Hall B Cryogenics CLAS and CLAS12 David Kashy Hall B Lead Engineer May 26, 2010.

Slides:



Advertisements
Similar presentations
The Use of Small Coolers for Hydrogen and Helium Liquefaction
Advertisements

Russ Rucinski, PPD/MD/DZero Ops DZero Solenoid status November 29, 2004.
1 Cooling the Hydrogen (Helium) Absorbers with Small Coolers Michael A. Green University of Oxford Department of Physics Oxford OX1 3RH, UK MICE Video.
Coupling Coil Test Facility Update Ruben Carcagno Fermilab September 20, 2012.
MICE Superconducting Solenoids: Status and Update RAL: T W Bradshaw M Courthold J Rochford M Hills D Baynham Oxford: J Cobb W Lau S Yang MICE.
February 17-18, 2010 R&D ERL Roberto Than R&D ERL Cryogenics Roberto Than February 17-18, 2010 CRYOGENICS.
9 June 2006MICE CM-15 Fermilab1 Progress on the MICE Cooling Channel and Tracker Magnets since CM-14 Michael A. Green Lawrence Berkeley Laboratory.
1 Superconducting Magnets for the MICE Channel Michael A. Green Oxford University Physics Department Oxford OX1-3RH, UK.
Spectrometer Solenoid Fabrication & Testing Update Steve Virostek Lawrence Berkeley National Lab MICE CM24 at RAL June 1, 2009.
1 Technical Arguments in Favor of using the Cryomech PT-415 Cooler for Cooling the LH 2 Experiment Michael A. Green Lawrence Berkeley Laboratory Berkeley.
12 March 2006NFMCC Meeting, IIT, Chicago1 Progress on the MICE Cooling Channel and Tracker Magnets Michael A. Green Lawrence Berkeley Laboratory.
MICE Collaboration Meeting CM-151 Is the the pulse tube cooler a must or is it simply better for the MICE AFC module? Michael A. Green Lawrence Berkeley.
Current status Arkadiy Klebaner November 21, 2012
ESS Cryogenic System Process Design Philipp Arnold Section Leader Cryogenics CEC – ICMC 2015 June 29, 2015.
12 GeV Upgrade of Cryogenics at Jefferson Laboratory (Jlab) Dana Arenius Engineering Division Cryogenic Systems ILC08 Nov This work is supported.
Engineering and Design Group Fermi National Accelerator Laboratory Cryogenic Department AAC Review, May , 2005 Jay Theilacker HPTFCRYOGENICS.
CASIPP Design of Cryogenic Distribution System for CFETR CS model coil Division of Cryogenic Engineering and Technical Institute of Plasma Physics Chinese.
LHC Experimental Areas Forum - 03/07/ ATLAS Helium Cryogenics Nicolas Delruelle on behalf of the AT / ECR group.
Status and Integration of the Spectrometer Solenoid Magnets Steve Virostek Lawrence Berkeley National Lab MICE RAL June 15, 2007.
MTA Cryogenics: Where We Are The Work of Fermilab AD/Cryo Barry Norris, Christine Darve and a host of wonderfully talented Cryogenic Personnel John Thompson,
SOFT 2004 OVERVIEW OF CRYOGENIC TECHNOLOGY FOR THE THERMONUCLEAR FUSION P. DAUGUET, M. BONNETON, P. BRIEND, F. DELCAYRE, B. HILBERT, A. RAVEX Air Liquide.
K. McDonald ICEC23-ICMC2010, Wroclaw July 20, Use of He Gas Cooled by Liquid Hydrogen with a 15-T Pulsed Copper Solenoid Magnet K.T. McDonald Princeton.
The cryogenic systems of the ATLAS and CMS detectors Johan Bremer on behalf of TE/CRG 06/06/2013AFF.
April, 2009 ERL SRF CRYO MODULES AND CRYOGENIC SYSTEM.
IHEP 1.3 GHz Cryomodule and Cryogenics IHEP Cryogenic group 2nd Workshop of the IHEP 1.3 GHz SRF R&D Project Dec 2 nd, 2009.
Cryo AIP Muon Campus AIP Review Arkadiy Klebaner January 23, 2012.
N.Delruelle (CERN)31-May-2007 Cryogenics for ATLAS and CMS Experimets N. Delruelle on behalf of AT-ECR group.
/18 Cryogenic thermometry for refrigerant distribution system of JT-60SA Kyohei NATSUME, Haruyuki MURAKAMI, Kaname KIZU, Kiyoshi YOSHIDA, Yoshihiko KOIDE.
Cryogenic update before Fermilab meeting (and after the helium tank review) Coordination meeting 6 th May 2015 K. Brodzinski HiLumi-LHC-CC-Cryo-PPT-18_v1.
Spectrometer Solenoid Fabrication & Testing Update Steve Virostek Lawrence Berkeley National Lab MICE CM25 at RAL November 6, 2009.
April 19, 2006A.Klebaner Cryogenics for ILC TA Current Status Plans and issues.
G-2 accelerator and cryo needs Mary Convery Muon Campus Review 1/23/13.
January 4, 2007 Project Overview RHIC II Project Internal Cost Review Roberto Than Cryogenics Systems January 4, 2007.
An Overview of the ILC Cryogenic System Tom Peterson, Fermilab LCFOA at SLAC 1 May 2006.
9/17/07IRENG071 Cryogenic System for the ILC IR Magnets QD0 and QF1 K. C. Wu - BNL.
Restoring Komag Yasuhiro Makida Consideration of restoring and modifying Komag for a stand alone operation without the refrigerator. Contents 1.Magnet.
1 Small Coolers for MICE Michael A. Green University of Oxford Department of Physics Oxford OX1 3RH, UK MICE Collaboration Meeting RAL.
SM18 cryogenics infrastructure upgrade L. Serio TE-CRG.
MAGNET#1MAGNET#2MAGNET#3 SATELLITE VB#1 SATELLITE VB#2 SATELLITE VB#3 PRECOOLER#1PRECOOLER#2 DISTRIBUTION VALVE BOX DVB CP#1CP#3CP#2 BUFFER DEWAR LHe 5m.
Cryogenic Summary - K. C. Wu Testing D2L102 in MAGCOOLJune, 02 Difference between D2L102 and D2L101 Operating Summary Cooldown to 100 K and 6 K Test Condition.
ITER Liquid Helium Plants Status and Test Protocol ICEC June 29th, 2015 / Grenoble / FranceY. FABRE.
NML Cryogenic System Arkadiy Klebaner Cryomodule One Commissioning June 3, 2011.
17-18 December 2013 LARP VTF Workshop BNL Proposal 1 A.Marone
8/29/07K. C. Wu - Brookhaven National Lab1 Major Components in ILC IR Hall Interchangeable Detectors.
Thomas Jefferson National Accelerator Facility Page 1 Dana Arenius Cryogenics Control Account Manager 12 GeV Upgrade Project X Collaboration September.
L Design and Optimization of Helium Liquefaction System with Targeted Capacity of 50 lph without LN2 T Maiti, S Pal, A Mukherjee, U Panda Variable Energy.
Project X Workshop - Cryogenics1 Project X CRYOGENICS Arkadiy Klebaner.
CRYOGENIC SYSTEM of RAON Chul Jin Choi, Ki Woong Lee Cryogenics and Control Team Accelerator Division 5/23/2013 Chul Jin Choi, Ki Woong Lee Cryogenics.
CLAS12 Longitudinally Polarized Target R&D Update CLAS Collaboration, October 20, 2015 Chris Keith.
Refrigeration of Superconducting Solenoids T W Bradshaw Rutherford Appleton Laboratory Harwell Science and Innovation Campus Didcot, OX11 0QX, UK
Study and Development of Large Cryogenic Systems in China
Magnet cryogenic system update.
Cryoplant Installation Scope
N. Hasan1, P. Knudsen2 and V. Ganni2
Dana M. Arenius Jefferson Laboratory Cryogenics Dept Head
Polarized Target Activity at the University of Virginia
Small Coolers for MICE MICE Collaboration Meeting RAL Michael A. Green
Status of the cryogenic system for B180
Mathew C. Wright October 2016
SHMS Cryogenics and Q2(Q3Dipole) Cool Down
ESR 2 Presented to Joint Hall A/C Summer Meeting
Cryogenics – The Basics
Cryogenics – The Basics
Hall D Cryogenic requirements
CTF Users’ Perspective
as a prototype for Super c-tau factory
ESR2 Process Cycle Design
Cryogenics – The Basics
07/22/2019 Dhananjay Ravikumar
ESR2 Process Cycle Design
Presentation transcript:

Hall B Cryogenics CLAS and CLAS12 David Kashy Hall B Lead Engineer May 26, 2010

CLAS Cryogenic Components – Transfer line from ESR – 6 coil torroidal field magnet with service module –built by Oxford Instruments operating since 1995 – 500 liter liquid helium dewar – standard product with 2 liquid withdrawal bayonets and cold gas return – Liquid helium cooled cryo-target - capable of liquefying hydrogen, deuterium, He4 and He3 – Frost Target and 5 Tesla Polarizing Magnet – 5T Polarized Target – cooled with LHe – 4.7T Solenoid – cooled with LHe – HDIce – In development also cooled with LHe

CLAS Cryogenic Hardware CLAS OXFORD Torus Frost Polarizing Solenoid Cryofab 500 l Buffer Dewar 4.7 T DVCS SolenoidPhoton Target Cell 40 x 4cm Microwave Polarized Target Electron Target Cell 2.5 x 1cm 30mK FROST Target

Scheduled Experiments Frost: Torus, Buffer Dewar, Frost Target and Polarizing Magnet HDIce/HD DVCS: Torus, Buffer Dewar and In-Beam-Cryostat Primex: No cryogenics, but keep Torus cold Two Photon Exchange: Torus, Buffer Dewar and Standard Cryotarget

CLAS Loads Torus: 110 Watts and 0.6 g/s lead cooling Transfer Lines and Buffer Dewar: 30 Watts Targets and Solenoids – All are of same order of magnitude ≤ 1g/s (liquefaction loads) LN2 – 7 g/s including TL

CLAS 12 Cryogenic Components – Transfer line from ESR – 500 liter liquid helium dewar – standard product with 2 liquid withdrawal bayonets and cold gas return – Liquid helium cooled cryo-target - capable of liquefying hydrogen, deuterium, He4 and He3 – New 6 coil torroidal field magnet with service module – New 5 Tesla Solenoid Magnet – New Distribution Can for both magnets and connection of Buffer Dewar – New Polarized Target – HDIce – In development also cooled with LHe

CLAS 12 New hardware Torus – WANG NMR Solenoid – WANG NMR Distribution Box

CLAS12 Loads Torus: 100 Watts and 0.6 g/s lead cooling (per specification note: Vendor claims less) Solenoid 70 Watts and 0.6 g/s lead cooling (per specification note: Vendor claims less) Transfer Lines, Distribution Box and Buffer Dewar: 60 Watts Targets– All are of same order of magnitude ≤ 1g/s (liquefaction loads) LN2 – ~10 g/s including TL

CLAS12 Load Summary Refrigeration load 230W Liquefaction load 2.2 g/s LN2 10g/s LHe Inventory 1150 liter LN2 Inventory 200 liter  Start up date April 2013  Duration 10+ years

Questions?