12/9/04KICP - Spin Dependent Limits 1 Can WIMP Spin Dependent Couplings explain DAMA? Limits from DAMA and Other Experiments Christopher M. Savage University.

Slides:



Advertisements
Similar presentations
MACHe3: Prototype of a bolometric detector based on superfluid 3 He for the search of non-baryonic Dark Matter C. Winkelmann J. Elbs E. Collin Yu. Bunkov.
Advertisements

Abstract Dark matter is a generic term for an exotic class of particles that might provide sufficient gravity to explain the observed movements of stars.
Dark Matter Burners at the Galactic Center Igor Moskalenko & Larry Wai (STANFORD & KIPAC)
Constraining CMSSM dark matter with direct detection results Chris Savage Oskar Klein Centre for Cosmoparticle Physics Stockholm University with Yashar.
EDELWEISS-I last results EDELWEISS-II prospects for dark matter direct detection CEA-Saclay DAPNIA and DRECAM CRTBT Grenoble CSNSM Orsay IAP Paris IPN.
Limits on the spin-dependent scattering cross section from IceCube Joakim Edsjö Presented by Carlos de los Heros.
WIMPLESS DARK MATTER Jonathan Feng University of California, Irvine 13 May 2009 UCI Joint Particle Seminar Work with Manoj Kaplinghat, Jason Kumar, John.
Dark Matter Overview Harry Nelson UCSB INPAC Oct. 4, 2003.
DARK PARTICLES Jonathan Feng, UC Irvine APS April Meeting Garden Grove, California 3 May 2011.
DARK MATTER PHENOMENOLOGY CIPANP Jonathan Feng San Diego
IDM 2002, September 4, 2002Joakim Edsjö, Paolo Gondolo, Joakim Edsjö, Lars Bergström, Piero Ullio and Edward A. Baltz.
S K The Many Uses of Upward- going Muons in Super-K Muons traveling up into Super-K from high-energy  reactions in the rock below provide a high-energy.
MACRO Atmospheric Neutrinos Barry Barish 5 May 00 1.Neutrino oscillations 2.WIMPs 3.Astrophysical point sources.
6/2/07GLCW8 1 Detecting galactic structure via the annual modulation signal of WIMPs Christopher M. Savage Fine Theoretical Physics Institute University.
Searches for Dark Matter (the Quest) Harry Nelson UCSB 2003 SLAC Summer Insitute Aug
30 Ge & Si Crystals Arranged in verticals stacks of 6 called “towers” Shielding composed of lead, poly, and a muon veto not described. 7.6 cm diameter.
Dark Matter  Evidence for Dark Matter  Dark Matter Candidates  How to search for DM particles?  Recent puzzling observations (PAMELA, ATIC, EGRET)
July 2001 Neil Spooner WIMP LIMITS Update on WIMP Direct and Indirect Searches Neil Spooner, University of Sheffield Direct Results Towards 1 Ton and why.
Luminous Dark Matter Brian Feldstein arXiv: B.F., P. Graham and S. Rajendran.
Form Factor Dark Matter Brian Feldstein Boston University In Preparation -B.F., L. Fitzpatrick and E. Katz In Preparation -B.F., L. Fitzpatrick, E. Katz.
A Direction Sensitive Dark Matter Detector
Dark Matter Search with Direction sensitive Scintillator Ⅱ Department of Physics, School of Science The University of Tokyo Y. Shimizu, M. Minowa, Y. Inoue.
The Particle Universe (continued) Joakim Edsjö Stockholm University Joakim Edsjö Stockholm University
Annual Modulation Study of Dark Matter Using CsI(Tl) Crystals In KIMS Experiment J.H. Choi (Seoul National University) SUSY2012, Beijing.
Direct Dark Matter Searches
Dark Matter Search with Direction Sensitive Scintillators NOON2004 Work Shop February 14, 2004, Odaiba H. Sekiya University of Tokyo M.Minowa, Y.Shimizu,
Dark Matter Particle Physics View Dmitri Kazakov JINR/ITEP Outline DM candidates Direct DM Search Indirect DM Search Possible Manifestations DM Profile.
Dan ToveyUniversity of Sheffield UKDMCDan Tovey Model-Independent Spin-Dependent Cross- Section Limits from Dark Matter Searches Dan Tovey, Rick Gaitskell,
Summary of indirect detection of neutralino dark matter Joakim Edsjö Stockholm University
Cosmo02, Chicago september 2002 Maryvonne De Jésus 1 DARK-MATTER Direct Detection Maryvonne De Jésus IPN-Lyon/CNRS France
Detection of Neutralino WIMP Yeong Gyun Kim (Korea Univ.) I.Evidence for Dark Matter II.Dark Matter Candidates III.Direct Detection of Neutralino WIMP.
IDM 2000, September, 2000 Joakim Edsjö, Paolo Gondolo, Joakim Edsjö, Lars Bergström, Piero Ullio and Edward A. Baltz.
Spin physics at the SMC Spin Muon Collaboration A. Magnon (CEA-Saclay/IRFU & COMPASS)
Deeply Virtual Compton Scattering on the neutron Malek MAZOUZ LPSC Grenoble EINN 2005September 23 rd 2005.
IceCube Galactic Halo Analysis Carsten Rott Jan-Patrick Huelss CCAPP Mini Workshop Columbus OH August 6, m 2450 m August 6, 20091CCAPP DM Miniworkshop.
The Tokyo Dark Matter Experiment NDM03 13 Jun. 2003, Nara Hiroyuki Sekiya University of Tokyo.
Examples of Science Generic fluxes associated with cosmic rays Generic fluxes associated with cosmic rays Astrophysics: gamma ray bursts Astrophysics:
Dark Matter Search with Direction Sensitive Scintillators The10th ICEPP Symposium February 16, 2004, Hakuba H. Sekiya University of Tokyo.
Daily Modulation of the Dark Matter Signal in Crystalline Detectors Nassim Bozorgnia UCLA TexPoint fonts used in EMF. Read the TexPoint manual before you.
NPD-2009 Conference, ITEP, Moscow, November , Spin structure of the “forward” charge exchange reaction n + p  p + n and the deuteron.
Vergados DSU11 29/09/11 Direct Dark Matter Searches- Exploiting its Various Signatures J.D. Vergados J.D. Vergados University of Ioannina, Ioannina, Greece.
Implications of CoGeNT's New Results For Dark Matter Chris Kelso University of Chicago DESY Theory Workshop Sep. 28, 2011.
Indirect Detection Of Dark Matter
V. Bertin - CPPM - MANTS Paris - Sept'10 Indirect search of Dark Matter with the ANTARES Neutrino Telescope Vincent Bertin - CPPM-Marseille on behalf.
WIMP search Result from KIMS experiments Kim Seung Cheon (DMRC,SNU)
? At Yangyang beach, looking for something in the swamp of particles and waves. 1 The recent results from KIMS Seung Cheon Kim (Seoul National University)
Indirect detection of Dark Matter with the ANTARES Neutrino Telescope Miguel Ardid on behalf of the ANTARES Collaboration Rome – September 2015.
Ray Bunker (UCSB) – APS – April 17 th, 2005 CDMS SUF Run 21 Low-Mass WIMP Search Ray Bunker Jan 17 th -DOE UCSB Review.
Keegan Stoner Columbia High School. dark matter Obeying Inverse Square Law Outer stars orbit too fast what we should seewhat we actually see.
Potential for Dark Matter Direct Searches in Australia Professor Elisabetta Barberio The University of Melbourne.
Limits on Low-Mass WIMP Dark Matter with an Ultra-Low-Energy Germanium Detector at 220 eV Threshold Overview (Collaboration; Program; Laboratory) Physics.
Recent developments in Dark Matter Malcolm Fairbairn.
18-20 May 2015, Underground Science Conference, SDSM&T 1John Harton, Colorado State University Recent Results from the DRIFT Directional DM Experiment.
From Edelweiss I to Edelweiss II
KIMS & Inelastic DarK Matter(iDM)
Christopher M. Savage Fine Theoretical Physics Institute
WIMP direct detection:
Felix Kahlhoefer Dark LHC 27 September 2014 Oxford
Irina Bavykina, MPI f. Physik
Outline Find a signal, have champagne Calculating the (relic) density
Direct Detection of Dark Matter
John Kelley IceCube Journal Club 27 February 2008
Christopher M. Savage University of Michigan – Ann Arbor
Search for Dark Matter physics 805 fall 2008.
Dark Matter Search with Stilbene Scintillator
BACKGROUND STUDY IN CRESST
Detecting WIMPs using Au-DNA Microarrays
Yue, Yongpyung, Korea Prospects of Dark Matter Search with an Ultra-Low Threshold Germanium Detector Yue, Yongpyung, Korea
- - Interpreting DAMA with Inelastic Dark Matter:
The Estimated Limits For A 5g LE-Ge Detector
Presentation transcript:

12/9/04KICP - Spin Dependent Limits 1 Can WIMP Spin Dependent Couplings explain DAMA? Limits from DAMA and Other Experiments Christopher M. Savage University of Michigan – Ann Arbor Katie Freese (University of Michigan) Paolo Gondolo (University of Utah) astro-ph/ to appear in Phys. Rev. D

12/9/04KICP - Spin Dependent Limits 2 Overview DAMA/NaI positive signal and CDMS II null result are not compatible for spin-independent couplings (assuming the standard halo model) With exceptions – Gelmini & Gondolo (2004) WIMPs may alternatively have spin-dependent couplings; examine if this case has parameter space consistent with the DAMA signal and the null results of other experiments P. Ullio, M. Kamionkowski, and P. Vogel, JHEP 0107, 044 (2001). F. Giuliani, arXiv:hep-ph/

12/9/04KICP - Spin Dependent Limits 3 Direct Detection Elastic scattering of WIMP off detector nuclei Rate: Recoils: Efficiencies, quenching, multiple elements CDMS, CRESST, Edelweiss, SIMPLE, ZEPLIN, NAIAD, etc. Detector WIMP Scatter Goodman &Witten (1985)

12/9/04KICP - Spin Dependent Limits 4 Annual Modulation Earth’s motion With disk (June) Against disk (December) Modulation Amplitude: DAMA (R. Bernabei et al., 2003) N ma = ± /kg/day/keVee (2-6 keVee) Elegant V, etc. 30 km/s 232 km/s WIMP Halo Wind Drukier, Freese & Spergel (1986)

12/9/04KICP - Spin Dependent Limits 5 Indirect Detection Gravitational capture  Annihilation Neutrino-induced muons Sun: WIMP-proton cross-section Baksan, Super-K, ANTARES, etc. WIMP  anti-WIMP, asymmetry Halo model dependence WIMP Silk, Olive & Srednicki (1985) Freese (1986)

12/9/04KICP - Spin Dependent Limits 6 Spin-Dependent Cross-Section Nuclear structure functions Odd proton: S pp >> S nn Odd neutron: S nn >> S pp Finite momentum transfer q = 0   SD  (  a p +  a n ) 2  ( a p + a n ) 2 q  0 : larger masses

12/9/04KICP - Spin Dependent Limits 7 Spin-Dependent Limits Null Result: Positive Signal: A, B, C Depend on detector parameters, WIMP mass Relative magnitude dependent upon S pp, S pn, S nn Conics Parallel lines Ellipse OGMEOGM q  0 Multiple Elements

12/9/04KICP - Spin Dependent Limits 8 Spin-Dependent Limits Proton only coupling ( a n = 0 ) Neutron only coupling ( a p = 0 ) General couplings

12/9/04KICP - Spin Dependent Limits 9 WIMP-Proton Cross-Section Limits (for a n = 0 ) NAIAD, etc.

12/9/04KICP - Spin Dependent Limits 10 WIMP-Neutron Cross-Section Limits (for a p = 0 ) Zeplin I (Preliminary) V. Kudryavtsev et al., IDM 2004 a p = -3

12/9/04KICP - Spin Dependent Limits 11 Allowed Couplings

12/9/04KICP - Spin Dependent Limits 12 Allowed Couplings (Low Mass)

12/9/04KICP - Spin Dependent Limits 13 Results WIMP masses of 5-13 GeV: Parameter spaces still remain which are compatible with DAMA signal and all null results Allows for comparable proton and neutron couplings (e.g. a p = a n = 2.5 at 8 GeV) All solutions have No MSSM candidates  LEP: M  > 30 GeV(Abbiendi et al. [OPAL], 2000)

12/9/04KICP - Spin Dependent Limits 14 Results (12/8) WIMP masses of 5-10 GeV: Super-K extended analysis S. Desai for Super-K (private correspondence)

12/9/04KICP - Spin Dependent Limits 15 Conclusions DAMA can still be explained by a WIMP with spin-dependent couplings, although at masses too low for MSSM. Extending analysis of Super-K (Baksan) results to lower masses could confirm or rule out the remaining spin-dependent parameter space for DAMA (for standard halo) – (IN PROGRESS). Odd-Z experiments (CRESST I, SIMPLE/PICASSO, COUPP,etc.) will also be able to examine this remaining space. Thresholds more important than exposure