Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV1 PACS Test Cryostat, OGSE and MGSE Gerd Jakob MPE.

Slides:



Advertisements
Similar presentations
PACS SVR22/23 June 2006 Erich Wiezorrek, MPE Test Facility Capabilities EGSE.
Advertisements

9 th /July/2013 Amaldi 10 C3 15:24~15:42 N.KIMURA/KEK Progress on the Cryogenic System for the Interferometric Cryogenic Gravitational Wave Telescope,
PACS IHDR 12/13 Nov 2003 Overview and Mechanical/Thermal IFs to FPU 1 MPE J. Schubert PACS IHDR.
Área de Instrumentación NAHUAL Mechanical Concept Current Status F. Javier Fuentes Instituto de Astrofísica de Canarias September
Yu. I. BARANOV and W. J. LAFFERTY Optical Technology Division Optical Technology Division National Institute of Standards and Technology, Gaithersburg,
SXC meeting SRON, July 19-20, SXC meeting 19-20/07/2007 Alignment Positioning of mirror with respect to detector (internal). Positioning of total.
PACS IHDR 12/13 Nov 2003 Photoconductor Detector Modules 1 IHDR ASTEQ-GmbH Germany Peter Dinges, Michael Harr, Heribert Krüger, Hilmar Richter, Bernd Zimmermann.
PACS IBDR 27/28 Feb 2002 Photoconductor Detector Arrays1 IBDR Hilmar Richter ANTEC-GmbH Germany Günter Bollmann, Peter Dinges, Otto Frenzl, Heidrun Köppen,
PACS IIDR 01/02 Mar 2001 FPU Struts, Filter Wheel, Calibration Source1 D.Kampf, Dr. Roland Graue Kayser-Threde GmbH.
Progress in water vapour spectroscopy at RAL Dr Robert McPheat CAVIAR Progress Meeting University of Leicester, 24/09/2009.
Radio Telescopes. Jansky’s Telescope Karl Jansky built a radio antenna in –Polarized array –Study lightning noise Detected noise that shifted 4.
Summer Fun with Optics Stephen Muchovej UC Berkeley CARA - REU Program.
Internal Cryomodule Instrumentation Sensors, Actuators, Heaters, and Wiring ERL Main Linac Cryomodule 9/5/2012 Peter Quigley Internal Design Review.
ISHELL Design Review Cryostat & Optics Bench Dan Kokubun 9/11/2013.
SPL cryo-module conceptual design review Cavity, helium vessel and tuner assembly N. Valverde, G. Arnau, S. Atieh, I. Aviles, O. Capatina, M. Esposito,
Eddington Kick-Off. Vienna, September 17th, 2001 T.Muñoz/C.Laviada (INTA) 1 EddiCam: The Eddington Photometric Camera Preliminary Design Layout.
PACS IHDR 12/13 Nov 2003 PACS FPU Optics: Concept and Alignment R. Graue, D. Kampf Kayser-Threde.
PACS IHDR MPE 12/13 November 2003 AIV 1 PACS IHDR Integration, Qualification and Testing Reinhard Katterloher.
PACS IBDR 27/ BOLC/BOLA1 BOLC / BOLA SAp/DAPNIA/DSM/CEA C. CARA WE Design Team: A. BOUERE - N. DEVIN - G. DHENAIN - E. DOUMAYROU M. SEYRANIAN -
Cryogenics for LCGT Technical Advisory Committee for LCGT ICRR SUZUKI, Toshikazu High Energy Accelerator Research Organization.
Status and Integration of the Spectrometer Solenoid Magnets Steve Virostek Lawrence Berkeley National Lab MICE RAL June 15, 2007.
Corner Raft Test Station Kirk Arndt, Ian Shipsey Purdue University LSST Camera Workshop SLAC Sept , 2008.
The Field Camera Unit Project definition, organization, planning S. Scuderi INAF – Catania.
Scisat Test Readiness Review Ground Support Equipment Status University of Toronto 29 January 2003.
Universities Space Research Association Page 1 HAWC Optical and Photometric Specifications 27 July 2007.
Engineering: NAHUAL Ireland Acquisition Camera, Focal Plane Mechanisms and Layout Tully Peacocke, National University of Ireland Maynooth Carlos del Burgo,
PACS IBDR 27/28 Feb 2002 PACS Photometer1 PACS PHOTOMETER J.L Auguères L.Rodriguez CEA/DSM/DAPNIA Service d’Astrophysique.
1 FRIDA Engineering Status 17/05/07 Engineering Status May 17, 2007 F.J. Fuentes InFraRed Imager and Dissector for Adaptive Optics.
PACS IIDR 01/02 Mar 2001 Instrument Interfaces1 PACS FPU Opto-mechanical Design Overview and Interfaces J. Schubert MPE.
PACS IIDR 01/02 Mar 2001 FPFPU Alignment1 D. Kampf KAYSER-THREDE.
PACS IHDR 12/13 Nov 2003 PACS FPU FPU Structure, Baffle and Straylight R. Graue, D. Kampf Kayser-Threde.
1 of 28 A design study of a Cryogenic High Accurate Derotator.
High Resolution Echelle Spectrograph for Chinese Weihai 1m Telescope. Leiwang, Yongtian Zhu, Zhongwen Hu Nanjing institute of Astronomical Optics Technology.
Herschel Space ObservatoryPACS Science Verification ReviewMPE 22/23 June 2006 GJ / MPE 1 PACS Test Facility Capabilities – Cryogenics and OGSE Gerd Jakob.
PACS IHDR 12/13 Nov 2003 IBDR Close-out1 Close-out of IBDR Recommendations A. Poglitsch.
PACS SVR 22/23 June 2006 PACS FPU Subunits1 FM FPU Subunits A. Poglitsch.
PACS IIDR ESTEC 01/02 March 2001 OGSE 1 PACS Instrument Intermediate Design Review (IIDR) Reinhard Katterloher OGSE.
PACS SVR: 22/23 June 2006 MPE - Ge:Ga Detector Array1/16 Ch. Hartinger / L. Barl Ge:Ga Detector Arrays.
Optimisation of the PACS Chopper Markus Nielbock Ulrich Klaas Jeroen Bouwman Helmut Dannerbauer Jürgen Schreiber Ulrich Grözinger.
PACS IHDR 12/13 Nov 2003 Filters1 N. Geis MPE. PACS IHDR 12/13 Nov 2003 Filters2 PACS Filter Scheme Filter scheme with 5 or 6 filters in series in each.
Thoughts on the Design of a WVR for Alan Roy (MPIfR) the Twin Telescope at Wettzell.
PACS IIDR ESTEC 01/02 March 2001 System Engineering 1 PACS Instrument Intermediate Design Review (IIDR) Reinhard Katterloher System Engineering DDVP, Model.
PACS SVR 2 18 Jan 2007 FM ILT: Spectrometer1 Spectrometer Performance H. Feuchtgruber, T. Müller, A. Poglitsch.
PACS IHDR MPE 12/13 November 2003 System Engineering 1 PACS IHDR Model Philosophy, Budgets, Interfaces and IID-B Reinhard Katterloher.
PVPhotFlux PACS Photometer photometric calibration MPIA PACS Commissioning and PV Phase Plan Review 21 st – 22 nd January 2009, MPE Garching Markus Nielbock.
PACS IHDR MPE, 12/13 Nov 2003 Overall Schedule1 Otto H. Bauer MPE Garching.
Solar orbiter_______________________________________________.
CM27 – 8 th July 2010 LH2 System Progress and Future Plans M Hills T Bradshaw M Courthold I Mullacrane P Warburton.
1DSM/DAPNIA/SAp – J. MartignacPACS - IHDR - MPE – Nov. 12 – 13, 2003 PACS – IHDR PhFPU Design J. Martignac CEA/DSM/DAPNIA Service d’Astrophysique.
Extended Detector Cutoff Considerations WFIRST Project Office May
PACS IBDR MPE 27/28 Feb 2002 AIV 1 PACS IBDR Test Cryostat and OGSE Gerd Jakob MPE.
Installation of the T600 at Fermilab CSN2, September 22,
COB Integration and Test Nov. 15, 2010 Roy Esplin Mike Watson Monte Frandsen.
PACS IIDR 01/02 Mar 2001 Optical System Design1 N. Geis MPE.
Date 2007/Sept./12-14 EDR kick-off-meeting Global Design Effort 1 Cryomodule Interface definition N. Ohuchi.
1 Kazuhiro Yamamoto Institute for Cosmic Ray Research The university of Tokyo LCGT internal review (Cryogenic payload) 30 January 2012.
CW Cryomodules for Project X Yuriy Orlov, Tom Nicol, and Tom Peterson Cryomodules for Project X, 14 June 2013Page 1.
Possible italian contributions to the IAXO telescope structure M.Riva.
Lessons from CLIO Masatake Ohashi (ICRR, The University of TOKYO) and CLIO collaborators GWADW2012 Hawaii 2012/5/16.
Integration and Cold Testing of the CW ERL Cryomodule at Daresbury Shrikant Pattalwar ASTeC, STFC, Daresbury Laboratory (UK) On behalf of ERL Cryomodule.
Testing of Highly Accurate Blackbodies Harri Latvakoski Mike Watson Shane Topham Mike Wojcik SDL/
PACS IIDR ESTEC 01/02 March 2001 Budgets and Interfaces 1 PACS Instrument Intermediate Design Review (IIDR) Reinhard Katterloher Budgets and Interfaces.
ILC : Type IV Cryomodule Design Meeting Main cryogenic issues, L. Tavian, AT-ACR C ryostat issues, V.Parma, AT-CRI CERN, January 2006.
Integral Field Spectrograph Opto-mechanical concepts PIERRE KARST, JEAN-LUC GIMENEZ CPPM(CNRS),FRANCE.
Teleconf ACS – FREIA 28th March 2017
Mathieu, Gabriel, Max, Spyros, Guillaume
iSHELL Design Review Cryostat & Optics Bench
Intra-pixel Sensitivity Testing Preliminary Design Review
SNS PPU Cryomodule Instrumentation
SNS PPU Cryomodule Instrumentation
Presentation transcript:

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV1 PACS Test Cryostat, OGSE and MGSE Gerd Jakob MPE

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV2 Test Equipment and OGSE: Overview

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV3 PACS test cryostat specifications Two liquid helium reservoirs: 70l for 4.2K and 13l for 1.7K level 90l liquid nitrogen for thermal shielding Optical bench diameter 1060mm, covered by 4.2K thermal shield with 900mm available height for PACS FPU + test optics Hold time of each temperature level ~48 hours with full PACS operation (goal) Specified mechanical, optical and electrical interfaces to PACS FPU and test equipment 2 FIR windows for calibration sources input and for optical alignment checks 2 window shutter/filter mechanisms at 77K shield Cryogenic filters at 77K and 4.2K shields to provide predicted Herschel telescope background Representative cryogenic harness with ~1100 wires shields for FPU, ~124 wires + 20 shields for cryostat and test equipment Specific mounting rack for different cryostat operation positions, e.g. 30° tilt for cooler recycling; 90° tilt for shield mounting and cryostat transport. Provide clean instrument environment, payload integration in cleanroom class 1000

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV4 Test cryostat status Cryostat built at Cryovac GmbH; MPE’s design specifications fulfilled Cryo harness built, integrated with cryostat and tested by MPE in cw31/03 Several cryo tests performed: -hold time 77K level ~57h -hold time pumped 1.7K level >60h, lowest temperature 1.4K -hold time 4.2K level ~56h, but only without 4.2K-shield! Cryostat failed last acceptance test with 4.2K-shield in cw 42/03 Optical bench temperature too high (6,3K); 4.2K LHe-tank hold time ~24 hours (48h goal); shield temp. 25K Heat dissipation on 4.2K level ~1W higher than without 4.2K-shield Investigations on a presumable thermal link ongoing; modifications and amendments in progress Delivery to MPE for optical alignment of test optics with STM after successful acceptance test, end Nov.03 PACS cryostat in different positions: Overall height ~2400mm, Mounting rack ~1400mm x 2100mm FPU integrationevacuationoperation with 20°tilt optical bench dia.1060mmcryostat transportation

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV5 Test optics and Herschel telescope simulator specifications Herschel telescope simulator test optics to be integrated with test cryostat, aligned to PACS FPU and operated at 4.2K Image quality goal: 3µm wave front error (  PACS), field distortion less than 1 blue photometer detector pixel for the total chopped PACS field of view Design of a complex opto-mechanical imaging and baffling system, internal and external calibration sources Provision of FIR background based on Herschel telescope temperature of 70K-90K 3 cryogenic mechanisms for different internal and external calibration source selection 2 internal calibrated cryogenic blackbodies TUFIR wavelength calibrator in combination with an internal integrating sphere TUFIR input in combination with a point source simulator External blackbody, extended or with point source simulator Water vapor absorption cell for initial wavelength calibration

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV6 Test optics schematic and design 3D design of test optics and Herschel telescope simulator

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV7 Test optics status Herschel telescope simulator test optics designed, built and assembled at MPE Rigid tripod structure with optics base plate and stray light reducing housing to be integrated with test cryostat Interfaces to cryostat, calibration sources and test equipment complete Test optics harness parts under final assembly Temperature sensors, positions sensors and read outs implemented Test equipment available Integration of 10 mirrors, integrating sphere, mechanisms and optical alignment is ongoing Optical alignment accuracy goal of test optics to PACS FPU within +/- 1 arcmin by means of a minimum of 3 cryogenic tests to be performed in test cryostat

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV8 Test optics status ctd. FIR black coating according KT72- process applied to test optics housing and components 7 temperature sensors on motors, pupil P1, mirrors, structure Thermal I/F and cooling straps for PACS FPU manufactured and available The MPE developed cryo torquer motor was successfully operated at 4.2K Motor life time test with gear box successful at 4.2K Chopper wheel performance test at 4.2K to be repeated with reduced friction of angular ball bearing in order to achieve the goal for chopping frequencies up to 2Hz Flip mirror mechanisms to be tested at 4.2K in combination with motor/gear Alignment and integration is performed in cleanroom class 1000 Test optics and PACS FPU STM Cryo flip mirror Mechanism1 assembly with gear box and cryo torquer motor

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV9 Internal calibration source: cryogenic blackbody Design and manufacturing of 2 identical cryogenic blackbodies for absolute flux calibration and background; devices selected or chopped by test optics chopper wheel 18mm opening of cavity adapted to test optics pupils P4 and P5 FIR coating acc. KT72-process applied Operational temperature range 4.2K – 80K Typical temperatures of 10K – 60K can be stabilized within 35 minutes by a heater power of 100mW with controller LS370 Power dissipation typically 12.5mW at 30K and 35mW at 50K Absolute temperature accuracy +/-20mK at 20K and +/-35mK at 50K with integrated calibrated temperature sensor CX-1070 and contr. LS370 Thermal stability requirement of <+/-1.25mK at 30K and <+/-5mK at 50K feasible Status: final assembly ongoing, test equipment available, tests at cryogenic temperature to be performed during test optics alignment checks MPE design of a cryogenic blackbody

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV10 External calibration source: TUFIR and I/F TUFIR (tunable high resolution coherent FIR radiation source) used for final wavelength calibration and spectral ghost detection I/F implemented in test optics design; input through cryostat windows 1 and 2; selected by cryo-mechanisms Window 1: -4.2K-aperture for 300K background reduction -f/4.4 light cone for TUFIR beam collection -integrating sphere dia. 80mm for homogenous illumination of pupil P3 and for filling the telescope simulator beam -background heater to simulate Herschel telescope temperatures of 70K-90K Window 2: -point source mask in combination with TUFIR located in external focus F2; PACS chopped field of view completely covered -Herschel telescope background simulated by attenuation filter sets on different temperature levels Status: test optics I/F available, TUFIR I/F to be defined Test optics with integrating sphere, 4.2K-aperture and background heater for TUFIR input through cryostat window1

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV11 External calibration source: blackbody External blackbody in combination with scannable point source simulator for point spread function and grating alignment investigations Design of X/Y translation stage and point source simulator finished Scanning area covers the complete field of external focus F2 Reproducibility goal 20 µm Point source simulation pattern to be PC controlled and synchronized with PACS data read-out Calibrated blackbody source and controller available, temperature range 300K – 750K, maximum cavity opening dia. 25mm Hot plate alternatively foreseen Status: manufacturing has been started Schematic of external blackbody set-up (above) and 3D design with point source mask on X/Y translation stage, aligned with cryostat window2

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV12 External calibration source: water vapor source Design of a water vapor absorption cell for initial wavelength calibration 300mm absorption path length and typical water vapor pressure of 10-25mbar provide appropriate absorption lines in the PACS wavelength range Alternative gas CO foreseen Hot plate provides background, temperature range 300K – 600K Alignment with external focus F2 at test cryostat window 2 Status: final design finished end of Nov.03 schematic of the water vapor source set-up (above) and 3D design of absorption cell aligned with cryostat window 2

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV13 Mechanical ground support equipment MGSE Crane with fine drives installed in MPE PACS cleanroom class 1000, 07/03 Hoisting device for PACS FPU available, used for STM integration 06/03 Pumping unit available, containing oil free vacuum and helium pumps, pressure gauges, gas flow meters and vacuum assembly; 10/03

Test Cryostat, OGSE and MGSE PACS IHDR: MPE 12/13 Nov 2003 AIV14 Mechanical ground support equipment MGSE ctd. PACS FPU class 1000 transportation container with shock absorber, shock and tilt indicators, venting ports; design complete, manufacturing starts 11/03