\TN{05--6--1048--2003/2010}{1}{\tscom} {Information, Computer and Network Support of JINR's Activity} {V.V.~Ivanov\\V.V.~Korenkov\\P.V.~Zrelov} \TA Provision of theoretical and experimental research conducted by the JINR Member State institutes at JINR and other scientific centers with modern telecommunication, network and information resources. In order to fulfill the task, it is necessary: to provide JINR and its Member States with high-speed telecommunication data links; to provide fault-tolerant operation and further development of the high-speed and protected local area network of JINR; to provide development and maintenance of the distributed high-performance computing infrastructure and mass storage resources; to provide information, algorithmic and software support of the research-and-production activity of the Institute; to provide a reliable operation and development of the JINR Grid-segment as a component of the global Grid-structure. %%\vspace*{4mm} {\bf Expected main results in 2010:} \begin {itemize} %1 \item Development of the JINR external telecommunication links: lunching and maintenance of the reliable functioning of the 10 Gbps high-speed JINR-Moscow data link on the basis of SCC ``Dubna''. Optimization of access to the Russian and global networks (RBNET, RUNNET, RUHEP, RASNET, GEANT3). Con\-struc\-tion of a system of IP-telephony in JINR. Securing reliable operation of JINR connections with Tier1 centers: CERN - for CMS experiment, FZK (Karlsruhe) - for ALICE experiment and SARA (Amsterdam) - for ATLAS experiment. Start-up of the project on the development of the corporate network of JINR and its Member States. %2 \item Provision of secured, reliable and failure-tolerant work of the JINR backbone main communication facility; modernization of the power supply of the central LAN facility. Provision of the reliable and effective operation of the Institute's gigabit network highway. Stage-by-stage transition of the JINR Backbone to a data transfer rate of 10 Gbps. %3 \item Development and maintenance of a reliable functioning of the JINR Central Information Computing Complex (CICC). Rise of the CICC performance and disk space increase for data storage needed by ATLAS, ALICE, CMS experiments and other projects of the Institute. Provision of support of general purpose software, monitoring operation nodes, information support, user registration, and consulting service of the JINR CICC. Development of the distributed and parallel computing paradigms. Provision of efficient data flow control for processing, storage and effective search within mass memory systems. Realization in JINR CICC of the prototype of a dynamic center for data processing using the principles of "visualization" and service - oriented architecture. %4 \item Further development of the hardware and software environment for information, algorithmic and software support of the research activities under way at JINR and JINR Member State institutes on the CICC basis. Technical support of the JINR website. Modernization and support of other information servers of JINR and LIT. Development of retrieval systems at JINR sites. Creation of a website of the editions of ``Physics of Elementary Particles and Atomic Nuclei'' and ``Particles and Nuclei, Letters'' journals.
Creation and support of information systems and databases in cooperation with other JINR subdivisions, including administrative structures. Development of the system of libraries of electronic documents related to the JINR scientific and administrative activity. Development of the system of electronic libraries of scientific periodical publications with access to full-text electronic versions of journals on JINR research field. Development, creation and support of informational websites of various workshops and conferences as well as support of sites of JINR subdivisions and sites of conferences in a hosting mode (by request). Further development of the JINRLIB library: update of the library with new programs created at JINR; development of new programming systems, first of all, freely distributed ones; improvement of the quality of statistics of the Library's programs use; development of dynamic WEB-applications. Support of the international program libraries CPCLIB, CERNLIB. Support of the specialized WWW-server, provision of electronic access to programs and documentation. Information and technical support of the users.

Creation and development of parallel analogues for traditional programs of numerical methods, where the MPI package is supposed to be the basic tool of paralleling, and the multicore processors are the basic computing platform. Research on the efficiency of solving computing tasks on the JINR CICC clusters. Consecutive development and modification of re-engineering technology of distributed computations: further modification of the F2F converter; adding means of automating routine works while translating Fortran programs under package MPI control. Application of re-engineering technology to the solution of a number of large computing tasks.
Implementation and development of paperless electronic document circulation information system at LIT.
Development of training courses and practical classes on advanced information technologies. %5 \item Development of the JINR Grid segment as part of the global Grid infrastructure with a full-function set of services: a) raising of infrastructure WLCG at JINR, b) support of basic services of the RDIG infrastructure, c) development of the system of monitoring and accounting the resources of the Russian LCG/EGEE segment; d) support of Web-portals for the projects WLCG and EGEE in Russia. De\-ve\-lop\-ment and support of the middleware and applied software of the Grid-systems: a) certification and testing of new Grid-components, b) improvement of instrumental means for monitoring the task performance within the Grid-environment (Dashboard, CMS Production, FTS, Condor-G, MCDB). Creation of a Grid-infrastructure within the joint Grid-projects with South Africa, Romania, Czech Republic and Ukraine. Participation in the projects SKIF-Grid and GridNNN (Construction of a Grid-system of the national nanotechnological network).
Development of a research Grid-structure for testing new components of the middleware of Grid-structures, development of methods of "gridification" of applied software and for work in the field of interoperability of various Grid-systems. Support and expansion of opportunities of the HEPWEB system by introducing new generator programs, development of special opportunities for specific experiments on LHC (by request). Development of the training system on Grid-technologies on the basis of the Grid-laboratory and further development of its technical basis. Continuation of work within the project "Dubna-Grid". Expansion of the JINR segment in frames of the system of metacluster computations "Dubna-Grid". \end {itemize} \begin{stage-t} % 1 \item \PS{Providing JINR and\\ its Member States with high-speed telecommunication\\ data links}{Korenkov V.V.\\Dolbilov A.G.}{\null}\\ \PL{LIT}{}{Korenkov V.V. + 10 per.} %2 \item \PS{Development of the high-speed,\\ fault-tolerant, and protected\\ JINR local area network}{Ivanov V.V.\\ Popov L.A.}{\null}\\ \PL{LIT}{}{Ivanov V.V. + 6 per.\\Popov L.A. + 12 per. \\Emelin I.A. + 5 per.}\\ \PL{DLNP}{Dolbilov A.G.}{Churin I.N.\\Kovalenko R.V.}\\ \PL{LRB}{Krylov V.A. }{}\\ \PL{BLTP}{Sazonov A.A.}{}\\ \PL{FLNP}{Prikhodko V.I.}{Sukhomlinov G.A.}\\ \PL{VBLHEP}{Potrebenikov Yu.K.}{Shchinov B.G.}\\ \PL{FLNR}{Skobelev N.N.}{Polyakov A.G.}\\ \PL{UC}{Pakuliak S.Z.}{Semeniushkin I.N.}\\ \PL{SCAR}{Samoilov V.N.}{} %3 \item \PS{Development of the distributed \\high-performance computing\\ infrastructure and\\ mass storage resources}{Ivanov V.V.\\Korenkov V.V.\\ Mitsyn V.V.}{\null}\\ \PL{LIT}{}{Ivanov V.V. + 4 per.\\ Mitsyn V.V.+ 7 per.\\Astakhov N.S. + 8 per.} %4 \item \PS{Development of programming \\environment for information, algorithmic, and\\ software support of the JINR\\ research-and-production activity}{Zrelov P.V.\\ Korenkov V.V.}{\null}\\ \PL{LIT}{}{Zrelov P.V. + 5 per.\\Korenkov V.V.+ 3 per.\\Gerdt V.P. + 1 per.\\ Kalmykova L.A.+ 8 per.\\Musulmanbekov G.G.\\Nikonov E.G.\\ Raportirenko A.M.\\ Sapozhnikov A.P.\\ Sapozhnikova T.F.+ 4 per.\\Strizh T.A. + 1 per.\\Shirikov V.P.}\\ \PL{SOIC}{Russakovich N.A.}{Borisovsky V.F.}\\ \PL{UC}{Fursaev D.V.}{Pakuliak S.Z.} %5 \item \PS{Development of the JINR \\Grid-segment as a component of the \\global Grid infrastructure}{Ivanov V.V.\\Korenkov V.V.\\Strizh T.A.}{\null}\\ \PL{LIT}{}{Ivanov V.V. + 12 per.\\Korenkov V.V. + 16 per.} \end{stage-t} \begin{intcoop} \mtab{Armenia}{Yerevan}{YerPhI} \mtab{}{}{IIAP NASA} \mtab{}{}{YSU} \mtab{Belarus}{Minsk}{NC PHEP BSU} \mtab{}{}{JIPNR-Sosny NASB} \mtab{}{}{BNTU} \mtab{Bulgaria}{Sofia}{INRNE BAS} \mtab{}{}{SU} \mtab{CERN}{Geneva}{} \mtab{Czech Republic}{Prague}{IP ASCR} \mtab{Germany}{Hamburg}{DESY} \mtab{}{Heidelberg}{Univ.} \mtab{}{Karlsruhe}{FZK} \mtab{}{Zeuthen}{DESY} \mtab{Moldova}{Kishinev}{ASM} \mtab{}{}{IAP ASM} \mtab{Poland}{Cracow}{CYFRONET} \mtab{}{Poznan}{IP AMU} \mtab{}{Wroclaw}{WUT} \mtab{Romania}{Bucharest}{IFIN-HH} \mtab{Russia}{Moscow}{CC RAS} \mtab{}{}{Comstar-UTS} \mtab{}{}{IMM RAS} \mtab{}{}{IOC RAS} \mtab{}{}{IPI RAN} \mtab{}{}{ISP RAS} \mtab{}{}{ITEP} \mtab{}{}{JSCC RAS} \mtab{}{}{KIAM RAS} \mtab{}{}{MPEI} \mtab{}{}{MSU} \mtab{}{}{RCC MSU} \mtab{}{}{RIPN} \mtab{}{}{RRC KI} \mtab{}{}{RSCC} \mtab{}{}{SINP MSU} \mtab{}{Cherkessk}{KCSTA} \mtab{}{Chernogolovka}{SCC IPCP RAS} \mtab{}{Dubna}{Adm. of Dubna} \mtab{}{}{BSINP MSU} \mtab{}{}{``Dubna'' Univ.} \mtab{}{}{Raduga} \mtab{}{}{SCC ``Dubna''} \mtab{}{Gatchina}{PNPI RAS} \mtab{}{Nizhniy Arkhyz}{SAO RAS} \mtab{}{Novosibirsk}{BINP SB RAS} \mtab{}{Pereslavl-Zalesskiy}{PSI RAS} \mtab{}{Protvino}{IHEP} \mtab{}{Puschino}{IMPB RAS} \mtab{}{St. Petersburg}{FIP} \mtab{}{Troitsk}{INR RAS} \mtab{Slovak Republic}{Kosice}{IEP SAS} \mtab{}{}{PJSU} \mtab{South Africa}{Cape Town}{UCT} \mtab{Sweden}{Lund}{LU} \mtab{Ukraine}{Kharkov}{IERT NASU} \mtab{}{}{KFTI NASU} \mtab{USA}{Chicago, IL}{UChicago} \mtab{}{Pasadena, CA}{CALTECH} \mtab{Uzbekistan}{Tashkent}{IAP NUU} \mtab{}{}{IM UAS} \end{intcoop} \TN{05--6--1060--2005/2010}{1}{\tscom} {Mathematical Support of Experimental and Theoretical Studies Conducted by JINR} {V.V.~Ivanov\\Gh.~Adam\\P.V.~Zrelov} \TA Performance of top research in computational mathematics and computational physics, aimed at solving specific problems arising in experimental and theoretical research carried out with the participation of JINR. Mathema\-ti\-cal description and algorithmic reformulation of the physical models such as to meet the requirement of computing solution in polynomial time. Development of methods and algorithms, able to extract physicall insightful information from experimental data. Simulation of physical processes within experimental insta\-lla\-ti\-ons. Algo\-rithm implementation into efficient and reliable hardware adapted programs. The successful realization of such interdis\-cip\-li\-nary research efforts assumes: development of mathematical methods and tools for modeling physical processes and experimental data analysis; creation of methods and numerical algorithms for modeling magnetic systems; development of software and computer complexes for experimental data processing; ela\-bo\-ration of numerical algorithms and software for simulation of complex physical systems; development of methods, algorithms and software of computer algebra; development of computing tools of a new generation. Application of the developed methods and algorithms to other topics in science and technology (nanotechnologies, biology, medicine, economy, industry, etc.). %%\vspace*{4mm} {\bf Expected main results in 2010:} \begin {itemize} %1 \item Modeling electronuclear installations controlled by electron beams. Modeling photonuclear reactions of 30 MeV - 1 GeV electron beams with various targets. Mathematical simulation of nuclear physical processes accompanying interactions of relativistic nucleons and nuclei with matter. Simulation of neutron generation inside large targets under irradiation with highly energetic particles and nuclei. Study of the proton fraction of the secondary particle flux in electronuclear targets and blankets. Analysis of the possibility of using easy material thin targets in an accumulating ring for $\sim$100 MeV protons or deuterons. Simulation of polarization processes in the experiment STAR at RHIC. Nuclear structure modeling and visualization within discrete symmetry models. Numerical investigation of the scattering mechanism in the reaction $^{8}$He+p and of the structure of the exotic nucleus $^{8}$He and generalization of the microscopic model to the case of kaon-nuclear scattering. Generalization of the methods and software devoted to small-angle neutron scattering experimental data processing to encompass nanostructures and synchrotron scattering data on multi-component phosphor-lipid membranes. Generalization of the nonlinear thermal spike model to the description of thermo-elastic waves and power losses of the heavy ions inside the electronic and ionic subsystems. Study of the mutual influence of the moisture and heat transfer processes in porous materials within a comprehensive nonlinear model. Calculation of nuclear reaction cross-sections in the area of ultralow energies under consideration of electronic device screening. Mathematical simulation of hadron phase transitions achievable at the JINR accelerating installations. Computation of radiative corrections to the $K_{e4}$-decay probability rate (for the NA48/2 experiment). Calculation of total inelastic cross-sections of the interaction of $\pi K$-atoms with atoms of the target (for experiment DIRAC). Computation of quarkonia pair ($J/\psi$ and $ \chi$) cross-section definition in proton - proton and nucleus - nucleus collisions (for experiments ATLAS and ALICE). Modeling and calculation of nuclear effects in the creation of large transverse pulse hadrons in nucleon-nucleon, nucleon-nucleus and nucleus-nucleus collisions at RHIC and LHC energies. %2 \item Computer simulation and optimization of superconducting magnets for the accelerator SIS100 designed within the FAIR project. Use of existing and newly developed software for modeling magnetic systems for experiments conducted by JINR. Computer simulation of the dipole magnet and the absorber for the CBM experiment. Development of methods for modeling the operating modes of the multi-purpose isochronous cyclotron. Development of finite element numerical methods with high order harmonic basis functions for solving elliptic boundary-value problems and their application to magnetostatics. %3 \item Futher development of the TDAQ WEB Monitoring Interface for remote access to the Control Room ATLAS at CERN and implementation in LIT the remote monitoring of data received during sessions of ATLAS experiment. Development of neural network algorithms and software and their tuning to the conditions of data analysis at ATLAS. Development of methods and algorithms for event reconstruction in the CBM experiment: particle identification by RICH, TRD, MUCH, RPC detectors; track recognition in STS, TRD, MUCH, and global tracking for the complete system of detectors, including RICH. Inves\-ti\-gations in the design optimization of various CBM components (RICH, TRD, MUCH, etc.). Development of a software complex for event visualization in CBM, participation in the activities on the development of the CBM framework software complex. Participation in the development and implementation of ma\-the\-ma\-ti\-cal support of the projects NICA-MPD and CBM on search and study of mixed phase in high energy heavy ion collisions. Development of new wavelet algorithms for resonance parameter reconstruction in the invariant mass spectrum of nucleus-nucleus interactions and the search for hadron jets in high multiplicity events, including events with polarized protons (experiment STAR). Development of algorithms of search for neutrino-target vertex using information from the target tracker (experiment OPERA). Improvement of the hard muon event reconstruction code for the CMS experiment: search for new di-muon resonances and test of Standard Model predictions on the Drell-Yan processes in the TeV mass region. Analysis of diffractive photo-production of vector mesons and calculation of structure functions from data obtained in the Forward Proton Spectrometer of the H1 detector at the HERA collider. %4 \item Numerical analysis of the evolution of time-periodic particle-like excitations in a model describing the signal transmission inside optical fibers by a nonlinear parametrically driven Schroedinger equation with dissipation. Study of the conditioning classes in the Bayesian adaptive quadrature. Development of effective methods, algorithms and codes using adaptive local polynomial approximation and smoothing. Further work on effective methods and algorithms of data processing based on coordinate-parametrical polynomial model and 4-point transforms. Study of the two-photon decays of the scalar mesons in a linear sigma-model at finite temperature. Numerical and analytical investigation of the bifurcation points in models of fast-rotating gravitating systems. Determination of the dipole momenta of delta-resonances in radiative pion-nucleon scattering reactions within a field-theoretic approach with meson-nucleon and quark-gluon degrees of freedom. Dynamics derivation based on characteristic polynomials of n-th degree and applications. Development of variation-iterative schemes for the numerical solution of atom and molecule ionization models, and of ion channeling in crystals. Quantum-mechanical modeling of the propagation of the electromagnetic impulses in multi-component media; development of ``reaction-drift-diffusion'' type models for multi-component media. Study of the evolution of the fundamental and the excited states of the polaron, within the selflocalizing model of electrons in ionic crystals, in terms of the characteristics of the medium. Modeling the critical modes in double-layer heterogeneous Josephson junctions. Numerical study of the dynamics of the complex systems of nonlinear equations describing the ultra-cold atom behaviour in lattices generated from the double-well potentials. Development of a model and a code for computing track formation in the high-temperature superconductor $Bi_2Sr_2CaCu_2O_x $. Mathematical modeling of electromagnetic properties of metallic nanostructures entering as basic working elements in receivers and emitters of electromagnetic waves in SHF and UHF ranges; derivation of models describing the electromagnetic radiation of complex structures containing nanoparticles, such as coupled systems of nanoparticles and quantum dots, or microstrips containing discontinuous film; mathematical modeling of the propagation of the electromagnetic impulses in composite environments with nanoparticles (such as a layer nanoparticles-dielectric-semiconductor). Research of string Bianchi I and VI cosmological models in the presence of a magnetic fluid. Development of analytical and numerical methods of computing probabilities of pair creation of charged particles at predefined parameters of the external field. De\-ve\-lop\-ment of analytical and numerical methods for the reconstruction of the potential in models of nano-dimensional quantum structures and waveguides under the consideration of the charge carrier effective mass dependence on the space variable. Numerical investigation of dynamical complex systems describing nonequilibrium processes in nanomaterials.(Yukalova) %5 \item Modelling of dynamics of carbon and hydrocarbon nanostructures by considering them as discrete systems on symmetric lattices. Study of the gauge invariance in such systems and its connection with quantization. Investigation of quantum models on regular graphs, in particular, on lattices of (hydro)carbon nanostructures by methods of computer algebra and computational group theory. Development of numerical and analytical algorithms for research on the dynamics of quantum models of semiconducting nanostructures with oscillator and Coulomb potentials in external fields. The C++ implementation of involutive algorithms for constructing Boolean Groebner bases in view of allocation to the problems of Boolean satisfiability and to quantum computating. Application of technologies OpenCL and CUDA to speed-up parallel computations of algebraic Groebner and involute bases by means of graphic processors. Implementation in Aldor/Axiom of symbolic algorithms for Clifford algebras as generalization of Dirac's algebra of gamma-matrices. Study of dynamics of the mixed states of qubits and qutrits in a strong laser field. Creation of computer programs in the language Maple for computing two-loop Feynman diagrams of a propagator type with random weights of particles and for numerical and analytical computation of one-loop scalar integrals with massless particles and 2, 3, 4 and 5-dots on the internal line. %6 \item Development of the program QuantumCircuit for modelling quantum computations in the language Mathematica by embedding quantum algorithms into it and inclusion of this program in the international database containing the quantum computing simulators. Development of algorithmic methods for quantitative analysis of the entanglement for the mixed two-qubit states, as one of the basic resources in quantum computing. Numerical modeling of nonlinear evolution of biophysical systems and investigation of their stable states.(Yukalova) Development of analytical and numerical methods, of adaptive and parallel algorithms for solving nonlinear equations and systems of nonlinear evolution equations arising in the study of overcritical systems, of three-dimensional macromolecular structures, and in the computation of the interaction of protein molecules with liquids. Study of the functionally important genome elements from the distributions of their electrostatic potentials. Molecular cartography of DNA, RNA and proteins using a distributed computing environment. Numerical modeling of the nonlinear evolution of the biophysical systems. Development of new approaches to local network protection, control and modeling of the network traffic. Stable separation of various components of the time series of interest. New formulations and solutions of computing process optimization problems in Grid-systems under highly intensive user service requirements and various distribution time laws of application receipt. \end {itemize} \begin{stage-t} %1 \item \PS{Mathematical methods and tools for modeling physical processes and experimental data analysis}{Ivanov V.V.\\Zrelov P.V.}{\null}\\ \PL{LIT}{}{Zrelov P.V. + 6 per.\\Ivanov V.V. + 10 per.\\Polanski A. + 2 per.} %2 \item \PS{Methods and numerical algorithms for magnetic systems modeling}{Akishin P.G.}{\null}\\ \PL{LIT}{}{Akishin P.G. + 1 per.\\Yuldashev O.I. + 1 per.} %3 \item \PS{Software and computer complexes for experimental data processing}{Ivanov V.V.\\Zrelov P.V.}{\null}\\ \PL{LIT}{}{Dikusar N.D.\\Zrelov P.V. + 4 per.\\Ivanov V.V. + 6 per.\\ Kotov V.M. + 4 per.\\Ososkov G.A. + 2 per.\\Ivanchenko I.M. + 3 per.} %4 \item \PS{Numerical algorithms and software for simulation of complex physical systems}{Adam Gh.\\Puzynin I.V.}{\null}\\ \PL{LIT}{}{Adam Gh. \\ Adam S.\\Hayryan E.A. + 6 per. \\Amirkhanov I.V. + 8 per.\\ Bogolubsky I.L.\\Zemlyanaya E.V. + 1 per.\\Puzynin I.V. + 17 per.\\Puzynina T.P.\\ Serdyukova S.I.} %5 \item \PS{Methods, algorithms and software of computer algebra}{Gerdt V.P.}{\null}\\ \PL{LIT}{}{Gerdt V.P. + 8 per.\\Kornyak V.V.} %6 \item \PS{Computing tools of a new generation}{Ivanov V.V.\\Adam Gh.}{\null}\\ \PL{LIT}{}{Hayryan E.A. + 4 per.\\Gerdt V.P. + 2 per.\\Ivanov V.V. + 6 per.\\ Suzko A.A.\\Uzhinsky V.V.} \end{stage-t} \begin{intcoop} \mtab{Armenia}{Yerevan}{YSU} \mtab{}{}{IIAP NASA} \mtab{}{Ashtarak}{IPR NASA} \mtab{Austria}{Linz}{RISC} \mtab{Australia}{Sydney}{Univ.} \mtab{Belarus}{Minsk}{IM NASB} \mtab{}{}{JIPNR-Sosny NASB} \mtab{}{Brest}{BSTU} \mtab{Belgium}{Brussels}{ULB} \mtab{}{Liege}{ULg} \mtab{Bulgaria}{Sofia}{IMech BAS} \mtab{}{}{IMI BAS} \mtab{}{}{INRNE BAS} \mtab{}{}{SU} \mtab{}{}{TU-Sofia} \mtab{}{Rousse}{RU} \mtab{Canada}{Edmonton}{U of A} \mtab{}{Toronto}{IBM Lab} \mtab{CERN}{Geneva}{} \mtab{Chile}{Valparaiso}{UTFSM} \mtab{Czech Republic}{Prague}{CTU} \mtab{}{Rez}{NPI ASCR} \mtab{Egypt}{Cairo}{AEA} \mtab{}{Giza}{CU} \mtab{Finland}{Turku}{UT} \mtab{France}{Metz}{UPV-M} \mtab{Georgia}{Tbilisi}{IC GAS} \mtab{}{}{RMI GAS} \mtab{Germany}{Berlin}{FU Berlin} \mtab{}{}{HUB} \mtab{}{Aachen}{RWTH} \mtab{}{Darmstadt}{GSI} \mtab{}{Giessen}{JLU} \mtab{}{Halle}{MLU} \mtab{}{Heidelberg}{Univ.} \mtab{}{}{MPI-K} \mtab{}{Julich}{FZJ} \mtab{}{Kassel}{Uni Kassel} \mtab{}{Marburg}{Univ.} \mtab{}{Munich}{TUM} \mtab{}{Rostock}{Univ.} \mtab{}{Tubingen}{Univ.} \mtab{Greece}{Athens}{Univ.} \mtab{}{Thessaloniki}{AUTH} \mtab{Italy}{Turin}{INFN} \mtab{Japan}{Osaka}{Kansai Univ.} \mtab{Kazakhstan}{Almaty}{INP NNC RK} \mtab{}{}{PTI MS-NAS RK} \mtab{Mexico}{Mexico}{IPN} \mtab{Mongolia}{Ulaanbaatar}{NUM} \mtab{}{}{SMCS NUM} \mtab{Poland}{Warsaw}{FP WUT} \mtab{}{}{SINS} \mtab{}{Cracow}{AGH} \mtab{}{Lodz}{SINS} \mtab{}{Otwock-Swierk}{IAE} \mtab{}{}{SINS} \mtab{}{Rzeszow}{Univ.} \mtab{Portugal}{Coimbra}{UC} \mtab{Romania}{Bucharest}{IFIN-HH} \mtab{}{}{UB} \mtab{Russia}{Moscow}{CC RAS} \mtab{}{}{IMM RAS} \mtab{}{}{ITEP} \mtab{}{}{MEPhI} \mtab{}{}{MIREA} \mtab{}{}{MSU} \mtab{}{}{PFUR} \mtab{}{Belgorod}{BelSU} \mtab{}{Protvino}{IHEP} \mtab{}{Puschino}{IMPB RAS} \mtab{}{}{ITEB RAS} \mtab{}{Saratov}{SSU} \mtab{}{St. Petersburg}{FIP} \mtab{}{}{PDMI RAS} \mtab{}{Tver}{TvSU} \mtab{Slovak Republic}{Kosice}{IEP SAS} \mtab{}{}{TU} \mtab{}{Presov}{PU} \mtab{South Africa}{Cape Town}{UCT} \mtab{}{Pretoria}{UP} \mtab{Switzerland}{Zurich}{ETH} \mtab{Sweden}{Stockholm}{KTH} \mtab{}{Lund}{LU} \mtab{Taiwan}{Taipei}{AS} \mtab{Tajikistan}{Dushanbe}{TGNU} \mtab{}{Khojent}{KSU} \mtab{Ukraine}{Kiev}{BITP NASU} \mtab{}{}{IM NASU} \mtab{}{Kharkov}{ILTPE NASU} \mtab{}{}{KFTI NASU} \mtab{United Kingdom}{Manchester}{Univ.} \mtab{}{Plymouth}{Univ.} \mtab{USA}{Louisville, KY}{UofL} \mtab{}{Argonne, IL}{ANL} \mtab{Vietnam}{Hanoi}{VNU} \end{intcoop}