CMB Polarization Research Program

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Transcription:

CMB Polarization Research Program Chao-Lin Kuo, Sarah Church, John Fox, Sami Tantawi, Jeff Neilson KIPAC/SLAC Sept 13, 2010 DOE Site Visit: Sept 13-14, 2010 1

The B-mode Science The energy scale of Inflation (amplitude of the gravitational waves) The absolute mass of neutrino (down to 0.03 ev for ideal exp.) The early evolution of dark energy Bolometers E B HEMT amplifiers synchrotron (model) dust (model) Dunkley et al 2008 for r =0.01 DOE Site Visit: Sept 13-14, 2010 2

Previous work MMIC HEMT amplifier arrays (LDRD award 2008-10) Development of front-end detector technology, feeds and polarization splitters. Synergetic with SLAC expertise in RF/microwave technologies BICEP/BICEP2/Keck (Bolometric) 90/150GHz 25/24 elements 2005-2008 150GHz 256 elements Taking data (analysis partly supported by O&E) State of the art 90-GHz amplifier module Collaboration with JPL, Caltech. Uses SLAC designed microwave filters and phase switches 150GHz 256x3(5) elements Under construction (integration partly supported by O&E) DOE Site Visit: Sept 13-14, 2010 3

KIPAC has a strong heritage in the field BICEP(100/150GHz), QUaD(100/150 GHz), QUIET-I(40/90GHz) KIPAC (campus funding) participated in QUIET (Co-I Church), building the 1.4m telescope, in BICEP (Co-I Kuo), and led the QUaD experiment (PI Church) BICEP provides the best limits on inflation energy. QUaD provides best limits to the lensing signal. QUIET-I (to be published) will provide similar sensitivity to the two. Great opportunities in (i) improving the limit on inflation (ii) exploiting lensing science The next experiments: large in scale, and/or technology intense national lab involvement DOE Site Visit: Sept 13-14, 2010 4

Proposed SLAC role in QUIET: 32/44 GHz MMIC array development QUIET II -- search for gravitational waves produced by inflation (~10x sensitivity than QUIET-I) This experiment was considered by PASAG under CMB research University of Chicago directed (Winstein NSF PI). US and international involvement, including KEK (Japan) Proposal to NSF submitted 2009. No official word, but NSF is requesting more work to improve detector performance. Proposed DOE role (Fermilab and SLAC) would be to provide the detectors (MMIC amplifier modules) and other RF parts, participate in data handling and analysis. Proposed SLAC (Tantawi, Church) Develop improved Q-band (44 GHz) module using more sensitive HEMT amplifiers (JPL) Develop Ka-band (32 GHz) module Build Q-Band, Ka Band feeds and polarization splitters Complements a Fermilab proposal to provide W-band hardware (90 GHz). Builds on the previous LDRD effort to apply SLAC RF expertise to MMIC amplifiers for CMB research; funds were also used to collaborate with JPL, Fermilab on W-band module improvements for QUIET II DOE Site Visit: Sept 13-14, 2010 5

Proposed SLAC role in QUIET: 32/44 GHz MMIC array development * Q-band (44 GHz) and Ka-band (30 GHz) are crucial frequencies for foreground removal from W-band (90 GHz) data A 90 GHz prototype module (not QUIET design) for other CMB applications built by SLAC/campus in collaboration with JPL A 90 GHz hybrid built by SLAC to test QUIET modules Hardware and expertise already in place at SLAC to design, build and test prototype modules, feeds and polarization splitters DOE Site Visit: Sept 13-14, 2010 6 Block diagram for the QUIET radiometers

Lensing Science with the POLAR Array (Ten 2m-class QUIET-style telescopes; 100-220 GHz) Follow-up to SPTPOL (Argonne/U. Chicago; 2011); Complementary to QUIET-II Two surveys (i) DEEP for inflationary gravity wave (ii) WIDE survey for lensing science The Pathfinder experiment (POLAR-1) funded by the NSF (PI Kuo) 2012 deployment Taking advantage of the RF/microwave/digital electronics expertise at SLAC 3 years of technology development, 3 years of construction fielding ~ 2016 DOE Site Visit: Sept 13-14, 2010 7

Proposed POLAR Array Activities at SLAC Assessment of new detectors: Microwave Kinetic Inductance Detector (MKID) or Transition Edge Sensor integrated with MSQUID Assessment of novel focal plane architectures: Feedhorn and antenna design Development of High speed (GHz) frequency domain multiplexing Large aperture vacuum window/infrared filtering development (frequency selective surfaces) Frequency domain multiplexing electronics Currently: 256 ch. per pair of cables/card, Goal = 1,000 ch. Two possible focal plane technologies for POLAR: planar antenna(left) and feedhorn (right) DOE Site Visit: Sept 13-14, 2010 8

Manpower Previous work supported by LDRD, O&E/KIPAC Senior: Sarah Church (group leader: QUIETI/II, MMIC) John Fox (digital electronics) Jeff Neilson (RF/Microwave) Chao-Lin Kuo (group leader: BICEP2/Keck/POLAR) Sami Tantawi (group leader: RF/microwave) Postdoc: R.Walter Ogburn (BICEP2/Keck) Graduate Student: James Tolan (Keck) Issues Schedule for HEMT testing is very dependent on FY 11 funding profile SLAC personnel on HEMT program supported by LDRD that ended Sept 2010 Retention of expertise depends on FY11-FY12 funding DOE Site Visit: Sept 13-14, 2010 9