“frontiers in elementary particle, nuclear and condensed...
TRANSCRIPT
Brazil – JINR Forum:
“Frontiers in Elementary Particle, Nuclear and Condensed Matter Physics
JINR:
Past, Present and Future V. Matveev
( JINR, Dubna) 1
JINR, Dubna 15-19 June 2015
Moscow
JINR
I.
2
Volga
3
The Agreement on the establishment
of JINR
was signed on 26 March 1956 in Moscow
JOINT INSTITUTE for NUCLEAR RESEARCH
International Intergovernmental Organization
The results of the researches carried out at
the Institute can be used solely for peaceful
purposes for the benefit of mankind
ATOM for PEACE
V.Dzhelepov
M.Meshcheryakov
V.Veksler G.Flerov
I.Frank
B.Pontecorvo
G.Nevodnichanski
L.Infeld
H.Hulubeii
G.Najakov
L.Janossy
А.Baldin
V.Votruba
Founders of JINR
N.Bogoliubov, D.Blokhintsev
Wang Ganchang
4 V. Matveev 04/11/2014 Trieste
JINR has at present 18 Member States:
5
Armenia
Azerbaijan
Belarus
Bulgaria
Cuba
Czech Republic
Georgia
Kazakhstan
D. P. Republic of Korea Moldova
Mongolia
Poland
Romania
Russian Federation
Slovakia
Ukraine
Uzbekistan
Vietnam
Participation of Egypt, Germany, Hungary, Italy, the Republic of South Africa
and Serbia in JINR activities is based on bilateral agreements signed on the
governmental level.
JINR comprises 7 Laboratories, each being
comparable with a large institute in the scale and scope
of investigations performed
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Veksler and Baldin
Laboratory of High Energy Physics Dzhelepov
Laboratory of Nuclear Problems
Bogoliubov
Laboratory of Theoretical Physics
Frank Laboratory of Neutron Physics
Flerov
Laboratory of Nuclear Reactions
Laboratory of
Information Technologies
Laboratory of Radiation Biology
JINR’s partners are about 700 institutions located in 60 countries, including
about 300 institutions and universities from the JINR Member States
AUSTRIA
BELGIUM
CERN
CROATIA
DENMARK
FINLAND
FRANCE
GREECE
IRELAND
NETHERLANDS
NORWAY
PORTUGAL
SLOVENIA
SERBIA
SWEDEN
SWITZERLAND
UNITED KINGDOM
BULGARIA
CZECH REPUBLIC
GERMANY
HUNGARY
SLOVAKIA
EUROPE
DUBNA
AFRICA EGYPT
SOUTH AFRICA
AUSTRALIA
AND
OCEANIA
AUSTRALIA
AMERICA
BRAZIL
CANADA
UNITED STATES
CHINA
ISRAEL
JAPAN
SOUTH KOREA
TURKEY
INDIA
DEMOCRATIC
PEOPLE'S
REPUBLIC
OF KOREA
MONGOLIA
VIETNAM
ASIA
BRAZIL
CANADA
CLAF
CUBA
UNITED STATES
ITALY
POLAND
ROMANIA
SPAIN
REPUBLICS OF
FORMER SOVIET
UNION
ARMENIA
AZERBAIJAN
BELARUS
GEORGIA
KAZAKHSTAN
MOLDOVA
RUSSIA
UKRAINE
UZBEKISTAN
Science Bringing Nations Together
7
8
Special Economic Zone “Dubna”
Public-Private-Partnership
UC, DIAS-TH
International Univ. “Dubna”
Education
programme
Innovative
activities
JINR’s “Triangle” Science Policy
7-Year Program: ‘2010 – 2016’
New 7-Year Plan: ‘2017 – 2023’
in preparation
High Energy Physics
Nuclear Physics
Condensed Matter Physics
Basic Scientific Directions
Fundamental
Science
V. Matveev 2013 ESHEP Hungary 9
High Energy Particle and
Heavy Ions Physics
@ JINR
10 V. Matveev 04/11/2014 Trieste
First in the world
Superconducting
Synchrotron
of heavy
ions
1957 -
Synchrophasotron 1993 -
Nuclotron 10 GeV proton accelerator –
world leader in energy.
Beginning
of era of
high-energy
physics
2019 -
NICA
Superconducting collider
of heavy ions
From Synchrophasotron to Nuclotron to NICA
The JINR 7-year plan (2010-
16):
NICA – the JINR
flagship project in
HEP
11 V. Matveev 04/11/2014 Trieste
FT experiment area
Nuclotron
Lu 20 Booster
New Linac
Collider
Complex NICA @ JINR
accelerator facility
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JINR NICA -
in the list of international
Mega-science projects in RF area
13
NICA Complex
NUCLOTRON
0.6-4.5 GeV/u
PS and
LU-20
(5MeV/u)
existing
In preparation
Collider basic parameters: √sNN = 4-11 GeV; beams: from p to Au; L~1027 cm-2 c-1 (Au), ~1032 cm-2 c-1 (p)
KRION-6T+HILac (3MeV/u)
Booster (600 MeV/u)
MultiPurpose
Detector - MPD
V. Matveev 04/11/2014 Trieste
Международная коллабораци проекта NICA
NICA Mega-Science Project
International Consortium
6 countries
Protocol signed by: Belarus, Bulgaria, Germany, Kazakhstan, Russia, Ukraine Dubna, August 08, 2013.
15 V. Matveev 04/11/2014 Trieste
Recently:
JINR-China
Cooperation in NICA
Low Energy Nuclear Physics
Supper Heavy Elements
@ JINR
16
168
170
Fl 114
285
a
29 s Cn
a 2.1 s
Fl 289
281
sf
13 s Ds
293
a 61 ms Lv
Rf 253
sf
48 m s Rf 254
sf
23 m s Rf 256
sf, a
6.2 m s Rf 257
a ,ec
4.7s
a ,ec
Rf 258
sf
13 ms Rf 259
a ,sf
3.1 s Rf 260
sf
21 ms Rf 261
a
78 s Rf 262
sf
47ms 1.4s Rf 255
a ,sf
0.8s
a ,sf
1.4s 2.1s
sf
Db 257
a ,sf
1.3 s Db 258
a ,ec
4.4 s Db 260
a ,ec/sf?
1.5 s Db 261
a ,sf
1.8 s Db
262
a ,ec/sf?
34 s Db
263
a ,sf
27 s
Sg 265
a ,sf? 7.4 s
Sg 266
sf,a? 440 ms 1.4s
Sg 263
a
0.3s a ,sf?
0.9s Sg 261
a ,ec
0.23 s Sg 260
a ,sf
3.6 ms Sg 259
a
0.48 s Sg 258
sf
2.9 ms
Bh 261
a
11.8 ms Bh 264
a
440 ms Bh 262
a
102ms
a
8ms
Db 256
a ,sf
2.6 s Db 255
a ,sf
1.6 s
Bh 260
a
?
Hs 263
a
? Hs 264
a ,sf
0.45 ms Hs 265
a
0.8ms
a
1.7ms
a
Hs 267
59 ms Hs 269
a
9.7 s
Mt 266
a
1.7 ms Mt 268
a
70 ms
Ds 267
a
3 ms Ds 271
a
69 ms
a
1.8 ms Ds 273
a
0.17 ms
269
a
179 m s Ds
272
a
3.8 ms Rg
Cn 277
a
0.69 ms
Rf Ruther-
fordium
Db Dubnium
Sg Seaborgium
Bh Bohrium
Hs Hassium
Mt Meitnerium
Ds
Rg
Cn
105
106
107
110
109
108
112
111
150 152 154 156 158 160 164
N
166
Z
Bh 266
a
1s Bh 267
a
17 s
Hs 266
2.3 ms
a a
Sg 262
sf
6.9 ms
Ds 270
a
6 ms
a
0.1ms
Db 259
,ec/sf?
0.5 s
a
Hs 270
a
30 s
Lv 116
118 118
a 87 ms 115 288
a 32 ms 115 287
284
a
0.48 s 113 283
a
0.1 s 113
280
a
3.6 s Rg 279
a
0.17 s Rg
276
a
0.72 s Mt 275
a
9.7 ms Mt
272
a
9.8 s Bh 271
a
Bh
268
sf
1.2 d Db 267
sf
1.2 h Db
290
a
7 ms Lv
286
sf/a
Fl
294
a
0.9 ms 118
113 113
115 115
a-Decay Spontaneous fission EC-Decay
Darmstadtium
, sf a
7.9 s
288
a
0.69 s Fl
284
sf 0.1 s Cn 282
sf 0.8 s Cn
275
a
0.19 s Hs
Sg 271
a ,sf 1.9 m
267
sf 1.3 h Rf
279
sf/a 0.18 s
Ds
291
a
18 ms Lv
287
a
0.48 s Fl
283
a
3.8 s Cn
0.13 s
292
a 18 ms
Lv
Röntgenium
113 278
a
0.24 ms
Rg 274
a
6.4 ms
Mt 270
a
5 ms
Sg 264
sf
40 ms
Hs 271
a
10 s
Sg 267
a ,sf 1.5 m
Rf 263
sf
8 s
282
a
73 ms 113
278
a
4.2 ms Rg
274
a
0.45 s Mt
270
a
1 m Bh
266
sf
0.37 h Db
162
294
a
80 ms 117
290
a
16 ms 115
286
a
20 s 113
282
a
0.5 s Rg
278
a
8 s Mt
274
a
50 s Bh
270
sf
23 h Db
293
a
15 ms 117
289
a
0.22 s 115
285
a
5.5 s 113
281
sf
26.3 s Rg
277
sf
3 ms Hs
117 117
Hs 268
a
s
Copernicium
172
174
a 0.1 s
Fl 285
281
a
Cn 0.1 s
Ds 277
a 5 ms
273
a 0.25 s
Hs
Sg 269
a 2 m
265
sf 1.7 m
Rf
Flerovium
Livermorium
Superheavy Element Research
284
sf
0.2 ms Fl
Up to 2014 discovered:
6 superheavy elements
49 transactinide isotope
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D.I. Mendeleev 1834 - 1907
114 Discovered at JINR in
1999
115 Discovered at JINR in
2003
118 Discovered at JINR in
2001
113 Discovered at JINR in
2003
116 Discovered at JINR in
2000
112 Chemical
identificationin 2006
19 V. Matveev 04/11/2014 Trieste
Super Heavy Elements (SHE) Factory
0
1
2
3
4
5
6
7
8
9
10
11
12
Target Wheel
Quadrupole Lenses I
Quadrupole Lenses II
Beam
Electric Deflector I
Electric Deflector II
Magnetic Deflector II
Magnetic Deflector I
Distance in M
eters
Beam Stop
Time of Flightdetector
Position-sensitivedetector array Magnetic
Deflector III
High-current cyclotron
DC-280
New facilities
New experimental hall
Neutrino Physics @JINR
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Fundamental properties of ν - Parameters of neutrino oscillations - Mechanism of neutrino mass generation - Dirac neutrino or Maiorana neutrino? - Neutrinoless 2β-decay of nuclei (ν=ν̄) - Leptogenesis - Magnetic neutrino moment - Sterile neutrino
Astroparticle Physics
Bruno Pontecorvo
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- Kalinin Nuclear Power Plant (Russia)
- Daya Bay / Juno (China)
- OPERA and
Borexino at Gran Sasso
( Italy)
- Lake Baikal
(Russia)
Leading Projects of the DLNP in the field of
Neutrino Physics and Neutrini Astrophysics
NOVA and LBNO at FNAL (USA)
Condensed Matter Physics
Neutron Physics
Radio - Biology
Cosmic Medicine
Astrobiology
Ecology
@JINR
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IBR-2 (2 MWatt)
Nanotechnology
Physics of high-temperature superconductivity
Geological texture research
IBR-2 nuclear reactor is included in the 20-year Еuropean strategic research program in the field
of neutron scattering
Nanosystems and Nanotechnology
Biomedical research
New materials
Diagnostics. Earth science.
Fe
(3-5 нм)
Сr
(1-2 нм)
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Condensed Matter Physics
+
Meteorite surface
Irradiation by p+, 170 MeV, 6 Gy
Formamide
Astrobiology
Studying prebiotic molecule synthesis
under ionizing radiation
uracil
adenine
hypoxanthine
Preliminary results suggest a possibility of prebiotic molecule synthesis (up to nucleosides) in the reaction mixture exposed to ionizing radiation
In cooperation with the Sapienza University of Rome and Viterbo University (Italy)
cytosine
25 V. Matveev 04/11/2014 Trieste
Computing @JINR
26 V. Matveev 04/11/2014 Trieste
Tape robot
Cooling system
Uninterrupted
power
supply
Computing
modules
Grid-Infrastructure at Tier1 and Tier2 Levels
General Purpose Computing Cluster
Cloud Computing Infrastructure
Heterogeneous Computing Cluster HybriLIT
Education and Research Infrastructure for Distributed and
Parallel Computing
JINR Multifunctional Centre for Data Storage, Processing and Analysis
THEORETICAL PHYSICS @ JINR
Main fields of research
Theory of Elementary Particles and Fields
Nuclear Theory, Nuclear Structure and Dynamics
Theory of Condensed Matter and New Materials
Modern Mathematical Physics
Research and Education Project
“Dubna International School of
Theoretical Physics (DIAS-TH)”
Educational Activity
Lectures courses at JINR UC,
DIAS-TH, Moscow U., Dubna U., MPTI, etc.
Conferences and Schools
Every year (> 1000 participants)
DIAS-TH and Helmholtz Schools
(> 20 countries represented)
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International Student Practice (ISP)
In total 139 students from 9 JINR Member States have participated in three stages of ISP-2014: ARE, Belarus, Bulgaria, Czech Republic, Poland, Romania, Slovakia, South Africa, Serbia
By the beginning of 2014/2015 academic year 226 graduate students have taken part in various JINR educational programs. The JINR PhD program is currently being updated according to the goals of the JINR 7-year plan (2009-2016).
JINR Summer Student Program (SSP) http://students.jinr.ru
In 2014 JINR UC has launched the Summer Student Program. The main distinction of SSP from ISP is a selection of participants on a competitive basis. In 2014 the SSP was organized in the field of accelerator physics and information technologies. In 2015 SSP the scientific fields will be extended to include all JINR research areas.
29
Towards integration to the European Research Infrastructure
Physical Sciences and Engineering Strategic Working Group
The Strategy Working Groups play an important role in the evaluation and prioritisation process of projects included in the ESFRI Road Map. The re-evaluation should be done especially according to the following criteria:
•Appropriate level of funding commitment from at least three MS or AC
•Concrete and credible plans for construction and operation including costs and financing over the whole life cycle of the project •Scientific impact and scientific relevance for the respective scientific area
•Is it a real distributed Research Infrastructure or only a network or a research project?
•Social and economic impact including innovation potential and possible cooperation with industry
•European added value
•Timeliness 31
Expanding cooperation horizons: India 16 September 2014 Visit of 26 researchers and science officers
Dr. Inder Jit Singh
Joint Secretary
Department of Science &
Technology
Expanding cooperation horizons: China 23-25 February 2014. Workshop with Institute of Plasma Physics
Expanding cooperation horizons: Latin America
10 July 2014. Ambassador of Guatemala visited JINR
Main target: Possibility to cooperate in life sciences
22-24 March 2014. JINR participated in Rio-Russian seminar in Rio de Janeiro Participants:10 Brazilian universities 11 Russian universities and JINR
Expanding cooperation horizons: Latin America 4 March 2014. Ambassadors of 11 Latin American countries visited JINR
Organized by the
Embassy of Cuba
One of the results:
intensive contacts
via Brazil embassy
have started
The Ambassador Extraordinary and Plenipotentiary of the Federative
Republic of Brazil in the Russian Federation Antonio José Vallim
Guerreiro came on his first official visit to the Joint Institute for Nuclear
Research on 26 January 2015.
Before leaving, Brazilian
Ambassador shared his
impressions:
"I see that the potential for expanding
cooperation with Brazilian research
centers is very high. A program called
"Science without borders" is being
implemented in Brazil, and, of course,
we support the development of
international cooperation, as well as
we send students to study abroad.
Brazil is a large country, maybe not as
big as Russia, but it is rich in
resources and, of course, its main
priorities are given to research areas
that contribute to our development."
At the Flerov Laboratory of Nuclear Reactions
СПАСИБО! THANK YOU!
37 V. Matveev 04/11/2014 Trieste