Conveners
Plenary
- There are no conveners in this block
Plenary
- Yury Novikov (Petersburg Nuclear Physics Institute of ‘Kurchatov Research Center’)
Plenary
- Alexander Andrianov (Saint Petersburg State University, Russia)
- Andrianov Vladimir (Saint Petersburg State University, Russia)
Plenary
- Grigori Feofilov (St Petersburg State University (RU))
Plenary
- Vladimir Zherebchevskii (St Petersburg State University (RU))
Plenary
- Vladimir Kovalenko (St Petersburg State University (RU))
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A.V. Titov (SPbU), V.V. Voronin (NRC "Kurchatov Institute"), V.A. Matveev (JINR), P. Giubellino (GSI), L. Musa (CERN), V.I. Zherebchevsky (SPbU)20/09/2021, 09:00
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Luciano Musa (CERN)20/09/2021, 09:20Plenary report
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Vladimir Voronin (Petersburg Nuclear Physics Institute NRC "Kurchatov Institute")20/09/2021, 09:50Plenary report
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Viktor Riabov (NRC Kurchatov Institute PNPI (RU))20/09/2021, 10:50Section 4. Relativistic nuclear physics, elementary particle physics and high-energy physics.Plenary report
The Multi-Purpose Detector (MPD) is currently under construction in JINR, Dubna as part of the NICA Accelerator Complex. The MPD is designed to study the properties of the strongly interacting matter in the regime of maximum baryonic density expected to be reached in heavy-ion collisions at the center of mass energy of 4-11 GeV. The detector will operate in the collider mode and is equipped to...
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Victor Kim (Petersburg Nuclear Physics Institute - PNPI NRC KI, Gatchina & SPbPU, St. Petersburg)20/09/2021, 11:25Section 4. Relativistic nuclear physics, elementary particle physics and high-energy physics.Plenary report
A brief overview of the Spin Physics Detector (SPD) experiment is presented.
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SPD is a future multipurpose experiment foreseen to run at the NICA collider, which is currently under construction at the Joint Institute for Nuclear Research (JINR, Dubna, Russia).
The physics program of the experiment is based on collisions of longitudinally and transversely polarized protons... -
Paolo Giubellino (GSI - Helmholtzzentrum fur Schwerionenforschung GmbH (DE))20/09/2021, 12:00Plenary report
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A.P. Serebrov (NRC "KI" Petersburg Institute of Nuclear Physics, Gatchina, Russia)21/09/2021, 09:00Section 5. Neutrino physics and astrophysics.Plenary report
The results of measurements of the dependences of the flux of reactor antineutrinos and their spectrum on the distance to the center of the active zone of the SM-3 reactor (Dimitrovgrad, Russia) in the range of 6 12 meters are presented. We observe the effect of oscillations at a confidence level of $3 \sigma$ in the vicinity of the parameter values $\Delta m_{14}^{2}=\left(7.3 \pm 0.13_{s t}...
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Dr Yury Malyshkin (Joint Institute for Nuclear Research)21/09/2021, 09:35Section 5. Neutrino physics and astrophysics.Plenary report
The Jiangmen Underground Neutrino Observatory (JUNO) is a neutrino experiment under construction in a 700 m deep underground laboratory near Jiangmen in South China. The main neutrino target will consist of 20 kton of liquid scintillator held in a spherical acrylic vessel. The experiment is designed for the determination of the neutrino mass ordering, one of the key open questions in neutrino...
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Dr Grigory Safronov (INR RAS)21/09/2021, 10:10Section 5. Neutrino physics and astrophysics.Plenary report
The Baikal Gigaton Volume Detector (Baikal-GVD) is the km$^3$-scale
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underwater neutrino telescope designed for the study of high-energy
astrophysical neutrino flux. The Baikal-GVD sensitivity range extends from 100 GeV to multi-PeV neutrinos and beyond. The telescope is being
in its construction phase and presently consists of 64 strings
carrying 2304 optical sensors providing an effective... -
Ms Apeksha Singhal (Forschungszentrum Jülich - IKP-2)21/09/2021, 11:05Section 5. Neutrino physics and astrophysics.Plenary report
Borexino, an ultra-pure liquid scintillator detector located at the Laboratori Nazionali del Gran Sasso in Italy, has detected solar neutrinos from the CNO fusion cycle for the first time in history. The CNO cycle is predicted to be the dominant energy production process in massive stars, while it is a secondary mechanism for the solar energy production. Its small associated neutrino flux, as...
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Nikita Titov21/09/2021, 11:40Section 5. Neutrino physics and astrophysics.Plenary report
N.A. Titov INR RAS (for the KATRIN collaboration)
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The KArlsruhe TRItium Neutrino experiment (KATRIN) is designed to improve the existed direct limit on the effective electron antineutrino mass by an order of magnitude, with a projected sensitivity of 0.2 eV/c2 at the 90% confidence level. To achieve this KATRIN is using a windowless gaseous molecular tritium source containing up to 100 GBq... -
Joanna Kiryluk (Stony Brook University)21/09/2021, 12:15Section 5. Neutrino physics and astrophysics.Plenary report
IceCube neutrino observatory is 1km3 detector located at the South Pole in Antarctica. Its construction with was completed in 2010. Since then it has continuously collected data: cosmic rays with IceTop, cosmic rays induced muons with in-ice arrays, low energy atmospheric neutrinos with Deep Core, and high energy atmospheric and astrophysical neutrinos with IceCube. The unexpectedly large...
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Grigory Nigmatkulov (National Research Nuclear University MEPhI)22/09/2021, 09:00Section 4. Relativistic nuclear physics, elementary particle physics and high-energy physics.Plenary report
One of the main aims of the relativistic nuclear physics is an exploration of the properties of hot and dense nuclear matter produced in heavy-ion collisions. The Relativistic Heavy Ion Collider (RHIC) provides a unique opportunity to map the QCD phase diagram colliding different nuclei species and varying the energy of collisions. The second phase of the Beam Energy Scan (BES) program at RHIC...
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Evgeny Kashirin (National Research Nuclear University MEPhI (RU))22/09/2021, 09:35Section 4. Relativistic nuclear physics, elementary particle physics and high-energy physics.Plenary report
NA61/SHINE at the CERN SPS performed a unique two-dimensional scan of system size and collision energy with a goal to search for a critical point of the strongly interacting matter and to explore properties of matter at the onset of deconfinement. This talk will cover highlights from recent measurements in p+p, Be+Be, Ar+Sc, and Pb+Pb reactions. The results concern hadron yields and their...
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Maya Shimomura (Nara Women's University (JP))22/09/2021, 10:10Plenary report
Relativistic heavy ion collisions have been considered as a unique way to create and study the quark-gluon plasma (QGP) where the quarks and gluons are de-confined. PHENIX, which stands for the Pioneering High Energy Nuclear Interaction eXperiment, was operated for 16 years until 2016, and has been producing physics results from the data taken until then. Over this period, collision data...
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Marzia Rosati (Iowa State University (US))22/09/2021, 11:00Section 4. Relativistic nuclear physics, elementary particle physics and high-energy physics.Plenary report
The sPHENIX experiment at RHIC is currently under construction and on schedule for first data in early 2023. Built around the excellent BaBar superconducting solenoid, the central detector consists of a silicon pixel vertexer adapted from the ALICE ITS design, a silicon strip detector with single event timing resolution, a compact TPC, novel EM calorimetry, and two layers of hadronic...
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Peter Lewis (University of Hawaii)22/09/2021, 11:35Section 4. Relativistic nuclear physics, elementary particle physics and high-energy physics.Plenary report
The Belle II experiment at the SuperKEKB energy-asymmetric e$^+$e$^−$ collider is a substantial upgrade of the B factory facility at the Japanese KEK laboratory. The target luminosity of the machine is 6×$10^{35}$ cm$^{−2}$s$^{−1}$ and the Belle II experiment aims to record 50 ab$^{−1}$ of data, a factor of 50 more than its predecessor. With this data set, Belle II will be able to measure the...
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Yuri A. Litvinov (GSI Helmholtzzentrum für Schwerionenforschung, 64291 Darmstadt, Germany)22/09/2021, 12:10Section 2. Experimental and theoretical studies of nuclear reactions.Plenary report
The storage of freshly produced radioactive particles in a storage ring is a straightforward way to achieve the most efficient use of such rare species as it allows for using the same rare ion multiple times. Employing storage rings for precision physics experiments with highly-charged ions (HCI) at the intersection of atomic, nuclear, plasma and astrophysics is a rapidly developing field of...
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Sergei Shmatov (Joint Institute for Nuclear Research (RU))23/09/2021, 09:00Section 4. Relativistic nuclear physics, elementary particle physics and high-energy physics.Plenary report
In this overview, the physics highlights of the CMS results are presented, with a focus on the latest results obtained with the full LHC Run 2 statistics.
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Christopher John Meyer (Indiana University, US)23/09/2021, 09:35Section 4. Relativistic nuclear physics, elementary particle physics and high-energy physics.Plenary report
Recent results from ATLAS will be presented. These include highlights of heavy ion physics as well as measurements of properties of the Higgs boson and the top quark, diboson production, and searches for supersymmetry and exotics.
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Adam Morris (University of Bonn)23/09/2021, 10:10Section 4. Relativistic nuclear physics, elementary particle physics and high-energy physics.Plenary report
The LHCb detector at the LHC specialises in studying decays of beauty and charm hadrons, with excellent tracking, secondary vertex reconstruction and particle identification capabilities.
Here we present an overview of recent highlighted results from the broad physics programme at LHCb, including the flavour anomalies and precise determination of CKM parameters. Specific attention is paid...
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Michael Andreas Winn (Université Paris-Saclay (FR))23/09/2021, 10:45Section 4. Relativistic nuclear physics, elementary particle physics and high-energy physics.Plenary report
A Large Ion Collider experiment (ALICE) at the LHC allows to study different aspects of strong interaction physics. This talk gives an overview of its experimental programme based on selected recent results.
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Measurements based on jets and hadrons containing charm and beauty quarks at the LHC allow to constrain the interaction between the quark-gluon plasma and partons, to learn about... -
Dong Ho Moon (Chonnam National University (KR))23/09/2021, 11:40Section 4. Relativistic nuclear physics, elementary particle physics and high-energy physics.Plenary report
Recently, CMS collaboration presented important results to widen our knowledge of Quark-Gluon-Plasma (QGP) state, known as the state of the early universe, by using high energy heavy ion collisions. In this presentation, I would like to introduce them and share the detailed news including hard and soft probes produced in the heavy ion collisions at $\sqrt{s_{NN}}$ = 5.02 TeV and analyzed with...
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Stefania Beole (Universita e INFN Torino (IT))23/09/2021, 12:15Section 4. Relativistic nuclear physics, elementary particle physics and high-energy physics.Plenary report
ALICE is currently completing major upgrades for LHC Run 3 and in the meantime further projects are already underway. ALICE is developing thinned wafer-sized monolithic active pixel sensors to replace the inner tracking layers during the Long Shutdown 3. This resulting detector will have an unprecedented low material budget, and consequently drastically reduced interaction probabilities and...
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Pavel Bunin (Joint Institute for Nuclear Research (RU))23/09/2021, 12:50Section 4. Relativistic nuclear physics, elementary particle physics and high-energy physics.Plenary report
The CMS Upgrade projects, both Phase-1 and Phase-2, are aimed for the improvement of detector systems to provide the necessary physics performance under the challenging conditions of high luminosity at the HL-LHC. In this second phase of the LHC physics program, it's being planned to increase the instantaneous luminosity by $5.0^{34}$ cm$^{−2}$ s$^{−1}$ with the goal of integrating some 3000...
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Sean John Freeman (Experimental Physics Department, CERN, Switzerland; University of Manchester, UK)23/09/2021, 13:25Section 3. Modern nuclear physics methods and technologies.Plenary report
The ISOLDE Facility at CERN is the world’s leading facility for the production of radioactive ion beams (RIBs) using the ISOL (Isotope Separation On-Line) method. Over 1000 isotopes of more than 70 elements have been produced by the impact of a 1.4 GeV proton beam on a variety of targets and using different ion sources for providing beams at 40-50 keV energy. Purified isotope/isomer beams...
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Dr Vladimir Zherebchevsky (St Petersburg State University (RU))24/09/2021, 09:00Section 8. Nuclear medicine.Plenary report
In nuclear medicine methods the early diagnostics and detection of malignancies is an important problem. To obtain information about functional, anatomic, metabolic processes in the tumors or in the metastatic nodes one can effectively use the different radiopharmaceuticals. These substances have a mixture of a biochemical agent and of a radionuclide which emits gamma-quants (methods of Single...
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Prof. Aleksandr Chernyaev (M.V.Lomonosov Moscow State University)24/09/2021, 09:30Section 8. Nuclear medicine.Plenary report
The total number of ionizing radiation sources in the world is more than 14 million units, of which X-ray tubes are ~ 4 million units, and radioactive sources of various types are ~ 10 million units. Including modern technological diagnostic installations ~ 94 thousand units, and installations for radiation therapy ~ 20 thousand units.
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Radiation technologies are used in many industries –... -
Dieter Roehrich (Institute of Physics and Technology, University of Bergen, Bergen, Norway)24/09/2021, 10:20Section 8. Nuclear medicine.Plenary report
Introduction: Particle therapy, a non-invasive technique for treating cancer using protons and light ions, has become more and more common, e.g. Norway has decided to build two particle treatment facilities, one of which will be located in Bergen. Being able to position the Bragg peak accurately is a major advantage of protons and light ions, but incomplete knowledge about the tissue...
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Prof. Lembit Sihver (Chalmers University of Technology and Technische Universität Wien)24/09/2021, 10:55Section 8. Nuclear medicine.Plenary report
Radiosensitization of cancer cells using nanoparticles in X-ray and ion beam therapy
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L. Sihver 1,2*, I. Tremi 3, 4, E. Spyratou 5, M. Makropoulou 4, E. P. Efstathopoulos 5, and A. G. Georgakilas 4
1 Department of Physics, Chalmers University of Technology, SE-412 96 Gothenburg, Sweden
2 Radiation Physics, Atominstitut, Technische Universität Wien, Stadionallee 2, 1020 Vienna, Austria
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Manjit Dosanjh (CERN and University of Oxford)24/09/2021, 11:30Section 8. Nuclear medicine.Plenary report
Cancer is a critical societal issue. Worldwide, in 2018 alone, 18.1 million cases were diagnosed, 9.6 million people died, and 43.8 million people were living with cancer. Radiation therapy (RT) is a fundamental component of effective cancer treatment and control. It is estimated that about half of all cancer patients would benefit from radiotherapy for treatment of localised disease, local...
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Prof. Vladimir Varlamov (Lomonosov Moscow State University)25/09/2021, 10:35Section 2. Experimental and theoretical studies of nuclear reactions.Plenary report
The majority of total and partial photoneutron reaction cross sections were obtained for about 150 nuclei from 3H to 239Pu at Livermore (USA) and Saclay (France) [1]. Those data [2] are widely used in many basic research and applications. For 19 nuclei (51V, 75As, 89Y, 90Zr, 115In, 116,117,118,120,124Sn, 127I, 133Cs, 159Tb, 165Ho, 181Ta, 197Au, 208Pb, 232Th, and 238U) investigated at both...
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Yuri Tchuvil’sky (Skobeltsyn Institute of Nuclear Physics, Lomonosov Moscow State University)25/09/2021, 11:10Section 1. Experimental and theoretical studies of the properties of atomic nuclei.Plenary report
The modern theory of the structure of light nuclei is dynamically developing due to the introduction of ab initio (from first principles) methods of describing nuclear systems. An essential place among such methods is occupied by various versions of No-Core Shell Model (NCSM) (see, for example, [1]) that uses realistic NN potentials to describe the interaction of nucleons. Usually, these...
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Yuri Popov (Lomonosov Moscow State University)25/09/2021, 12:00Section 1. Experimental and theoretical studies of the properties of atomic nuclei.Plenary report
In the report the recent results of the big international team of theorists and experimenters on the Compton double ionization (CDI) of the helium atom with use of the COLTRIMS (COLd Target Recoil Ion Momentum Spectroscopy) technique is presented. In these experiments, only the momentum of the nucleus of the helium atom and one of the electrons (slow) are measured for coincidence. As a result,...
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Prof. Mikhail Urin (National Research Nuclear University “MEPhI”, Moscow 115409, Russia)25/09/2021, 12:35Section 1. Experimental and theoretical studies of the properties of atomic nuclei.Plenary report
This March marks the 110th anniversary of the birth of academician Arkady Benediktovich Migdal. For several decades, A. B. Migdal worked at the Institute named after I.V. Kurchatov and concurrently as a professor at the Department of Theoretical Nuclear Physics of MEPhI. In the report, the author proposes to share memories of an outstanding Personality, an outstanding Scientist and an...
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Vladimir Zherebchevsky (St. Petersburg State University)25/09/2021, 13:10