Implications of CoGeNT's New Results For Dark Matter Chris Kelso University of Chicago DESY Theory Workshop Sep. 28, 2011.

Slides:



Advertisements
Similar presentations
Electron Recoil & Dark Matter Direct Detection
Advertisements

High Energy Gamma Ray Group
Does the Fornax dwarf spheroidal have a central cusp or core? Collaborators: Justin Read, Ben Moore, Joachim Stadel, Marcel Zemp and George Lake Tobias.
Survival or disruption of CDM micro-haloes: implications for detection experiments Collaborators: Oleg Y. Gnedin, Ben Moore, Jürg Diemand and Joachim Stadel.
Constraining CMSSM dark matter with direct detection results Chris Savage Oskar Klein Centre for Cosmoparticle Physics Stockholm University with Yashar.
Combined Energy Spectra of Flux and Anisotropy Identifying Anisotropic Source Populations of Gamma-rays or Neutrinos Sheldon Campbell The Ohio State University.
Tensions in DM Direct Detection Qing Wang Tsinghua Univ. Beijing 2 nd Internationl Workshop on 2 nd Internationl Workshop on Particle Physics and Cosmology.
Dark Matter Annihilation in the Milky Way Halo Shunsaku Horiuchi (Tokyo) Hasan Yuksel (Ohio State) John Beacom (Ohio State) Shin’ichiro Ando (Caltech)
Numerical issues in SPH simulations of disk galaxy formation Tobias Kaufmann, Lucio Mayer, Ben Moore, Joachim Stadel University of Zürich Institute for.
Ali Hanks - APS Direct measurement of fragmentation photons in p+p collisions at √s = 200GeV with the PHENIX experiment Ali Hanks for the PHENIX.
Larry Wai SLAC Representing the GLAST LAT Collaboration Dark Matter and New Physics working group KIPAC-SLAC GLAST Physics: Dark Matter and New Physics.
Energy Reconstruction Algorithms for the ANTARES Neutrino Telescope J.D. Zornoza 1, A. Romeyer 2, R. Bruijn 3 on Behalf of the ANTARES Collaboration 1.
Quasar Clustering (A Dabbler’s Perspective) CCAPP AGN Workshop: Oct. 2, 2007 Adam Lidz (CfA) Thanks to: Phil Hopkins, Lars Hernquist, T.J. Cox, and others….
Cosmological N-body simulations of structure formation Jürg Diemand, Ben Moore and Joachim Stadel, University of Zurich.
Modeling the 3-point correlation function Felipe Marin Department of Astronomy & Astrophysics University of Chicago arXiv: Felipe Marin Department.
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.
12/9/04KICP - Spin Dependent Limits 1 Can WIMP Spin Dependent Couplings explain DAMA? Limits from DAMA and Other Experiments Christopher M. Savage University.
1 TEV PA Meeting July 2009 Preliminary Fermi-LAT Limits on High Energy Gamma Lines from WIMP Annihilation Yvonne Edmonds representing the Fermi-LAT Collaboration.
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.
RF background, analysis of MTA data & implications for MICE Rikard Sandström, Geneva University MICE Collaboration Meeting – Analysis session, October.
1 The Study of D and B Meson Semi- leptonic Decay Contributions to the Non-photonic Electrons Xiaoyan Lin CCNU, China/UCLA for the STAR Collaboration 22.
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.
T.C. Jude D.I. Glazier, D.P. Watts The University of Edinburgh Strangeness Photoproduction At Threshold Energies.
Identified Particle Ratios at large p T in Au+Au collisions at  s NN = 200 GeV Matthew A. C. Lamont for the STAR Collaboration - Talk Outline - Physics.
Annual Modulation Study of Dark Matter Using CsI(Tl) Crystals In KIMS Experiment J.H. Choi (Seoul National University) SUSY2012, Beijing.
High-energy electrons, pulsars, and dark matter Martin Pohl.
Dark Matter Search with Direction Sensitive Scintillators NOON2004 Work Shop February 14, 2004, Odaiba H. Sekiya University of Tokyo M.Minowa, Y.Shimizu,
Gaitskell Majorana - DM Summary of Issues Rick Gaitskell Brown University, Department of Physics see information at v8.
Dark Matter Particle Physics View Dmitri Kazakov JINR/ITEP Outline DM candidates Direct DM Search Indirect DM Search Possible Manifestations DM Profile.
1 The results of the study of dp-elastic scattering at the energies from 500 to 1000 MeV/nucleon A.A Terekhin et al. Joint Institute for Nuclear Research,
Status of Beams L. Page & C. Barnes et al.. Why do we need to model the beams? Computing solid angles (T_jup) & windows from the raw maps depends on the.
Future work Kamioka Kyoto We feel WIMP wind oh the earth NEWAGE ~ Direction Sensitive Direct Dark Matter Search ~ Kyoto University Hironobu Nishimura
The Tokyo Dark Matter Experiment NDM03 13 Jun. 2003, Nara Hiroyuki Sekiya University of Tokyo.
Analysis methods for Milky Way dark matter halo detection Aaron Sander 1, Larry Wai 2, Brian Winer 1, Richard Hughes 1, and Igor Moskalenko 2 1 Department.
Anisotropies in the gamma-ray sky Fiorenza Donato Torino University & INFN, Italy Workshop on High-Energy Messengers: connecting the non-thermal Extragalctic.
Daily Modulation of the Dark Matter Signal in Crystalline Detectors Nassim Bozorgnia UCLA TexPoint fonts used in EMF. Read the TexPoint manual before you.
June 6, 2006 CALOR 2006 E. Hays University of Chicago / Argonne National Lab VERITAS Imaging Calorimetry at Very High Energies.
Cosmology and Dark Matter IV: Problems with our current picture Jerry Sellwood.
WIMP search Result from KIMS experiments Kim Seung Cheon (DMRC,SNU)
Kamioka Kyoto We feel WIMP wind on the earth NEWAGE Direction-sensitive direct dark matter search with μ-TPC * 1.Dark.
Search for the  + in photoproduction experiments at CLAS APS spring meeting (Dallas) April 22, 2006 Ken Hicks (Ohio University) for the CLAS Collaboration.
A maximum likelihood analysis of the CoGeNT public dataset Chris Kelso University of Utah Astroparticle Physics 2014 June 25, 2014 Work in progress with:
RF background, update on analysis Rikard Sandström, Geneva University MICE Analysis phone conference, October 30, 2007.
Measuring Oscillation Parameters Four different Hadron Production models  Four predicted Far  CC spectrum.
Belle General meeting Measurement of spectral function in the decay 1. Motivation 2. Event selection 3. mass spectrum (unfolding) 4. Evaluation.
WMAP The Wilkinson Microwave Anisotropy Probe Universe.
PyungChang 2006/02/06 HYUNSU LEE CsI(Tl) crystals for WIMP search Hyun Su Lee Seoul National University (For The KIMS Collaboration)
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.
KIMS & Inelastic DarK Matter(iDM)
Topics on Dark Matter Annihilation
Christopher M. Savage Fine Theoretical Physics Institute
Ben Morgan & Anne Green University of Sheffield
Recent Results of Point Source Searches with the IceCube Neutrino Telescope Lake Louise Winter Institute 2009 Erik Strahler University of Wisconsin-Madison.
Fermi LAT Limits on High-Energy Gamma Lines from WIMP Annihilation
Electron Observations from ATIC and HESS
Irina Bavykina, MPI f. Physik
Direct Detection of Dark Matter
Search For Pentaquark Q+ At HERMES
Christopher M. Savage University of Michigan – Ann Arbor
Search for Dark Matter physics 805 fall 2008.
Some issues in cluster cosmology
An Analytic Approach to Assess Galaxy Projection Along A Line of Sight
Volume 111, Issue 2, Pages (July 2016)
Detecting WIMPs using Au-DNA Microarrays
Experiment (Jlab Exp : CLAS eg3)
- - Interpreting DAMA with Inelastic Dark Matter:
Presentation transcript:

Implications of CoGeNT's New Results For Dark Matter Chris Kelso University of Chicago DESY Theory Workshop Sep. 28, 2011

Outline Some background information to set the stage First 15 months of CoGeNT data TAUP updates Conclusions and Outlook

Simulations of the Velocity Distribution of Dark Matter in Our Galaxy Michael Kuhlen, Neal Weiner, Jurg Diemand, Piero Madau, Ben Moore, Doug Potter, Joachim Stadel, Marcel Zemp: JCAP 1002 (2010) 030

Dark Matter Should Have Annual Modulation

DAMA (NaI) Claim Rita Bernabeia, et. al. Nuclear Physics B (Proc. Suppl.) 212–213 (2011) 307–314

Outline Some background information to set the stage First 15 months of CoGeNT data TAUP updates Conclusions and Outlook

A little more than one year of CoGeNT (Ge) data Still consistent with DAMA modulation for a large quenching factor Well fit by 7 GeV WIMP with  n =1.2* cm 2

Modulation in the data We find modulation of 16±5% at the 2.7 sigma level The best fit to the peak is found to be at April 18±16 days DAMA peak is May 16±7 (2- 4 keVee range) or May 26±7 (2-6 keVee range) N-body simulations of galaxy formation find 68% of models have a peak within 20 days of late May/early June

Spectrum of Modulation There is more modulation at higher energies than predicted in the standard halo model

CoGeNT and DAMA modulation amplitudes are consistent quenching factor=0.5 Independent of astrophysical uncertainties, the gray error bars are the what the DAMA signal would look like at the CoGeNT detector Red error bars are the CoGeNT modulation for maximum phase May 26 (SHM). Blue error bars are the best fit maximum phase for CoGeNT (April 18). quenching factor=0.25

Outline Some background information to set the stage First 15 months of CoGeNT data TAUP updates Conclusions and Outlook

TAUP Update: CoGeNT Found quite small quenching factor for Na Also, no channeling found This is the fraction of the previously shown excess events that are not surface events.

TAUP Update: CRESST (CaWO 4 ) M1 rejects background only hypothesis at 4.7  M2 rejects background only hypothesis at 4.3  One module All 8 modules e and  backgrounds

Current Status of Direct- Detection of Low-Mass Wimps The different colored lines for the surface event rejection at CoGeNT above produce the given contours on the right, with solid the 90% and dashed the 99% confidence region.

Conclusions and Future Outlook Although many questions still exist, the dark matter interpretation of the CoGeNT excess is still viable. The updated overall spectrum is in the region of interest for the new CRESST results. The annual modulation at DAMA and CoGeNT are consistent, but much larger than expected for a simple Maxwellian Halo. Can this be reconciled? CoGeNT is continuing to take data (after the fire) and we look forward to seeing if the modulation signal continues to increase in significance CDMS is undertaking an annual modulation analysis First C4 detector to be constructed soon