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

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

Astropartical Physics İssue To inform.

What Powered the Big Bang? Inflation (Big Bang plus 10-34 Seconds) Big Bang plus 300,000 Years gravitational waves light Now Big Bang plus 15 Billion Years

What is the Dark Energy? We do not know what 95% of the universe is made of!

Cosmic Rays What are cosmic rays? Elementary particles, nuclei, EM radiation of extra-terrestrial origin, including m, p, L Discovery of cosmic rays Victor. F. Hess, Nobel Prize in 1936

COSMIC RAYS Charged particles arriving in Earth from the Sun, our galaxy and other galaxies Mainly protons (90%) and alpha particles (9%)

Development of Cosmic-Ray Air-Shower Cosmic Rays composition in space ~88% proton, ~ 9% He nuclei, ~1% Z > 2 nuclei, ~ 2% electrons, <0.1% gamma

Supersymmetric Dark Matter LSP is a bino-like neutralino neutralino is a spin ½ Majorana particle and can annihilate Neutralino is the Dark Matter candidate.

PHYSICS GOALS Search for cosmic antimatter Search for dark matter Deep study of cosmic ray composition and energy spectrum Gamma ray astrophysics Need of high precision and high statistics data collection (up to 20GB of data are transferred every day to the ground station in Moscow ) Detector design Negligible background environment (Mission duration 3 years) Long exposure time (4 years, 5 months, and 29 days)

DESIGN Study signals among intense backgrounds Minimum amount of material traversed Repeated measurements of momentum and velocity7.2km/s Technical High vacuumm conditions and radiation levels Strong temperature ~ (-60ºC to +40ºC) The apparatus is 1.3 m high Total weight 470 kg Total power consumption 335 W PAMELA has been put in a polar elliptical orbit at an altitude between 350 and 610 km, with an inclination of 70.

The Space Experiment PAMELA Satellite The Satellite: Resurs DK1 Mass: 6.7 tonnes Height: 7.4 m Solar array area: 36 m2

ToF TRD Anticoincidence shield Magnetic spectrometer Shower tail catcher scintillator Calorimeter

PAMELA Status Integration of PAMELA Technological Model completed and delivery to Russia underway and Launch from Baikonur: June 15th 2006, 0800 UTC. Integration of PAMELA FM underway at INFN Roma2 First light : June 21st 2006, 0300 UTC. PAMELA in continuous data-taking mode sin ce commissioning phase ended on July 11th 2006 As of ~This period: > 300 days of data taking (70% live-time) ~5.5 TByte of raw data downlinked ~610 million triggers recorded and under an alysis

PAMELA Capabilities PAMELA will explore: Antiproton flux Positron flux Electron flux Proton flux Electron/positron flux Light nuclei (up to Z=6) Antinuclei search 80 MeV - 190 GeV 50 MeV 270 GeV up to 400 GeV up to 700 GeV up to 2 TeV up to 200 GeV/n (sensitivity of 10-7 in He/He) 1 CAPRICE98 flight ~ 3.9 days PAMELA data

Cosmic-ray Antimatter Search

Example of a reconstructed event in the PAMELA apparatus corresponding to a 12.5GV proton interacting in the calorimeter

Summary Launched on June 15th 2006. PAMELA is conducting an indirect search for dark matter using antiparticles (e+, p-bar) in the cosmic radiation. Mission duration : 3 years But it elapsed time 4 years, 5 months, and 29 days and soon is Over. The Alpha Magnetic Spectrometer Exerime nt is a research module with similar goals scheduled to be attached to the International Space Station in 2011.

Source http://cdsweb.cern.ch/record/981255 // CERN Document Server http://en.wikipedia.org/wiki/payload_for_antimatter_matter_exploration_and_light-nuclei_astrophysics http://hyperphysics.phy-astr.gsu.edu/hbase/astro/cosmic.html http://pamela.roma2.infn.it/index.php