MC/NF TARGET SHIELDING STUDIES. NICHOLAS SOUCHLAS (10/29/2010)‏ 1.

Slides:

Advertisements

Similar presentations

SUPERCONDUCTING SOLENOIDS - SHIELDING STUDIES 1. N. Souchlas BNL (Oct. 5, 2010)

Advertisements

Stefan Roesler SC-RP/CERN on behalf of the CERN-SLAC RP Collaboration

IDS120j WITH/WITHOUT GAPS SH#4 AZIMUTHAL DPD DISTRIBUTION ANALYSIS Nicholas Souchlas, PBL (3/14/2012) 1.

KT McDonald Target Studies Weekly Meeting July 10, Power Deposition in Graphite Targets of Various Radii K.T. McDonald, J. Back, N. Souchlas July.

Magnetic Configuration of the Muon Collider/ Neutrino Factory Target System Hisham Kamal Sayed, *1 H.G Kirk, 1 K.T. McDonald 2 1 Brookhaven National Laboratory,

Neutrino Factory Target Cryostat Review Van Graves Cale Caldwell IDS-NF Phone Meeting August 10, 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.

Comparison of Power Depositions Xiaoping Ding UCLA Target Studies Jul. 13, 2010.

Operated by Brookhaven Science Associates for the U.S. Department of Energy A Pion Production and Capture System for a 4 MW Target Station X. Ding, D.

Pion capture and transport system for PRISM M. Yoshida Osaka Univ. 2005/8/28 NuFACT06 at UCI.

IDS120h: Be WINDOW DETAILED CALCULATION, SHIELDING VESSELS, RESULTS FOR DIFFERENT GLOBAL STEPS Nicholas Souchlas (9/20/2011) 1.

Energy Deposition of 4-MW Beam Power in a Mercury Jet Target Xiaoping Ding UCLA Target Studies Meeting, Feb. 9, 2010.

SHIELDING STUDIES FOR THE MUON COLLIDER TARGET NICHOLAS SOUCHLAS BNL Nov 30, 2010 ‏ 1.

Energy Deposition of 4MW Beam Power in a Mercury Jet Target Xiaoping Ding UCLA Target Studies Mar. 9, 2010 (Update of talk on Feb. 9, 2010)

Harold G. Kirk Brookhaven National Laboratory Target System Update IDS-NF Plenary Meeting Arlington, VA October 18, 2011.

 Stephen Brooks / UKNF meeting, Warwick, April 2008 Pion Production from Water-Cooled Targets.

IDS-NF Target Studies H. Kirk (BNL) July 8, 2009.

1 Comparison of Power Depositions X. Ding, D. B. Cline, UCLA H. Kirk, J. S. Berg, BNL Collaboration Meeting July 2, 2010.

Comparison of Power Deposition in SC1 Coil Xiaoping Ding UCLA Target Studies Jun. 29, 2010.

Power Deposition in SC1 Coil Xiaoping Ding UCLA Target Studies Apr. 20, 2010.

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.

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.

SUPERCONDUCTING SOLENOIDS - SHIELDING STUDIES 3. NICHOLAS SOUCHLAS (10/28/2010)‏

Solid Target Options NuFACT’00 S. Childress Solid Target Options The choice of a primary beam target for the neutrino factory, with beam power of

IDS120h POWER DEPOSITION AND Hg POOL STUDIES Nicholas Souchlas (7/26/2011) 1.

STUDY II: m1507 vs. m1510 IDS120f: m1507/MCNP vs. M1510/MCNP vs. FLUKA IDS120f vs. IDS20g GEOMETRY IDS90f: B10/B11 SHIELDING RING(S) STUDIES Nicholas Souchlas.

Target and Absorbers L2 Manager: K McDonald, Princeton U March xx, 2013 Presenter’s Name | DOE Mini-Review of MAP (FNAL, March 4-6, 2013)1 Mission Target:

SUPERCONDUCTING SOLENOIDS - SHIELDING STUDIES 1..

Meson Productions for Target System with GA/HG Jet and IDS120h Configuration X. Ding (Presenter), D. Cline, UCLA H. Kirk, J.S. Berg, BNL Muon Accelerator.

Energy deposition for intense muon sources (chicane + the rest of the front end) Pavel Snopok Illinois Institute of Technology and Fermilab December 4,

Target & Capture for PRISM Koji Yoshimura Institute of Particle and Nuclear Science High Energy Accelerator Research Organization (KEK)

IDS120j WITHOUT GAPS AND WITH MAXIMUM SIZE GAPS ( aka ''NIGHTMARE'' CASE SCENARIO ) SC#4, SC#7 AZIMUTHAL DPD DISTRIBUTION ANALYSIS. Nicholas Souchlas,

IDS120h GEOMETRY WITH MODIFIED Hg POOL VESSEL. SIMULATIONS FOR 60%W+40%He SHIELDING (P12 'POINT') WITH STST SHIELDING VESSELS EFFECTS OF Be WINDOW WATER.

SHIELDING STUDIES FOR THE MUON COLLIDER TARGET. (From STUDY II to IDS120f geometries) NICHOLAS SOUCHLAS (BNL)‏ ‏ 1.

Experimental studies of spatial distribution of neutron production around thick lead target irradiated by 0.9 GeV protons Antonín Krása&Vladimír Wagner.

DEPOSITED POWER STUDIES FOR THE MC/NF TARGET STATION. Nicholas Souchlas (PBL) (MAP CONFERENCE SLAC 2012) 1 DEPOSITED POWER STUDIES FOR THE MC/NF TARGET.

1 Energy Deposition of 4MW Beam Power in a Mercury Jet Target X. Ding, D. B. Cline UCLA H. Kirk, J. S. Berg BNL The International Design Study for the.

IDS120j WITH GAPS SC#3 AZIMUTHAL DPD DISTRIBUTION ANALYSIS WITH MAX GAPS SC#3, SC#4 AZIMUTHAL DPD DISTRIBUTION ANALYSIS, DP AND SC TOTAL DP WITH VARYING.

IDS120h GEOMETRY WITH MODIFIED Hg POOL VESSEL. SIMULATIONS FOR 60%W+40%He SHIELDING (P12 'POINT') WITH STST SHIELDING VESSELS. BP#1(STST/W), SH#1, BeWindow,SC#8.

Modeling Production, Interactions and Transport Fermilab November 14, 2005 Fermilab ILC-CAL Nikolai Mokhov, Fermilab.

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.

Beam MC activity A.K.Ichikawa for beam group For more details,

IDS120j WITHOUT RESISTIVE MAGNETS: NEW Hg MODULE mars1510 ( DESKTOP ) vs. mars1512 ( PRINCETON CLUSTER ) Nicholas Souchlas, PBL (3/28/2012) 1.

MARS15 RESULTS FOR THE LBNE-BLIP IRRADIATION TEST LBNE-BLIP Irradiation Test Meeting Fermilab February 19, 2010 Nikolai Mokhov FermilabAccelerator Physics.

Particle Production of Carbon Target with 20Tto2T5m Configuration at 6.75 GeV (Updated) X. Ding, UCLA Target Studies April 3, /3/14.

Beam Dump for Carbon Target with IDS120h Configuration at 6.75 GeV (Updated) X. Ding, UCLA Target Studies Jan. 24, /24/14.

Particle Production with Carbon Target and IDS120j Configuration at 3 GeV (update) X. Ding, UCLA Target Studies Nov. 14, /14/13.

Kinetic Energy Spectra of pi +, pi -, mu +, mu - and sum of all from the 20to4T5m Configuration X. Ding Front End Meeting June 23,

Meson Production of Carbon Target at 3 GeV X. Ding, UCLA Target Studies 17/18/13.

Recent Studies on ILC BDS and MERIT S. Striganov APD meeting, January 24.

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.

Multiprocessing/MARS15(2012)/Princeton Cluster (IDS120j w/t Resistive Magnets: New Hg Module) X. Ding UCLA (4/11/2013)

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)

Meson Production at Low Proton Beam Energy (Update) X. Ding, UCLA Target Studies May 9, /9/113.

IDS120i GEOMETRY. SIMULATIONS FOR 60%W+40%He SHIELDING WITH STST SHIELDING VESSELS. Hg vs. Ga DEPOSITED POWER DISTRIBUTION. (using Ding's optimized parameters)

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.

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.

Target Proposal Feb. 15, 2000 S. Childress Target Proposal Considerations: –For low z target, much less power is deposited in the target for the same pion.

N_TOF EAR-1 Simulations The “γ-flash” A. Tsinganis (CERN/NTUA), C. Guerrero (CERN), V. Vlachoudis (CERN) n_TOF Annual Collaboration Meeting Lisbon, December.

Ids120h_side. ids120h_top ids120h_iso ids120h_end.

BNL solenoid capture workshop: magnet challenges are not trivial Summarized by Tengming Shen

SHIELDING STUDIES FOR IDS80 (NO IRON PLUG/YOKE), ADDING SHIELDING IN 75 TO 80 cm (WC/H 2 O, B, Cd). NICHOLAS SOUCHLAS (BNL) Dec. 14, 2010‏ ‏ 1.

ENERGY FLOW AND DEPOSITION IN A 4-MW MUON-COLLIDER TARGET SYSTEM

IDS120h: PROTON P0-P14 TRAJECTORY FOOTPRINT

X. Ding, UCLA MAP Spring 2014 Meeting May 2014 Fermilab

IDS120j WITHOUT RESISTIVE MAGNETS: NEW Hg MODULE

Inter-comparison of Particle production (2)

1 Nicholas Souchlas, PBL (11/15/2011)

1 Nicholas Souchlas (PBL) (MAP CONFERENCE SLAC 2012)

Presentation transcript:

MC/NF TARGET SHIELDING STUDIES. NICHOLAS SOUCHLAS (10/29/2010)‏ 1

Energy deposition from MARS, MARS+MCNP codes. STANDARD (STUDY II) GEOMETRY. STANDARD SHIELDING (80%WC+20% H 2 O). 4MW proton beam. Initially E=24 GeV, GAUSSIAN PROFILE: σ x =σ y =0.15 cm. Now E=8 GeV, GAUSSIAN PROFILE: σ x =σ y =0.12 cm. 2

STANDARD (STUDY II) SOLENOID GEOMETRY, 13 NiTi+Cu+... SC SC#1 -120<z<57.8 cm R in =63.3 cm R out =127.8 cm SC#2 67.8<z<140.7 cm R in =68.6 cm R out =101.1 cm SC# cm (TOTAL # SC=13)‏ 3

DEPOSITED ENERGY WITH 24 GeV AND 8 GeV BEAM (MARS, MARS+MCNP). From 24 GeV to 8 GeV, and from a more detail treatment of low energy neutrons: from ~14 kW to ~38 kW power in SC1 and from ~29 kW to 50 kW in total power GeV 8 GeV

OFF/ON SHIELDING, DIFFERENT NEUTRON ENERGY CUTOFFS. 5

6

7 High energy neutrons are a problem even with shielding material.

Within shielding thickness restrictions, best effect is achieved by maximizing content in high Z material. For WC beads and H 2 O, from random sphere packing analysis x~

9 REPLACING RESISTIVE MAGNET WITH SHIELDING MATERIAL (80%WC+20% H 2 O) REDUCES DEPOSITED ENERGY IN SC1 FROM ~28 kW TO ~10 kW (A FACTOR OF ~3).

10 STANDARD (OLD) VS. IDS80 (NEW) SOLENOID GEOMETRY (IDS80 WITH 60%WC+40% H2O SHIELDING) ‏ From 63.3 cm (SC#1) to 80 cm (SC#1-10) inner radius for solenoids around target area: more space for shielding.

MARS+MCNP (DEFAULT NEUTRON ENERGY CUTOFF 0.1 MeV) Study II, standard case, first solenoid (NiTi+Cu+...) and with 80%WC+20% H 2 O shielding > Enhanced shielding case (IDS80), first group of solenoids (SC#1-5) (Ni +...) and with 60%WC+40% H 2 O shielding: 28 kW > 2 kW 11

CONCLUSIONS. Low energy neutrons require detail study provided by MCNP. High energy neutrons are a problem even with the shielding material. Resistive coil significantly reduces the ability for shielding SC1. High Z material required and as much as possible. Additional space for shielding material necessary for solenoids especially around target area. 1212

BACKUP SLIDES 1313

NO SHIELDING, DIFFERENT NEUTRON ENERGY CUTOFFS. 1414

1515

80%WC+20%H 2 O SHIELDING, DIFFERENT NEUTRON ENERGY CUTOFFS. 1616

1717

1818

1919

ENERGY DEPOSITED FOR DIFFERENT COMPOSITIONS OF THE SHIELDING ( x WC+(1-x) H 2 O )‏ 2020

DEPOSITED ENERGY BY REMOVING THE MAGNETIC FIELD, USING TWO WAYS: (4=F, B≠0) (4=T, B=0) 2121

DEPOSITED ENERGY WHEN RESISITIVE COIL IS REPLACED BY SHIELDING MATERIAL. 2

DEPOSITED ENERGY WITH 24 GeV BEAM. 2323