INFORMATION
TECHNOLOGIES in JINR
ACTIVITIES
Victor V. Ivanov
Joint Institute for Nuclear Research
Laboratory of Information Technologies
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
The main tasks of the Laboratory
of Information Technologies:

Provision of the JINR and its partner institutions
in the JINR Member States and in other
countries with top telecommunication, network
and information resources, as well as top
research in computational mathematics and
computational physics aimed at solving specific
problems arising in experimental and theoretical
studies conducted at JINR or with its
participation.
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Networking and Computing
Specific tasks:





development of telecommunication channels of JINR
with the JINR Member States on the basis of national
and regional telecommunication networks;
fault-tolerant operation and further development of the
high-speed and protected local area network of JINR;
development and maintenance of the distributed highperformance computing infrastructure and mass
storage resources;
information, algorithmic and software support of the
research-and-production activity of JINR;
development and reliable operation and development of
the JINR Grid-segment as a component of the global
Grid-infrastructure.
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
JINR Networking
The JINR network infrastructure has communication lines:
CERN – 10Gb/s; RBnet - 10Gb/s; RASnet - 10Gb/s; RadioMSU
- 10Gb/s; GEANT – 2x10Gb/s; GLORIAD - 1Gb/s; Moscow 20Gb/s, etc.
JINR Local Area Network
Comprises 7308 computers&nodes
Users –
3663 , IP – 8860
Remote VPN users – 1219
Controlled-access at network entrance.
Network authorization system involves
basic services (AFS, batch systems, Grid,
JINR LAN remote access, etc.)
High-speed transport (10 Gb/s) –
realised in 2011
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
JINR Local Area Network
Network monitoring
information system more than 350 network
nodes are in round-theclock monitoring
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
JINR Tier-2 Center Status
Availability and Reliability = 99%
CICC comprises 2560 Core
Total performance 24 000 HEP-SPEC06
Disk storage capacity 1800 TB
More than 9 million tasks were
The JINR Grid-site JINR-LCG2 is in the
top 10 of the Country Tier2 sites
worldwide. It covers around 44% of the
RDIG share to the LHC in 2011-2012
executed during the year of 2011-2012
2,50E+09
WLCG - Tier-2 Accounting Report.
June 2011 - May 2012.
Normalised CPU time [units HEP-SPEC06.Hours] by Tier2
2,00E+09
1,50E+09
1,00E+09
5,00E+08
0,00E+00
Brazil
Ukraine
Greece
Pakistan
India
Finland
Taipei
Austria
Norway
Turkey
Australia
Republic of Korea
Hungary
Estonia
Israel
China
Portugal
Belgium
Sweden
Switzerland
Czech Republic
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Slovenia
Japan
Romania
JINR
Russian Federation
Poland
Canada
Spain
Italy
Germany
France
UK
USA
49%
44%
Scheme of the CICC network connections
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Frames for Grid cooperation of JINR













Worldwide LHC Computing Grid (WLCG)
Enabling Grids for E-sciencE (EGEE) - Now is EGI-InSPIRE
RDIG Development
Now is E-ARENA
CERN-RFBR project “Grid Monitoring from VO perspective”
BMBF grant “Development of the grid-infrastructure and tools to
provide joint investigations performed with participation of JINR
and German research centers”
“Development of grid segment for the LHC experiments” was
supported in frames of JINR-South Africa cooperation agreement;
Development of grid segment at Cairo University and its
integration to the JINR GridEdu infrastructure
JINR - FZU AS Czech Republic Project “The grid for the physics
experiments”
NASU-RFBR project “Development and support of LIT JINR and
NSC KIPT grid-infrastructures for distributed CMS data processing
of the LHC operation”
JINR-Romania cooperation Hulubei-Meshcheryakov programme
JINR-Moldova cooperation (MD-GRID, RENAM)
JINR-Mongolia cooperation (Mongol-Grid)
8
Project GridNNN (National Nanotechnological Net)
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
JINR in the Russian Data Intensive Grid
infrastructure (RDIG)
The Russian consortium RDIG (Russian Data Intensive Grid), was set up
in September 2003 as a national federation in the EGEE project.
Now the RDIG infrastructure comprises 17 Resource Centers with
> 5000 CPU (12000 kSI2K) and > 3200 TB of disc storage.
RDIG Resource
Centres:
– ITEP
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
– JINR-LCG2
– Kharkov-KIPT
– RRC-KI
– RU-Moscow-KIAM
– RU-Phys-SPbSU
– RU-Protvino-IHEP
– RU-SPbSU
– Ru-Troitsk-INR
– ru-IMPB-LCG2
– ru-Moscow-FIAN
– ru-Moscow-GCRAS
– ru-Moscow-MEPHI
– ru-PNPI-LCG2
– ru-Moscow-SINP
- BY-NCPHEP
The JINR Grid-site JINR-LCG2 support LHC experiments.
It covers 42% of the RDIG share to the LHC in 2011
RDIG
ATLAS
42%
51%
JINR-Grid
ALICE
CMS
35%
41%
JINR Grid-infrastructure for training and education – first
step towards construction of the JINR Member States
grid-infrastructure
August, 2011 - new grid site of L.N. Gumilyov Eurasian National University (Astana, Republic of
Kazakhstan) September, 2011 - at the Institute of Computer Science, Mongolian AS scientific researchers
of the institute with an active support of LIT specialists, have developed an educational Grid-site which
became a part of the educational-scientific infrastructure of the JINR Member States.
Projects started in 2011
and progressed in 2012
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Joint NRC "Kurchatov Institute" – JINR
Tier-1 Computing Centre
Project: «Creation of the automated
system of data processing for
experiments at the Large Hadron
Collider (LHC) of Tier-1 level and
maintenance of Grid-services for a
distributed analysis of these data»
Terms: 2011-2013
Type of project: R&D
Cost: federal budget - 280 million roubles,
extrabudgetary sources - 50% of the total
cost
Leading executor: NRC KI «Kurchatov
institute»
Co-executor: LIT JINR (for the CMS
experiment)
Core of the proposal:
Working prototype of the first-level center for
data processing within the LHC experiments
Technical polygon for designing systems of
distributed processing and analysis of
data obtained at future scientific
megainstallations:
FAIR (Darmstadt, Germany),
NICA (JINR, Dubna),
XFEL (Hamburg, Germany)
2012:
1. Direct 10Gbps telecommunication
channel to CERN
2. Tier-1-CMS Prototype
CPU (kSI2k) – 1000, Disk(Tbytes) – 500
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
MPD data processing model
( from “The MultiPurpose Detector – MPD
Conceptual Design Report v. 1.4 ”)
Project: Model of a shared
distributed system for
acquisition, transfer and
processing of very large-scale
data volumes, based on Grid
technologies, for the NICA
accelerator complex
Terms: 2011-2012
Cost: federal budget - 10 million
rubles, extrabudgetary
sources - 25% of the total
cost
Leading executor: LIT JINR
Co-executor: VBLHEP JINR
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Tier 3 sites monitoring project Interactive analysis
plots, fits, toy MC,
studies, …
• Traditional LHC Distributed Computing
Tier-0 (CERN) → Tier-1 → Tier-2
• Additional → Tier-3
• Needs → the global view of the LHC computing activities
• The LIT participates in the development of a software suite
for Tier-3 sites monitoring
• A virtual testbed has been created at JINR which allows
simulation of various Tier3 clusters and solutions for data
storage.
2 WNs
2 WNs
2 WNs
2 WNs
Tier-3
DPD
120+ Sites Worldwide
Tier-2
AOD
Headnode + WN
PBS (Torque)
OSS
Client
Lustre
MDS
Headnode
PROOF
2 servers
Manager (redirector)
XRootD
Headnode + WN
Condor
2 servers
Manager (redirector)
XRootD
Headnode
Oracle Grid Engine
12 Sites Worldwide
Ganglia
web
frontend
development
host
Tier-1
Raw/AOD/ESD
CERN Analysis Facility
Tier-0
Raw
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
INFORMATION AND SOFTWARE SUPPORT OF THE
INSTITUTE'S ACTIVITIES






Consecutive development and support of
the library JINRLIB as well as support of
program libraries developed by other
research centres and organizations and
information, and technical help to users.
http://www.jinr.ru/programs/
Development and support of informational
WWW/FTP/DBMS-servers
Creation and storage of electronic
documents related to the JINR scientific
and administrative activity
Development, creation and support of
information web-sites of workshops and
conferences
Support, modernization and maintenance of
computer systems of administrative
databases (in cooperation with STD AMS
JINR).
The portals of journals PEPAN and PEPAN
Letters (http://pepan.jinr.ru) functioning, a
specialized interface has been designed for
the authors, editors, referees and
administrators providing interconnections
with the databases of the journals
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
JINR DOCUMENT SERVER – Open Access repository of JINR
Visualization of Search and Navigation
The currently created
JINR's institutional
repository (bilingual),
JDS (http://jds.jinr.ru),
based on the OAI
paradigm, makes
available on-the-fly the
results of scientific
research performed at
JINR for physical
community over the
world. JINR scientists
get access to a vast
amount of documents in
the field of nuclear,
particle physics and
related areas.
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Activity Planning Tool (APT) and
Earned Value Management (EVM) at JINR for NICA
Project requires strong progress control during creation phase and in further maintenance.
The good example of such facility is LHC at CERN. The main idea is to “extract” EVM from
the APT to be able to implement it in Dubna as a stand alone application for the NICA project.
In the middle of September a plan of required works was created and approved by both sides.
The project consists of 2 phases:
·Preparation, setup and launch a
prototype of EVM (for NICA) hosted
at CERN.
·Implement a specific solution
hosted at JINR
Computational Physics
Specific tasks:







development of new mathematical methods and tools for
modeling physical processes and experimental data analysis;
creation of methods and numerical algorithms for modeling
magnetic systems;
elaboration of software and computer complexes for
experimental data processing;
elaboration of numerical algorithms and software for the
simulation of complex physical systems;
development of methods, algorithms and software of
computer algebra;
contribution to the development of the new generation
computing tools;
application of the developed methods and algorithms to
topics in other science and technology branches
(nanotechnology, biology, medicine, economy, industry, etc.).
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
HepWeb Overview
http://hepweb.jinr.ru/
Provides: WEB access to computing resources of LIT
for Monte Carlo simulations of hadron-hadron, hadronnucleus, and nucleus-nucleus interactions, by means
of most popular generators.
Realization: service - oriented architecture.
Goals:





Monte Carlo simulations at the server
Provide physicists with new calculation/simulation tools
Mirror site of GENSER of the LHC Computing GRID
project
Provide physicists with informational and mathematical
support
Introduce young physicists into HEP world
Project HepWeb team:E. Alexandrov, V. Kotov, V. Uzhinsky, and P. Zrelov
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
A structure of the HepWeb
service based on a distributed
computer system
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Program at HepWeb.jinr.ru
FRITIOF
CASCADE
Project
(FTF model by V. Uzhinsky)
Analysis and description of exp. data
obtained by VBLHE (E.N.Kladnitskaya et al.)
UrQMD
HIJING
Glauber Cross Sections
Reggeon Cross Sections
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Track visualization in TPC of NICA/MPD
Au + Au at √sNew
= 7 GeVadditions
to
Visualization of freezeout surface
“JINRLIB”
Au + Au at √s = 7 GeV
Collaboration LIT – FLNP
Au + Au at √s = 15 GeV
Collaboration LIT – FLNP
Visualization for Heavy Ion Collision
Experiments
G. Musulmanbekov, A. Solovjev (LIT)
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Data smoothing within BEM
The basic element method (BEM) for decomposition
of an
b
algebraic polynomial via basic elements (one cubic
and three parabolas) is developed within the four-point
transformation technique. This gives a lever at solving
various tasks of applied mathematics. So, in the
polynomial approximation and smoothing problems
the BEM presentation allows one to reduce the
computational complexity of the algorithms and to
increase their stability to errors by choice of the
internal relationship structure between variable and
Basic elements
Basic functions
Comparison with classical method
control parameters.
Smoothing
N.D. Dikoussar, Мат. Моделирование 22, № 12, 115-136 (2010)
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Methods and tools for modeling physical
processes and experimental data analysis in
particle and relativistic nuclear physics
The foreseen
continuation
of JINR participation
in large scale
energy
• 1.
Further
development
of the interactive
system HEPWEB
and high
its integration
physics
(NICA/MPD, ATLAS, CMS, CBM, Panda, etc.) needs further
in the
Gridprojects
infrastructure.
developmentalgorithmic,
of a strong and
dedicated
computer
support
these activities
•
Mathematical,
software
support
for theto
GRID-based
data
analysis
the LHC
experiment ATLAS
and the experiment HONE.
withinwithin
the GRID
environment
.
• 2.
Use
The
of LIT
statistical
supportmethods,
to the experimental
Monte Carlo
particle
methods,
and relativistic
artificial neuronal
nuclear physics
networks
cellular automata, wavelets, fractals, etc., for experimental
research(ANN),
assumes:
installation
modeling and
- the development
of data
new analysis.
methods for data analysis in the specific context
•
Extraction
of physically
of each
experimentsignificant information in conditions of partial
uncertainty
and methods
for hypothesis decision. of tools for computer
- performing
the development/upgrade/update
•
Development
of ANN
and
fordesign
hadronic
calibration
simulations
andalgorithms
involvement
insoftware
the project
as requested
byoffuture
the ATLAS
calorimeter
complex of
and
adaptation
of
conceptual
developments
thetheir
projects,
as welltoasthe
theconditions
physical realization
the experimental
data analysis
at ATLAS.
of the corresponding
facilities
•
•
Mathematical, algorithmic, and software support for numerical simulations
of development topics within NICA/MPD and CBM projects.
Modeling magnetic systems in NICA/MPD facilities.
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Modeling theoretical problems in particle and
relativistic nuclear physics
•
•
•
•
Mathematical modeling, analytical and numerical investigations on the understanding of the
occurrence of the mixed phase in high energy heavy-ion collisions foreseen within the future
NICA-MPD project. Investigation of quark interaction models of hot and dense nuclear matter
will be continued with the development of mathematical tools and methods for the analysis
of the new phase. Numerical investigations of the chiral phase transition mechanisms from
the quark matter to the quarkonium phase will be done.
Investigation of the vacuum structure in the relativistic heavy ion collisions at NICA, using
the Schwinger mechanism of pair creation, to study aspects of possible collision scenarios
and, in particular, the tunneling processes of quark-antiquark pairs from the vacuum by a
color chromo-electric field.
3. The computer solution of theoretical models of physical
processes expected in the future NICA/MPD project.
4. The identification and solution of unsolved LHC “wishlist”
problems will be continued, based on our expertise in applied
Numerical studies, using parallel codes, of the mechanisms and scenarios of the
mathematics, computer algebra and symbolic programming.
confinement within infrared QCD range, through the optimization of the procedure of fixing
the Lorentz and Coulombian gauges for the non-perturbative computation of the gluon and
phantom propagators, of the running coupling constant in QCD and other non-gaugeinvariant quantities in lattice QCD models.
Development of algorithmic methods, using new computer algebra tools, for the computation
of multi-loop Feynman integrals with the aim to get high precision comparison of modern
theoretical models with experimental data expected at LHC in CERN.
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
CBM(GSI) - Development of Methods and Algorithms for
Global Tracking
December, 2010 - a first data
production on the CBMGRID, with
LIT and GSI as participating sites.
Produced 5,000,000 UrQMD events
(35 AGeV Au+Au, min.bias).
Fast parallel algorithms were
developed for event reconstruction in
the CBM
Modern technologies for parallelization:
1)Vectorization (SIMD - Single Instruction
Multiple Data)
2)Multithreading (many cores CPU)
Event reconstruction algorithms:
1)Tracking: Kalman filter and track following
2)Ring reconstruction: Hough Transform
TASK:
• Development of methods, algorithms and
codes for global tracking in STS, RICH and
TRD track matching; Kalman filter for track
fitting;
• Further development of pattern
recognition and ring reconstruction
algorithms for RICH;
• Development and comparative study of
different algorithms for accurate momenta
reconstruction;
• Development of algorithms for accurate
reconstruction and selection of primary and
secondary vertexes;
• Magnetic field calculations;
• GEANT simulations.
Results:
1)High track and ring reconstruction
efficiency (93-95%)
2)Very fast algorithms
Initial
Time
[ms/event]
Parallel
Time
[ms/event]
Speedup
Tracking
730
1.5
487
Ring
reconstruction
375
2.5
143
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Two PhD thesis were delivered on the
basis of these studies
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Magnetic systems modeling for
JINR experiments
a)
b)
c)
Model of ½ superconducting
dipole magnet for CBM (up) and
the magnetic fields (down)
calculated with the computer
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
code TOSCA
3D models of
Booster quadrupole
(a), dipole magnets
(b), and the dipole
magnet for NICA
collider (c)
Computational Nuclear Physics
•
•
•
•
•
•
Study of the structure and scattering mechanism of stable and exotic
neutron-rich nuclei at intermediary collision energy.
Generalization of the nucleus-nucleus scattering microscopic model to kaonnucleus collisions.
Specific topics
are proposed
for investigation
Computation
using free-less
parameter models
of observablesin
related to the
interaction
of heavy ions
withthe
nuclei
and Laboratories
particles.
collaboration
with
JINR
(FLNR,
Modeling
gravitating
fast rotating
super-dense
configurations
use of the
FLNP,
and BLTP)
and with
research
centers by
from
Bethe-Johnson, Oppenheimer-Volkov and Reid equations of state of the
Russia,
Poland,
Czech
Republic.
nuclear
matter.Egypt,
Analytical
and numerical
definitions
of critical regimes and
bifurcations in the specific modeling systems.
Modeling the ionizing processes in CO2 under high energy electron
bombardment and calculations of relevant observables.
Mathematical modeling of giant nuclear resonances, fusion, and fission of
atomic nuclei. Numerical investigation of the magnetic transport coefficients
in nuclear matter.
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Condensed matter physics,
nanotechnologies
•
•
•
•
•
•
•
•
•
Nano-structure and properties of the multi-component phospholipid
vesicular systems.
Specific topics are proposed for investigation in
Hetero-structural materials based on transition metal oxides.
collaboration with several JINR Laboratories
Thermal processes, change of physical-chemical properties, and formation of
(FLNP, tracks
FLNR,
LRB)
andwith
with
research
nano-structural
in BLTP,
materials
irradiated
high
energy heavy ions.
centers
from and
Russia,
Slovakia,
Romania,
Vietnam,
Generation,
interaction,
evolution
of localized
nano-structures
in open
dissipative
systems.Armenia, Bulgaria, South Africa.
Mongolia,
Electromagnetic response of nano-particles and nano-materials and
computer simulations in nanoplasmonics.
Propagation of electromagnetic impulses in many-component heterogeneous
media (with application to BOREXINO experiment).
Two-band Hubbard model of high-critical temperature superconductivity.
Simulation of gauge symmetric discrete dynamical systems (e.g., nanostructures) using computer algebra and computational group theory.
Fluid diffusion processesV.V.and
transitions
in porous materials.
Ivanovphase
(LIT JINR) GRID’2012,
JINR, Dubna
COMPUTER ANALYSIS OF MODEL
NANO-STRUCTURES IN EXTERNAL FIELDS
Spectral, optical, and transport characteristics of quantum wells, quantum wires, and quantum dots
of semiconductor nanostructures have been investigated by means of computer simulation codes
developed in LIT-JINR during 2008-2011. Symbolic-numerical algorithms and a problem-oriented
complex of programs, are available via the Computer Physics Communication Program Library
(downloaded from the CPC program library more than 600 times)
(Laser-stimulated radiative
(Eigenenergies and eigenfunctions in terms of quantum dot shape)
recombination rate λSRR of
positron and antiproton in a
quantum wire)
A.A. Gusev, O. Chuluunbaatar, V.P. Gerdt, V.A. Rostovtsev, (LIT), S.I.Vinitsky (BLTP), V.L. Derbov, V.V. Serov,
V.V.(INP
Ivanov
(LIT JINR)
GRID’2012,
JINR,
Dubna Univ. Yerevan)
(Saratov StU), P.M. Krassovitskiy
Almaty),
H.A.
Sarkisyan
(Slavonic
Ab initio quantum-chemical cluster calculations of electronic
and magnetic properties of systems with strong electron
correlations
Efficient computer codes and their application for
calculations of electronic and magnetic properties in
a variety of newly synthesized materials are
discussed. The special attention is paid to local
electronic structure of transition metal (TM) oxides,
a particular family of strongly correlated systems.
TM oxides (known also as 3d-metal oxides) have
inspired a variety of applications using effects such
as
high-Tc
superconductivity,
colossal
magnetoresistance, multiferroicity, etc.
Cluster of cornersharing CuO4
plaquettes in
Sr2CuO3 chosen
in calculations.
Representative results of
calculations, including the JahnTeller -deformed cluster
L. Siurakshina (LIT), V. Yushankhai(BLTP) et al.
Nature Scientific Reports 1, 65 (2011),
Phys. Rev. B, 2012 (in press).
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
LOCALIZED TIME-PERIODIC SOLUTIONS OF THE
PARAMETRICALLY DRIVEN DAMPED NONLINEAR
SCHRÖDINGER EQUATION
E.V. Zemlyanaya, I.V. Barashenkov, T.C. van Heerden, N.V. Alexeeva
Laboratory of Information Technologies, JINR
Department of Mathematics, University of Cape Town, South Africa
• Stationary, periodic and quasiperiodic two-soliton complexes of parametrically
driven damped NLS have been investigated numerically
• A chart of stationary and oscillatory two-soliton attractors on a plane of two
parameters of NLS has been compiled
• Stable stationary and time-periodic complexes are shown to coexist; interconnection
between coexisting branches of soliton solutions is analyzed
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Computer algebra and quantum computing.
Computing tools of a new generation
•
•
•
•
•
•
•
•
•
•
•
•
Methods and algorithms to speedup simulation of heavy ion propagation in matter for LHC and
"SHINE" experiments in CERN.
Further development of original (involutive) algorithms and their implementation in Maple,
Mathematica, C/C++.
Cellular automata studies on three-valent lattices with symmetric local rules and their application to
simulations of new carbon based materials.
Parallel algorithms for elliptic problems based on high order projective-grid schemes.
Further development of the Bayesian adaptive quadrature.
Involutive algorithms and programs for modeling multi-qubit quantum register by means of
polynomial equations.
Numerical solution of problems simulating complex quantum micro-objects and micro-systems.
Symbolic-numeric algorithms for modeling atomic systems and quantum dots in external fields (qubit
realization in quantum computers).
Self-consistent theory for Bose condensation in systems with strong stochastic potentials directed to
devising quantum computation control. Entanglement adjustment in cold atoms traps with coherent
topological modes for quantum information processing.
Analytical and numerical solutions of evolution and spectral problems for the transmission of
quantum information in nano-dimensional quantum systems. Modeling optical fibers transparent to
signals with given spectral characteristics.
Symbolic-numeric algorithms and programs for quantum objects interacting with time-dependent
magnetic fields.
Non-standard extension of the circle
and ellipse fitting algorithm developed for the CBM experiment
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
outside physics.
Specific topics are proposed for investigation in
collaboration with several JINR Laboratories (BLTP,
VBHEPL, FLNP), CERN, and with research centers
from Russia, Germany, Slovakia, Romania, Vietnam,
Mongolia, Armenia, Bulgaria, South Africa, and other
countries.
Computational biophysics, bioinformatics, and
biosensor (nano)technologies
•
•
•
•
•
New methods in computational biophysics for: molecular cartography of
protein
and nucleic
acidare
surfaces;
multiplefor
spatial
smoothing of protein-DNA
Specific
topics
proposed
investigation
in
interfaces; computation of electrostatic potential of biopolymers and
collaboration
with
several
JINR Laboratories
macromolecular
structures
(long
DNA, membranes,
protein and polymer
(FLNP,
FLNR, BLTP, LRB) and with research
nano-layers,
ribosomes).
Distributed
computing
for Poisson-Boltzmann
equation
centers
frommulti-grid
Russia,methods
Slovakia,
Romania, Vietnam,
with application
to physical
bioinformatics
(reciprocal
Mongolia,
Armenia,
Bulgaria,
South protein-nuclein
Africa.
recognition, ferment-substrate and ferment-ferment interactions).
Distributed computing in computational biosensor nanotechnology (data
basis for immobilized proteins, expert system for biosensor design).
Realization of an artificial neural network (ANN) expert system to
automatically identify the wheat cultivar from electrophoretogram spectra.
Investigation of the evolution of biological systems with complex behavior
demonstrating dynamical phase transitions and strong non-linear effects.
Complex system dynamics control by parametric regularization.
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
MATHEMATICAL MODELING AND
COMPUTATIONAL PHYSICS 2011
Stara Lesna, High Tatra Mountains, Slovakia
July 4 – 8, 2011
Organizers
JINR, LIT (Dubna)
Institute of Experimental Physics (Košice, Slovakia)
Technical University (Košice, Slovakia)
Pavol Jozef Safarik University (Košice, Slovakia)
Topics
– mathematical methods and tools for
modeling complex physical and technical
systems
– methods and computer complexes for
experimental data processing
– methods, algorithms, and software of
computer-algebra
– computational chemistry, biology, and
biophysics
– new generation computing tools, distributed
scientific computing
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
http://
nec2011.jinr.ru
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
http://litpage.jinr.ru
http:// lit.jinr.ru
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Future: basic principles and general
perspectives
The formation of a unified Grid-environment of the
JINR Member States is a basis of the 7-year plan
within the direction Networks. Computing.
Computational Physics.
There are three main levels within the Grid-environment:
network, resource and applied.
The network level deals with high-speed backbones and
telecommunication links.
The resource level consists of high-performance
computing clusters, and data storage systems joined in a
unified Grid and cloud environment with the help of basic
software and middleware.
The applied level involves research topics the solutions of
which have been adapted to the Grid&cloud environment
in frames of corresponding virtual organizations.
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Current hot topics are clouds,
multicore, virtualisation, hybrid
computing technologies
Will they still seem important
in 2020?
43
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Applied level developments of
the JINR Grid-environment (I)
1. The applied level covers the user applications working in a
virtual organization (VO) environment which comprises
both users and owners of computing resources.
2. In the existing Grid-systems, a VO defines a collaboration of
specialists in some area, who combine their efforts to
achieve a common aim.
3. The virtual organization is a flexible structure that can be
formed dynamically and may have a limited life-time.


VOs working within the WLCG project are the VOs on the LHC
experiments - ATLAS, CMS, Alice, LHCb, the first three being carried out
with the noticeable and direct participation of the JINR. Nowadays, as a
Grid-segment of the EGEE/RDIG, the JINR CICC supports computations
of the virtual organizations registered in RDIG ( LHC experiments,
BioMed, PHOTON, eEarth, Fusion, HONE, Panda.
In the future, as the interest arises at a large-scale level, VOs can be
organized at JINR in the fields of nuclear physics and condensed matter
physics and, most probably, in the new promising direction related to the
research of the nanostructure properties.
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Applied level developments of the
JINR Grid-environment (II)





The creation of new VOs gets possible and
necessary under maturation of the
algorithmic approaches to the problem
solution, the development of
corresponding mathematical methods and
tools:
methods and tools for simulation of
physical processes and analysis of
experimental data software and computer
complexes for experimental data
processing;
numerical methods, algorithms and
software for modeling complex physical
systems;
methods, algorithms and software of
computer algebra;
new computing paradigms;
adaptation of specialized software for
solving problems within the Gridenvironment.
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna
Thank you for your attention !
V.V. Ivanov (LIT JINR) GRID’2012, JINR, Dubna