Cost estimation for production & installation of Calorimeter System V. Issakov Physics Department, Yale University, New Haven, CT 06511 11/9/2004.

Slides:



Advertisements
Similar presentations
Measuring Cosmic Ray Flux with a trigger and CAMAC readout - Page 1 Connect the Fluke 415 HV supply output to the input of the voltage distribution box.
Advertisements

CMS Outer Hadron Calorimeter (HO) Project Naba K Mondal Tata Institute, Mumbai, India.
03 Aug NP041 KOPIO Experiment Measurement of K L    Hideki Morii (Kyoto Univ.) for the KOPIO collaborations Contents Physics Motivation.
Update on Electronics Activities Jim Pilcher University of Chicago 20-Jan-2006.
D. Peterson, “Tracking Detector R&D at Cornell University and Purdue University” ALCPG SLAC 07-Jan Tracking Detector R&D at Cornell University and.
Commissioning TileCal with Cosmic Ray Muons J. Pilcher University of Chicago.
Prototype Mechanical / optical considerations 1.Current LED system performance 2.New APD / Fiber /Strong Back integration scheme.
US CMS Phase 2 R&D Discussion 30-July-2013 “Phase 2 muon R&D” J. Hauser, UCLA  Add redundancy (power) to trigger where most needed  First and innermost.
CLAS12 Pre-shower Calorimeter (PCAL) project Fall of 2010 to fall of 2014, a lot of person-hours S. Stepanyan (JLAB) Hall-B Meeting, March 24, 2014.
Proposal for IHEP participation in CBM ECAL
N. Anfimov (JINR) on behalf of the ECAL0 team.  Introduction  Installation and commissioning  Calibration  Data taking  Preliminary result  Plans.
Status of EIC Calorimeter R&D at BNL EIC Detector R&D Committee Meeting January 13, 2014 S.Boose, J.Haggerty, E.Kistenev, E,Mannel, S.Stoll, C.Woody PHENIX.
The Design of Barrel Electromagnetic Calorimeter (BEMC) October Lu Jun-guang.
Study of response uniformity of LHCb ECAL Mikhail Prokudin, ITEP.
Shashlik type calorimeter for SHIP experiment
PANDA electromagnetic calorimeters Pavel Semenov IHEP, Protvino on behalf of the IHEP PANDA group INSTR08 28 Feb - 05 Mar 2008.
Anatoli Konoplyannikov Design and integration of HV, LED monitoring and calibration system for HCAL Overview of the subsystems design High voltage.
PWO/APD/CSP Development at Hiroshima U. Hiroshima ALICE-PHOS Group (T.Sugitate, K.Shigaki, et al.) 17 August, 2004, at CERN.
Status of Projectile Spectator Detector A.Kurepin (Institute for Nuclear Research, Moscow) I. Introduction to PSD. II. Conception and design. III. Development.
Figure 1: ICD Single Channel Block Diagram Schematic PMT High Voltage Supply (see Figure 4 & 4a) LED Pulser PMT Calibration (see Figure 6) ICD Scintillator.
QUPID Readout and Application in Future Noble Liquid Detectors Kevin Lung, UCLA TIPP 2011 June 11, 2011.
0 The LHCb Hadron Calorimeter Rustem Dzhelyadin, (IHEP, Protvino) INSTR02 Conference, BNPI, Novosibirsk, Russia Contents: Œ Design overview  Trigger with.
Munich, 18 Oct 2006J. Cvach, annual JRA31 JRA3 Institute of Physics ASCR Prague 1.ECAL, VFCAL (V. Vrba) 2.HCAL (J. Cvach) 3.Exchange in NA2 (travels 8.5.
DVCS-2 Assembly & Installation Charles Hyde DVCS Collaboration Meeting 18 December 2009 Clermont-Ferrand.
Hall D Online Meeting 27 June 2008 Fast Electronics R. Chris Cuevas Jefferson Lab Experimental Nuclear Physics Division 12 GeV Trigger System Status Update.
Status of the PSD upgrade - Status of production of new temperature, HV control systems MAPD gain monitoring system. -Status of the PSD temperature stabilization.
M&O status and program for ATLAS LAr calorimeter R Stroynowski (on vacations)
Shashlyk FE-DAQ requirements Pavel Semenov IHEP, Protvino on behalf of the IHEP PANDA group PANDA FE-DAQ workshop, Bodenmais April 2009.
Forward Muon Installation and Commissioning Dmitri Denisov Fermilab Director’s review 7/12/1999 Plan Forward muon detectors Mini-drift tubes installation.
EMCal Status ALICE Technical Board November 20, 2008 News Schedule.
1.2.7 Trigger A.Nappi TB Nov 11, Digitizers ( )  Functions 25 MHZ 10 bit p.h. + 6bit time digitizers Digital processing  Flavor A: p.h.
1 CKOV1 at the MICE Experiment CKOV1 to perform mu/pi id w TOF0/TOF1. Progress since CM16 CKOV1 Fabrication and Installation TOF0 CKOV1 TOF1 EMCAL TOF2.
PSD upgrade: concept and plans - Why the PSD upgrade is necessary? - Concept and status of the PSD temperature control - Concept of the PSD analog part.
DAQ Subsystem Christopher Crawford University of Kentucky Robert Grzywacz University of Tennessee April DoE, Germantown MD.
FSC Status and Plans Pavel Semenov IHEP, Protvino on behalf of the IHEP PANDA group PANDA Russia workshop, ITEP 27 April 2010.
Status and R&D development of Photon Calorimeter G. Atoian, S. Dhawan, V. Issakov, A. Poblaguev, M. Zeller, Physics Department, Yale University, New Haven,
first results from EMCal test beam
DCS Workshop, CERN MARCH ACORDE (Alice Cosmic ray detector) 60 scintillator modules (120 HV channels) Each module will have two scintillator counters.
1 Calorimeters LED control LHCb CALO meeting Anatoli Konoplyannikov /ITEP/ Status of the calorimeters LV power supply and ECS control Status of.
SiPM for CBM Michael Danilov ITEP(Moscow) Muon Detector and/or Preshower CBM Meeting ITEP
Status of the PSD upgrade - Problems with PSD in Be runs - Modification of cooling system - New temperature control - Upgrade of HV control system - MAPD.
A.Olchevski, JINR (Dubna) Test Beam studiesof COMPASS ECAL0 Test Beam studies of COMPASS ECAL0 module prototype with MAPD readout ECAL0 Team, JINR, DUBNA.
PHENIX Safety Review Overview of the PHENIX Hadron Blind Detector Craig Woody BNL September 15, 2005.
SiD Muon Detector Progress. Overall concept 2 There are slots in the iron. We will insert modules of orthogonal strips of appropriate size into the slots.
SPHENIX EMCAL R&D Craig Woody BNL sPHENIX Design Study Meeting September 7, 2011.
D. Bertrand, J. De Bruyne, P. De Harenne, L. Etienne, S. Hannaert, G. Van Beek The Arch.
LHCf Detectors Sampling Calorimeter W 44 r.l, 1.6λ I Scintilator x 16 Layers Position Detector Scifi x 4 (Arm#1) Scilicon Tracker x 4(Arm#2) Detector size.
FT Prototype Test Purpose: test the prototype of the FT Calorimeter and Scintillator Hodoscope Technique: prototype is installed under the Hall B photon.
PSD upgrade: concept and plans - Why the PSD upgrade is necessary? - Concept of the PSD temperature stabilization and control - Upgrade of HV control system.
Strip-scintillator/Si avalanche photo-diode Muon System Fermilab Test beam + Inst INFN Udine APDs Notre Dame Scint /WLS Baseline: Resistive Plate Chambers.
Status of KOPIO Subsystems 2005 RHIC & AGS Users ’ Meeting Brookhaven National Laboratory June 20, 2005 Steve Kettell.
Paul Rubinov on behalf of Gene Fisk, Kurt Krempetz 22 Aug 2012.
CDMS II Shielding To Installation To Construction From Design.
TDR for the PANDA Forward Spectrometer Calorimeter (Shashlyk) Pavel Semenov IHEP, Protvino PANDA Collaboration Meeting, Giessen 20 March 2015.
Status of the PANDA Forward Spectrometer Calorimeter (Shashlyk) Pavel Semenov IHEP, Protvino PANDA-Russia Workshop FRRC, Moscow 27 May 2015.
Sergey BarsukElectromagnetic Calorimeter for 1 Electromagnetic Calorimeter for the LHCb experiment Perugia, Italy March 29 – April 2, 2004 ECAL CALO Sergey.
Status of NEWCHOD E.Guschin (INR), S.Kholodenko (IHEP), Yu.Kudenko (INR), I.Mannelli (Pisa), O.Mineev (INR), V.Obraztsov (IHEP), V.Semenov(IHEP), V.Sugonyaev.
1 Projectile Spectator Detector: Status and Plans A.Ivashkin (INR, Moscow) PSD performance in Be run. Problems and drawbacks. Future steps.
PANDA Forward Spectrometer Calorimeter (Shashlyk) Status Dmitry Morozov, IHEP (Protvino) PANDA LV Collaboration Meeting Nov 30 – Dec Vienna, Austria.
Shashlyk DAQ and FEE Status and Plans Pavel Semenov IHEP, Protvino on behalf of the IHEP PANDA group PANDA DAQ and FEE Workshop, Rauischholzhausen Castle.
Future Beam Test Plans of the Calorimeter Group Aug 学術創成会議 Satoru Uozumi (Shinshu) for the GLD calorimeter group We are planning to have two beam.
WBS 1.04 KLM Leo Piilonen Virginia Tech. Talk Outline WBS Element Scope Performance Requirements Cost Summary Schedule Risks Summary January 2014Leo.
IFR Detector R&D status
JRA3 Institute of Physics ASCR Prague
FSC status and plans Pavel Semenov IHEP, Protvino
Frontier Detectors for Frontier Physics
IHEP group Shashlyk activity towards TDR
Tagger Microscope Detector & Electronics Status
Calice Tile-HCal and Tail-catcher/Muon Tracker
PANDA Forward Spectrometer Calorimeter (Shashlyk) status and plans
Presentation transcript:

Cost estimation for production & installation of Calorimeter System V. Issakov Physics Department, Yale University, New Haven, CT /9/2004

Photon Calorimeter for KOPIO The requirements to the KOPIO Photon Calorimeter: Energy resolution  3.5[%]/  E. Time resolution  100[psec]/  E. Photon detection inefficiency (due to holes-cracks)  Granularity  11  11 cm 2. Active area  5.7  5.7 m 2 Radiation length  16X 0 (18X 0 including Preradiator). Physical length  60 cm. The Shashlyk technique with the APD photo readout satisfies the KOPIO requirements. All sizes are millimeters

Calorimeter System Calorimeter System includes: I.Mockup of Calorimeter System - the complete-equipped prototype of Calorimeter system (16  8 modules), to study the performance parameters of the Calorimeter & Preradiator/Calorimeter systems and to develop the pattern recognition algorithms. II.Photon Calorimeter – the matrix of the 52  52 APD-instrumented modules with a beam hole of 18  2 modules, Calorimeter mechanics (including two mobile halves of Calorimeter frame, Calorimeter railways and Calorimeter installation/service equipment) & Calorimeter cooling system. III.Instrumentation of Photon Calorimeter - Calorimeter High-Voltage control system, Calorimeter LV power supply system, Calorimeter “cosmic- ray” Pre-calibration System, Calorimeter Monitoring/Calibration System, Calorimeter WFD-readout System. IV.The cable system of Photon Calorimeter – 3,172 signal cables, 2704 HV control cables & 2704  3 LV power supply cables.

Cost estimation for Calorimeter System WBS #Description Sub.Mat.EDLab.Tot.Con Cost of Calorimeter System (CS) 1,2073, ,465*9,05422% KOPIO Contribution (NSF)1,2073, ,130*7,71924% IHEP Contribution** (RUSSIA)000359*35923% YALE Contribution (DOE)000976*97620% Mockup of the CS (The complete-equipped matrix of 128- modules to study the Performance Parameters of CS) % Photon Calorimeter (2704 APD-instrumented modules, Calorimeter mechanics & Cooling system) 602, ,0734,72625% Instrumentation of Photon Calorimeter (2704 channels of HV- control, monitoring, calibration & WFD-readout electronics) ,76322% Shipping of Photon Calorimeter (Shipping formula: 600 mod.  3, Mechanics, 904 mod.) % Assembly & Test of the delivered modules (APD/mod. assembly, mech. & optical tests, a “cosmic-ray” calibration) % Installation of Photon Calorimeter (modules into frames, monitoring-calibration system, readout electronics) % Cabling of Photon Calorimeter (Production and installation of cables) % Commission of CS (The mechanical & “cosmic-ray” tests of the full-loaded CS) % Scientific-technical coordination & management % Travel expenses (Meetings, consultation, supervision of production) % *) Support of the FTE scientists: KOPIO - $1,069k, IHEP - $359k, YALE - $976k. **) IHEP contribution in past: Scintillator factory (~$3,000k), Test facility (~$200k).

Calorimeter mockup production WBS #DescriptionSub.Mat.EDLab.Tot.Con Mockup of the CS (The complete-equipped matrix of 128- modules to study the Performance Parameters of CS) *18% Fabrication of 100 “mass-production” modules % Instrumentation of 100 “mass-production” modules by APD units (APD, preamplifier, LV-HV converter) % Production of the mockup mechanics (Frame & Rotating lift-platform) % Prototype of the cooling system (Refrigerating-circulator & Heat-exchanger) % Prototype of the HV control system (D-A converters for control of APD HV-chips) % Prototype of the “cosmic-ray” pre-calibration system (LTD & Trigger logic, CAMAC) % Prototype of the monitoring-calibration system (LED-flash system & Fiber optics) % Production of the readout system prototype (10-bit & 250 MHz WFDs, VXI or VME) Shipping of the Calorimeter mockup % Test & Study of Calorimeter mockup performance % *) Production cost of Calorimeter mockup is $313k. Support of the FTE scientists for study of Calorimeter mockup performance is $191k (Yale – $145k, KOPIO – $46k).

Photon Calorimeter production WBS #DescriptionSub.Mat.EDLab.Tot.Con Photon Calorimeter (2704 APD-instrumented modules, Calorimeter mechanics & Cooling system) 602, ,073*4,72625% Design of Photon Calorimeter (Conceptual design & detailed drawings) % Modification of test-equipment & the production tool for the mass-production cycle % Fabrication of 2672 “regular” Calorimeter modules ,86920% Instrumentation of 2672 “regular” Calorimeter modules by APD units (APD, preamplifier, LV-HV converter) 01, % “Cosmic ray” test of 2672 instrumented “regular” Calorimeter modules % The production of “special” Beam-Liner modules (32 APD-instrumented modules) % Photon Calorimeter mechanics (Frame, cooling & railway systems, service-equipment, etc.) % *) IHEP support of the FTE scientists for supervision and tests of modules, APD-units & APD-instrumented modules is $359k.

Cost of the module production Materials, LaborCost Materials $ scintillator tiles $ lead tiles$65,55 3. Assembling parts$37, m of WLS fiber (Kuraray Y11-200MS-1mm) $ Packing box$12.50 Labor$ Molding of the scintillator tiles$ Stamping of the lead tiles$ Formation of the WLS fibers$15.00 Assembling & Testing$ Assembling of module$ Test of module$ Packing of module$9.00 Total$ Module’s production rate is 6 modules/shift The module’s design includes 15 assembling details

Cost of the module instrumentation Materials, LaborCost Materials $ A 16 mm diameter, blue, windowless APD $ A charge-sensitive preamplifier $ A LV-HV converter, capacitors and resistors $ Assembling parts$19,00 Labor$ HV PC-board$ Preamplifier PC-board$ APD’s PC-board$ Mechanic of APD cage$30.00 Assembling & Testing$ Assembling of the APD unit $ Test of the APD unit$ Packing of the APD unit$4.50 Total$ Cost of the module’s instrumentation Module’s instrumentation rate is 6 units/shift APD LV - HV Preamp Quoted price of the LV-HV Model: C20 Quantity: 2,500 Unit Price: $ John Bianchi EMCO High Voltage Corp Ridge Road Sutter Creek, CA 95685, USA Phone: (209) Quoted price of APD Model: SD Quantity: 3,000 Unit Price: $ Paul Sharman Advanced Photonix, Inc Avenida Acaso Camarillo, CA 93012, USA Phone: (805)

Calorimeter instrumentation WBS #Description Sub.Mat.EDLab.Tot.Con Instrumentation of Photon Calorimeter (2704 channels of HV- control, monitoring, calibration & WFD-readout electronics) ,76322% Calorimeter HV control system (2740 D-A converters for control of APD HV-units) % Calorimeter “cosmic-ray” pre-calibration system (LTD & Trigger logic, VME/VXI) % Calorimeter monitoring-calibration system (2740 channels of LED-flash system) % Calorimeter readout electronics (10-bit & 250 MHz WFDs, PCI or VXI) % Calorimeter LV power supply & Racks for Electronics % HV control system for control of APD HV-units. System includes 2704 programmable D-A VME converters. A base unit is a commercial 12-bits D/A converter (XIP-TVME200/XIP-5220, produced by Xycom Automation Inc.). The production cost per channel is ~ $72. “Cosmic-ray” pre-calibration system for adjustment of APD HV, a Calorimeter pre-calibration (accuracy better than 4%) and online long-term monitoring of the APD gain (accuracy better than 1%). System is based on detection of signals from the “cosmic-ray muons”, vertically traversing Calorimeter modules, and includes 468 programmable Low-Threshold Discriminator & Trigger Programmable Logic. A base units are the commercial LTD & TPL (V814 & V495, produced by CAEN). The production cost per channel is ~ $69. Monitoring-calibration system for online short-term monitoring of the APD gain & timing. System is based on the "ultrabright LED-lamps" with an electronic method of stabilization of the light output and includes 44 special LED modules. The similar system has been developed and tested for LHCb project. We propose to adapt the LHCb system for our project. The production cost per channel is ~ $63. Calorimeter readout electronics include 176 WFDs boards and 12 crate-collector boards. The production cost per channel is ~ $301.

Assembly & test of the delivered modules WBS #Description Sub.Mat.EDLab.Tot.Con Assembly & Test of the delivered modules (APD/mod. assembly, mech. & optical tests, a “cosmic-ray” calibration) % Complete assembling, mechanical/optical test of the delivered modules 60 (Room) % “Cosmic ray” test & pre-calibration of the delivered modules % “Cosmic ray” test & pre-calibration of the delivered module include the accumulation procedure of data-base for APD- instrumented Calorimeter modules

Installation of Calorimeter System WBS #Description Sub.Mat.EDLab.Tot.Con Installation of Photon Calorimeter (modules into frames, monitoring-calibration system, readout electronics) % Installation of modules into Calorimeter frame % Installation and testing of monitoring and calibration system (44 LED boards & LV power supply, 2704 optical cables) % Installation and testing of 2704 readout-electronics channels (12 mainframes & controllers, 12 collector boards & 176 readout boards) % WBS #Description Sub.Mat.EDLab.Tot.Con Installation of Railway and Cabling systems % Installation of Calorimeter support frame % Installation of Assembling and Service system % Installation of the power supply on the Calorimeter top % Installation of the electronic racks on the Calorimeter top % Installation of The Calorimeter Mechanics (for R. Brown)

Cost Evolution for Calorimeter System 1.The old base cost for the Calorimeter System has been estimated for TDR-2001 as$4,698k 2.The new base cost for the Calorimeter system (NSF Contribution) has been estimated for WBS-2004 as$7,719k 3.The Calorimeter cost has risen due to: a)The increasing of the Calorimeter size (52  52 modules instead of 48  48 modules) $673k b)The input of the new additional expenses for:  Mockup of Calorimeter System (the former R&D program) $364k  The Wave-Form-Digitizing readout electronics (the former item ) $815k  Management & Supervision of Subsystem (a new required item) $600k  Support of IHEP group at BNL (a new required item) $469k  Travel support (a new required item) $100k NSF Contribution

Calorimeter System schedule