Review of direct measurements of cosmic rays. Sources of Galactic cosmic rays APC, Paris - December 7-9, 2016

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Review of direct measurements of cosmic rays Sources of Galactic cosmic rays APC, Paris - December 7-9, 2016

CR astrophуsics main problems Sources? - Accelerators?

The basic paradigm of CR acceleration

Supernovae Energy balance equation ( Ginzburg & Syrovatskii 1964) 10 52 erg! ~ 10% of SN kinetic energy should go to cosmic rays to maintain observed w cr at W sn =10 51 erg, ν sn = 1/(30 yr) Ginzburg Syrovatskii

Standard Model of Cosmic Ray Acceleration SN 1987 E max ~BLZ 10 14 Z ev Accelerated particles Shock wave Diffusive shock acceleration Fermi 1949, Krymsky 1977, Bell 1978,...

LET S FOLLOW THIS PARADIGM AND FORGET (FOR A WHILE ) OTHERS ONES

MEAN MASS lga E E~Z Emax~BLZ 10 14 Z ev «The knee» Flux H He New component Fe Energy, ev Definition of average mass below the knee the real test for current models

Strong magnetic field in young SNRs Völk et al. magnetic field amplification in Tycho and other shell-type SNRs shock profile in hard X-rays Tycho s SNR B ~ 300 µg, for Tycho s SNR consistent with synchrotron spectrum from acceleration theory Similar amplification in all other SNRs where such data are available: Cas A, SN 1006, Tycho, RCW 86, Kepler, RX J1713.7-3946, Vela Jr diffusive shock acceleration of electrons, including synchrotron losses gives observed scale very strong magnetic field in young SNRs is indirect but strong evidence of proton acceleration

Standard Model of Cosmic Ray Acceleration SN 1987 Accelerated particles 17 E max ~BLZ 10 14 Z ev Shock wave Diffusive shock acceleration Fermi 1949, Krymsky 1977, Bell 1978,...

Mostly, GCR can be measured using off-ground instruments: balloons&satellites HE CR Balloons Satellites HE CR on ground installations

Эксперименты «Протон» «Proton» experiment : 1965 1966 Proton 1-3 S. Vernov N. Grigorov Proton 4 Experimental instruments ionization calorimeters were designed at Moscow State University

«Proton s» results «Proton 1-4» 4 orders Grigorov Proton : all particle from 10*11 till 10*15 ev Up to now we had no such possibility!.

The beginning of 21 century gave us absolutely new results from CR experiments

ATIC 2000-2007

Proton and helium spectra: thin structure Spectra for energy per particle ATIC H 10 TeV He There is no single power law!

CREAM 2007-2009 US + Korea

CREAM-III has confirmed ATIC result PROTONS HELIUM ( Lodz Y.S. Yoon et al. ICRC31 (2009,

In the middle of 2000 : CR elemental composition THE KNEE Chemical composition in Multi-TeV energy region:???

PAMELA 2006 Pamela confirmed ATIC& CREAM data In comparison to the previous experiments PAMELA found the break position

AMS-02 2012

AMS-02 (ICRC2013): no slope s change! AMS AMS H PAMELA PAMELA He

During 2 years AMS team changed their conclusions

Today:in TeV s energy range spectra is changing AMS 02

The basic questions around no-single - power spectrum 1/ Is it specific source acceleration? 2/ Is it propagation effect? 3/ Is it effect of multiply sources of GCR? interference of local (different) sources SNR3 SNR2 SNR1

Based on the basic paradigm of CR acceleration we have to follow the conclusion that Diffusive Shock Acceleration produces the power law of CR

HEAVY NUCLEI BEFORE THE KNEE Average mass definition below the knee the real test for current models

Average mass definition below the knee the real test for current models p The knee Fe IRON KNEE??? Panasyuk, 1998

ICRC 2015: Heavier nuclei Heavier elements energy dependence: HARDENING!

On Dec., 26, 2014 satellite RESOURSE-P #2 was launched with NUCLEON instrument to study chemical composition of high-energy galactic cosmic rays Listen Podorozhnyi talk during this session! Skobeltsyn Institute of Nuclear Physics of Lomonosov Moscow State University

NUCLEON: THE FIRST RESULTS (2016) Nucleon: multi-tev energy range approaching

Since 2000 ATIC CREAM PAMELA AMS 02 Космические лучи. 10 9 10 15 ev NUCLEON 2014 DAMPE 2015 CALET 2015 ISS CREAM 2017? 10 20 Cosmic Rays

Why is there such an interest in this energy range of GCR (10 11-10 15 ev), in spite of more than 50 years of research?

The elemental composition of cosmic rays (till 2016) Протоны The answer (1): Abnormal Galactic component behavior(non consistent with the main paradigm) of the elemental composition of cosmic rays Extragalactic component

The answer (2): Application of new nuclear-physical technologies in practice of the space experiment allowed us to receive new PRECISION experimental information about the nuclear composition of cosmic rays in terms of quality comparable to ground-based accelerator experiments".

CONCLUSION direct indirect Currently, direct measurements tend to higher energies, and indirect - to the lower ones. However statistics, below the knee is still not good enough to draw final conclusions about the elemental composition near the knee. This means that the mechanism of acceleration of cosmic rays in supernova remnants definitively experimentally proven.

Thank you