GAPS: A Novel Indirect Search for Dark Mater

Similar documents
GAPS: A Dedicated Search for

GAPS: An Indirect DM Search Using Anti-Deuterons

University of California, Los Angeles, CA 90095, USA

The pgaps experiment: an engineering balloon flight of prototype GAPS

GAPS Antiproton and Antideuteron Measurement for Indirect Dark Matter Search

GAPS antiproton and antideuteron measurement for indirect dark matter search

arxiv: v1 [physics.ins-det] 17 Dec 2018

The GAPS Experiment to Search for Dark Matter using Low-energy Antimatter. Japan Aerospace Exploration Agency 3. Pennsylvania State University 6

Astrophysical Signatures of

A Measurement of Atomic X-ray Yields in Exotic Atoms and Implications for an Antideuteron-Based Dark Matter Search

Geomagnetic cutoff calculations for the interpretation of low-rigidity cosmic-ray antiparticle measurements

Lecture 14. Dark Matter. Part IV Indirect Detection Methods

Particle Astrophysics at the TeV Scale

Philip von Doetinchem

Payload for Antimatter Matter Exploration and Light-nuclei Astrophysics. PAMELA MissioN 17 December 2010 Prepared by FatiH KAYA

PHY326/426 Dark Matter and the Universe. Dr. Vitaly Kudryavtsev F9b, Tel.:

Space-based Detection of Antimatter with a Novel Detector Based on X-ray Deexcitation of Exotic Atoms and Applications to Dark Matter Searches

Indirect Search for Dark Matter with AMS-02

Current and Future balloon and space experiments L. Derome (LPSC Grenoble) Tango, May 4-6th, 2009

Dual MeV Gamma-Ray and Dark Matter Observatory - GRAMS Project

Antimatter and DM search in space with AMS Introduction. 2 Cosmology with Cosmic Rays

DIETRICH MÜLLER University of Chicago SLAC SUMMER INSTITUTE 2011

Measurement of the Cosmic-ray Antiproton spectrum in the range 0.12 to 0.4 GeV with BESS-Polar II

Dark Matter Searches with AMS-02. AMS: Alpha Magnetic Spectrometer

Indirect Dark Matter Detection

The PAMELA Satellite Experiment: An Observatory in Space for Particles, Antiparticles and Nuclei in the Cosmic Rays

Eun-Suk Seo Inst. for Phys. Sci. & Tech. and Department of Physics University of Maryland. Cosmic Rays Eun-Suk Seo

Dennis Silverman UC Irvine Physics and Astronomy Talk to UC Irvine OLLI May 9, 2011

The Search for Dark Matter. Jim Musser

Experimental review of high-energy e e + and p p spectra

Cosmic Ray panorama. Pamela.roma2.infn.it PAMELA (2012) Experimental challenges : e + /p ~ 10-3 e + /e - ~ 10-1

THE AMS RICH COUNTER

Searching for Dark Matter Annihilation from Milky Way Dwarf Spheroidal Galaxies. Present status and future prospects

Antimatter and dark matter: lessons from ballooning.

Eun-Suk Seo Inst. for Phys. Sci. & Tech. and Department of Physics University of Maryland

SUPPLEMENTARY INFORMATION

Eun-Suk Seo Inst. for Phys. Sci. & Tech. and Department of Physics University of Maryland

Search for exotic process with space experiments

Rare Components in Cosmic Rays with AMS-02

Antimatter in Space. Mirko Boezio INFN Trieste, Italy. PPC Torino July 14 th 2010

Dark matter in split extended supersymmetry

P A M E L A Payload for Antimatter / Matter Exploration and Light-nuclei Astrophysics

Dark Matter Models. Stephen West. and. Fellow\Lecturer. RHUL and RAL

Spectra of Cosmic Rays

Cosmic Antimatter. Stéphane. Coutu The Pennsylvania State University. 3 rd. Astrophysics Arequipa,, Peru August 28-29, 29, 2008

SUPPLEMENTARY INFORMATION

New results from the AMS experiment on the International Space Station. Henning Gast RWTH Aachen

Chapter 6.2: space based cosmic ray experiments. A. Zech, Instrumentation in High Energy Astrophysics

PAMELA: a Satellite Experiment for Antiparticles Measurement in Cosmic Rays

Kerstin M. Perez. 370 Lancaster Ave., KINSC L-204 (347) Haverford, PA 19041

The positron and antiproton fluxes in Cosmic Rays

Introduction History of Cosmic Ray Studies: Origin, Propagation, Spectrum, Composition

Indirect Dark Matter search in cosmic rays. F.S. Cafagna, INFN Bari

Status of the G A M M A Project. A. M. Galper Trieste, Italy, May 2013

Limits on Antiprotons in Space from the Shadowing of Cosmic Rays by the Moon

Cosmic Rays and the need for heavy payloads

Geomagnetic cutoff simulations for low-energy cosmic rays

Search for Antiparticles in Cosmic Rays in Space and the Earth s Atmosphere. Philip von Doetinchem I. Phys. Inst. B, RWTH Aachen University

The Cherenkov Telescope Array

PEBS - Positron Electron Balloon Spectrometer. Prof. Dr. Stefan Schael I. Physikalisches Institut B RWTH Aachen

Using the Fermi-LAT to Search for Indirect Signals from Dark Matter Annihilation

DARK MATTER SEARCHES WITH AMS-02 EXPERIMENT

arxiv: v2 [hep-ph] 4 Apr 2016

PAMELA satellite: fragmentation in the instrument

M. Lattanzi. 12 th Marcel Grossmann Meeting Paris, 17 July 2009

Cosmic Ray Physics with the Alpha Magnetic Spectrometer

Nikolay Topchiev for the GAMMA-400 Collaboration High-energy gamma-ray studying with GAMMA-400

1 The beginning of Cosmic Ray Physics, the balloons BACKGROUND REJECTION AND DATA ANALYSIS. Aldo Morselli a and Piergiorgio Picozza a.

Introduction to Cosmic Rays Data Analysis Issues. Nicola De Simone INFN and University of Rome Tor Vergata

Eun-Suk Seo Inst. for Phys. Sci. & Tech. and Department of Physics University of Maryland

Baryonic Antimatter in Cosmic Rays

Dark Matter. Evidence for Dark Matter Dark Matter Candidates How to search for DM particles? Recent puzzling observations (PAMELA, ATIC, EGRET)

Neutrinos and DM (Galactic)

ISAPP Gran Sasso June 28-July 9, Observations of Cosmic Rays

Future cosmic ray detectors (ground & space) Elena Vannuccini INFN Firenze

Justin Vandenbroucke (KIPAC, Stanford / SLAC) for the Fermi LAT collaboration

Monthly Proton Flux. Solar modulation with AMS. Veronica Bindi, AMS Collaboration

Cosmic Positron Signature from Dark Matter in the Littlest Higgs Model with T-parity

Silicon Detectors for the Search of Cosmic Antimatter and Dark Matter

PoS(IDM2010)013. Antiproton and Electron Measurements and Dark Matter Searches in Cosmic Rays. Piergiorgio Picozza.

Implication of AMS-02 positron fraction measurement. Qiang Yuan

GeV to Multi-TeV Cosmic Rays: AMS-02 Status and Future Prospects

a Payload for Antimatter Matter Exploration and Light nuclei Astrophysics

Measuring Dark Matter Properties with High-Energy Colliders

BESS-polar experiment

Dr. John Kelley Radboud Universiteit, Nijmegen

USC Engineering Honors Colloquium 26 April Rene A. Ong (UCLA)

Tracking at the LAND/R B setup on 17

The ISS-CREAM Silicon Charge Detector for identification of the charge of cosmic rays up to Z = 26

Fluxes of Galactic Cosmic Rays

Propagation in the Galaxy 2: electrons, positrons, antiprotons

A. Takada (Kyoto Univ.)

Dark Matter Particle Explorer and Its First Results

Search for Dark Matter with LHC proton Beam Dump

Dark matter searches with GLAST

Preliminary results from gamma-ray observations with the CALorimeteric Electron Telescope (CALET)

Five Years of PAMELA in orbit

Astrophysical issues in indirect DM detection

Neutrino bounds on dark matter. Alejandro Ibarra Technische Universität München

Measurement of 39 Ar in Underground Argon for Dark Matter Experiments

Transcription:

GAPS: A Novel Indirect Search for Dark Mater S. A. Isaac Mognet UCLA May 2, 2011

1 Introduction Indirect Detection of Dark Matter Antideuterons as a DM Signature 2 The General Antiparticle Spectrometer Exotic Atoms Antiproton and Antideuteron Identification GAPS Si(Li) Detectors 3 GAPS Balloon Project bgaps Simulation Work GAPS Balloon Flight Prototype GAPS Flight 4 The GAPS Collaboration 5 Conclusions

Indirect Detection of Dark Matter WIMP Dark Matter could decay or self-annihilate (if it is a Majorana fermion) to standard model particles. This could be anywhere DM is concentrated: in the galactic halo, dwarf spheroidal galaxies, the sun, etc. Could search for charged species or γ s. γ s: Promising, see FERMI, VERITAS, etc. Protons, e : Hopeless Antiprotons, e + : Promising, but large backgrounds Antideuterons: Promising, probably small backgrounds

Antideuterons as a DM Signature Antideuterons from DM Antideuterons could be (rarely) produced from DM in the galactic halo, and thus present in cosmic rays. At low energy, antideuterons from DM-DM annihilation could vastly outnumber those produced from normal astrophysical processes (secondary/tertiary).

GAPS: The General Antiparticle Spectrometer Most experiments use magnetic deflection to distinguish antimatter species (HEAT, AMS, PAMELA, BESS, etc). Light antinuclei can form excited exotic atom states with normal matter. Atomic transition x-rays, charged pion multiplicity, and possible other products provide distinct signature for antinuclei.

Antiproton and Antideuteron Identification Time-of-Flight Identify charge of primary. Measure particle β. Veto heavy cosmic rays/showers. Target/Tracker/x-ray Detector Slow down antiparticles and form exotic atoms. Measure x-ray energies. Track annihilation products. Figure: GAPS with Si target material. Exotic atom technique successfully tested in 2004 KEK test beam. S. A. Isaac Mognet GAPS: A Novel Indirect Search for Dark Mater

GAPS Si(Li) Detectors Lithium drifted silicon provides: Both degrader, target and detector. Excellent x-ray energy resolution ( 3keV ). Tracking of primary particle. Tracking of annihilation products. In-house effort to produce detectors in quantity (lithium drifting, etching, passivation of surfaces, etc) underway. S. A. Isaac Mognet GAPS: A Novel Indirect Search for Dark Mater

bgaps: A GAPS Balloon Payload A balloon-born GAPS payload (bgaps) is under active development, with a first flight planed for 2014 in Antarctica. Overall acceptance of 2.7m 2 sr. Overall width of 3m. 13 layers of Si(Li) detectors ( 200 kg of silicon). Plastic scintillator based time-of-flight system.

Simulation Work Atmospheric Simulations Development of GEANT4 based simulation to better understand backgrounds and event rate. Validated by excellent agreement with previous measurements. Optical Simulation of TOF System GEANT4 optical simulation for time-of-flight scintillator paddle design optimization. Exotic Atom Studies Ongoing work on understanding the exotic atom physics. Whole Instrument Simulation Integration of all detectors and payload structure to product whole-instrument simulation. S. A. Isaac Mognet GAPS: A Novel Indirect Search for Dark Mater

GAPS Balloon Flight Antarctic LDB flights can provide up to 40 day flights. Future ULDB flights to be 100 day.

pgaps An engineering test payload known as pgaps is scheduled to fly in 2011 from the JAXA/ISAS balloon launch facility in Taiki, Japan. This payload will consist of a plastic-scintillator based time-of-flight system and 6 commercially purchased Si(Li) detectors.

The GAPS Collaboration JAXA / ISAS: Fuke, Bando, Takada, Yoshida Columbia Univ.: Aramaki, Gahbauer, Hailey, Koglin, Madden, Mori, Tajiri UC Berkeley: Boggs, von Doetinchem Tech. Univ. Denmark: Christensen LLNL: Craig ORNL: Fabris, Ziock UCLA: Mognet, Ong, Zhang, Zweerink pgaps is funded by NASA grants in the US and by MEXT-KAKENHI grants in Japan.

Conclusions Antideuteron provide a potentially background free signature for dark matter. GAPS is a promising approach to antideuteron searches. Detector development ongoing. Science flight in 2014. Test flight this year!