Cosmic Ray Studies with PAMELA Experiment

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Cosmic Ray Studies with PAMELA Experiment Piergiorgio Picozza INFN and University of Rome Tor Vergata 14th Lomonosov Conference on Elementary Particle Physics MSU, Moscow August 19 25, 2009

PAMELA Payload for Antimatter Matter Exploration and Light Nuclei Astrophysics

PAMELA Collaboration Italy: Bari Florence Frascati Naples Rome Trieste CNR, Florence Russia: Moscow St. Petersburg Germany: Siegen Sweden: KTH, Stockholm

WiZard Russian Italian Missions MASS-89, 91, TS-93, CAPRICE 94-97-98 NINA-1 NINA-2 PAMELA M 89 M 91 TS 93 C 94 C 97 C 98 PAMELA 1989 1990 1991 1992 1993 1994 1995 1996 1997 1998 1999 2000 2001 2002 2003 2004 2005 2006 2007.. SILEYE-1 NINA-1 NINA-2 Alteino-SILEYE-3 SILEYE-2 ALTEA-SILEYE-4 SILEYE-1 SILEYE-2 ALTEINO: SILEYE-3 LAZIO SIRAD ALTEA: SILEYE-4

ANTIMATTER Collision of High Energy Cosmic Rays with the Interstellar Gas Annihilation of Exotic Particles Cosmic Rays Leaking Out of Antimatter Galaxies e + p e + p p e + p Evaporation of Primordial Black Holes e - e + Antimatter Lumps In the Milky Way He e + e - e + Pulsar s magnetospheres

THE UNIVERSE ENERGY BUDGET

Signal (supersymmetry) and background pcr + pism p+ p+ p+ p p CR + p ISM π π + 0 μ + γγ e e + + e (GLAST-FERMI AMS-02)

Another possible scenario: KK Dark Matter Lightest Kaluza-Klein Particle (LKP): B (1) Bosonic Dark Matter: fermionic final states no longer helicity suppressed. e+e - final states directly produced. As in the neutralino case there are 1-loop processes that produces monoenergetic γγin the final state.

Decay Channels

PAMELA Instrument GF ~21.5 cm 2 sr Mass: 470 kg Size: 130x70x70 cm 3

Proton / positron selection Time-of-flight: trigger, albedo rejection, mass determination (up to 1 GeV) Bending in spectrometer: sign of charge Ionisation energy loss (de/dx): magnitude of charge Interaction pattern in calorimeter: electron-like or proton-like, electron energy Proton Positron

Design Performance Energy range Antiprotons 80 MeV - 190 GeV Positrons 50 MeV 300 GeV Electrons up to 500 GeV Protons up to 1 TeV Electrons+positrons up to 2 TeV (from calorimeter) Light Nuclei (He/Be/C) up to 200 GeV/n AntiNuclei search sensitivity of 3x10-8 in He/He Simultaneous measurement of many cosmic-ray species New energy range Unprecedented statistics

Resurs-DK1 satellite Main task: multi-spectral remote sensing of earth s surface Built by TsSKB Progress in Samara, Russia Lifetime >3 years (assisted) Data transmitted to ground via high-speed radio downlink PAMELA mounted inside a pressurized container Mass: 6.7 tonnes Height: 7.4 m Solar array area: 36 m 2

PAMELA Launch 15 June 2006 Bajkonur Cosmodrome (Kazakhstan)

Orbit Characteristics 350 km SAA 70ο Low-earth elliptical orbit 350 610 km Quasi-polar (70o inclination) SAA crossed 16 Gigabytes trasmitted daily to Ground-NTsOMZ Moscow 610 km

PAMELA Status Today 1162 days in flight data taking ~73% live-time >14 TBytes of raw data downlinked >1.4 10 9 triggers recorded and under analysis

Antiproton to proton ratio PRL 102, 051101 (2009)

Antiproton to proton ratio preliminary

Wino Dark Matter in a non-thermal Universe G. Kane, R. Lu, and S. Watson arxiv:0906.4765v3 [astro-ph.he)

Preliminary 26/06/2009 22

Positron to all electron ratio Nature 458, 697, 2009 Secondary production Moskalenko & Strong 98

Positron to all electron ratio

PAMELA Positron Fraction Pulsar Component Yüksel et al. 08 KKDM (mass 300 GeV) Hooper & Profumo 07 Pulsar Component Atoyan et al. 95 Pulsar Component Zhang & Cheng 01 Secondary production Moskalenko & Strong 98

Astrophysical Explanation Pulsars S. Profumo Astro-ph 0812-4457 Mechanism: : the spinning B of the pulsar strips e - that accelerated at the polar cap or at the outer gap emit γ that make production of e ± that are trapped in the cloud, further accelerated and later released at τ ~ 10 5 years. Young (T ~10 5 years) ) and nearby (< 1kpc) If not: too much diffusion,, low energy, too low flux. Geminga: : 157 parsecs from Earth and 370,000 years old B0656+14: 290 parsecs from Earth and 110,000 years old Many others after Fermi/GLAST Diffuse mature pulsars

Example: pulsars H. Yüksak et al., arxiv:0810.2784v2 Contributions of e- & e+ from Geminga assuming different distance, age and energetic of the pulsar diffuse mature &nearby young pulsars Hooper, Blasi, and Serpico arxiv:0810.1527

Pulsars: Most significant contribution to high-energy CRE: Nearby (d < 1 kpc) and Mature (104 < T/yr < 106) Pulsars D. Grasso et al. 0905.0636 [astro-ph.he] Example of fit to both Fermi and Pamela data with known (ATNF catalogue) nearby, mature pulsars and with a single, nominal choice for the e+/e- injection parameters

Interaction of high energy gamma-rays with star-light F. A. Aharonian and A M Atoyan J. Phys. G: Nucl. Pan. Phys. 17 (1991) 1769-1778. A. Eungwanichayapant and F. A. Aharonian 0907.2971v1 [astro-ph.he] After discovery of TeV binaries like LS5039 and LSI 61 by HESS/Magic/VERITAS in which the powerful production of high and very high energy gamma-rays is accompanied by their absorption (which leads to the modulation of the gamma-ray signal), it is clear that these objects are also sources of electron-positron pairs.

Standard Positron Fraction Theoretical Uncertainties γ = 3.54 γ = 3.34 T. Delahaye et al., arxiv: 0809.5268v3

Preliminary

Preliminary

Preliminary

Cosmic Rays Propagation in the Galaxy

Proton flux

Helium flux

Proton and Helium spectra, July 2006 preliminary

Preliminary B/C

PAMELA preliminary results Li/C Be/C

Positron Fraction

Solar Modulation of galactic cosmic rays Study of charge sign dependent effects Asaoka Y. et al. 2002, Phys. Rev. Lett. 88, 051101), Bieber, J.W., et al. Physi-cal Review Letters, 84, 674, 1999. J. Clem et al. 30th ICRC 2007 U.W. Langner, M.S. Potgieter, Advances in Space Research 34 (2004) Pamela AMS-01 Caprice / Mass /TS93 BESS

Solar modulation Interstellar spectrum (statistical errors only) Increasing GCR flux July 2006 August 2007 February 2008 Decreasing solar activity Ground neutron monitor PAMELA sun-spot number

Charge dependent solar modulation + + Pamela 2006 (Preliminary!) A > 0 A < 0 Positive particles

Positron Fraction

Radiation Belts South Atlantic Anomaly Secondary production from CR interaction with atmosphere

Study terrestrial magnetosphere Pamela World Maps: 350 650 km alt 36 MeV p, 3.5 MeV e-

Proton spectrum in SAA, polar and equatorial regions

Study terrestrial magnetosphere Ratio of sub-cutoff positron to electron fluxes

Study terrestrial magnetosphere Sub-cutoff positron + electron flux 31st ICRC, Łódź, July 7-15, 2009

December 2006 Solar particle events Dec 13 th largest CME since 2003, anomalous at sol min

December 13th 2006 event Preliminary!

December 13th 2006 He differential spectrum Preliminary!

Thanks! http:// pamela.roma2.infn.it