISTIVE MAGNETS SEMGENTATION STUDIES FOR BP#2 WITHIN FIRST CRYOSTAT AND RIGHT FLANGE OF Hg POOL INNER VESSEL ( 20 cm GAPS AND 15.8 g/cc.
The IsoDAR Target at KamLAND for NBI2014 and now for something completely different… L. Bartoszek BARTOSZEK ENGINEERING With contributions from the DAEdALUS/IsoDAR.
Neutrino Factory Target Cryostat Review (Update Aug 12) Van Graves Cale Caldwell IDS-NF Phone Meeting August 10, 2010.
1 Building Design Progress Dan Wilcox March 2012.
LBNE Target Pile & Decay Pipe Cooling Andy Stefanik and Ang Lee – Fermilab September 25, 2014.
LBNE Remote Handling Layout Options Adam Carroll Van Graves Tom Burgess FNAL/ORNL Videoconference March 11, 2010.
Target Systems and Monolith Design Update Rikard Linander Group Leader Monolith and Handling April 2, 2014.
Ids120h_side. ids120h_top ids120h_iso ids120h_end.
Target On axis field [scale /20 T] Target Magnets Decay-Channel Triplets Taper magnets.
The ESS Target Station Eric Pitcher Head of Target Division February 19, 2016.
First Wall Panel - Overview
ENERGY FLOW AND DEPOSITION IN A 4-MW MUON-COLLIDER TARGET SYSTEM
NPDG Liquid Hydrogen Target: Design and Safety Features
IDS120j WITHOUT RESISTIVE MAGNETS: NEW Hg MODULE
Neutrino Factory Mercury Catcher Concept
V.B. Graves Hg Jet Design Meeting Princeton University Nov 15, 2004
Mercury Catcher Status
FUEL DELIVERY SYSTEM Copyright © MILE 2011 MILE / XUV500 / IC / VER 01 / JUL 2011.
Presentation transcript:

Neutrino Factory Target Vessel Concept Update V. Graves Target Studies EVO June 12, 2012

2Managed by UT-Battelle for the U.S. Department of Energy Target Vessel Update 12 June 2012 Review – IPAC Paper Concept Double-wall container for mercury containment Inner container is a hollow SS shell filled with He-cooled W beads – Actually provides triple-wall mercury containment in most areas Issue is that it allows Hg to leak into a shielding container that is not part of the mercury system Next step: move outer Hg containment wall inside W, segregate mercury containment and shielding functions Tungsten Beads

3Managed by UT-Battelle for the U.S. Department of Energy Target Vessel Update 12 June 2012 Inner Tungsten Shielding Helium outlet Mercury Vessel Helium inlet Mercury Vessel Helium outlet Inner Tungsten Shielding Helium inlet Hg return Beam pipe Hg drain Hg jet inlet Hg chamber vent line Maintenance Handle Prior Concept

4Managed by UT-Battelle for the U.S. Department of Energy Target Vessel Update 12 June 2012 Helium outlet Helium inlet Hg return Beam pipe Hg drain Hg jet inlet Hg chamber vent line Prior Concept

5Managed by UT-Battelle for the U.S. Department of Energy Target Vessel Update 12 June 2012 Updated Concept – Separate Mercury Containment from Shielding Downstream Beam Window Double wall mercury containment inside tungsten shielding chambers Mercury Pool

6Managed by UT-Battelle for the U.S. Department of Energy Target Vessel Update 12 June 2012 Segmented Mercury Interstitial Space Upstream View From Hg Pool Upstream View Before Hg Pool

7Managed by UT-Battelle for the U.S. Department of Energy Target Vessel Update 12 June 2012 Mercury and Shielding Modules

8Managed by UT-Battelle for the U.S. Department of Energy Target Vessel Update 12 June 2012 Double-Wall Supply & Return Piping Mercury requires double containment outside the mercury equipment cell

9Managed by UT-Battelle for the U.S. Department of Energy Target Vessel Update 12 June 2012 Double Containment Piping Pin-hole drains for leaks Nozzle Inlet Mercury Drain Piping

10Managed by UT-Battelle for the U.S. Department of Energy Target Vessel Update 12 June 2012 Mercury Module Extraction

11Managed by UT-Battelle for the U.S. Department of Energy Target Vessel Update 12 June 2012 Cryostat Modules Now have three distinct modules within the first cryostat Could combine the shielding modules into one

12Managed by UT-Battelle for the U.S. Department of Energy Target Vessel Update 12 June 2012 Comments Isolating the mercury module from the shielding makes remote handling simpler Still a very complicated geometry and mechanically difficult to fabricate How much heat energy does this new mercury module have to dissipate?