Bucharest emulsion group along the time Who we are.

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Presentation transcript:

Bucharest emulsion group along the time Who we are

I share these thoughts Milla Baldo Ceolin THE DISCREET CHARM OF THE NUCLEAR EMULSION ERA

The laboratory of cosmic rays was one of the laboratories of the Institute of Atomic Physics, which was created in 1956 The team E.M.Friedlander (Head of the lab. from )

The first experiments were on emulsions flown on balloons Tasks : Study of high energy nuclear interactions (collision mean free path, - anomalons-, trasverse momenta, angular distributions, models of interaction, study of secondary stars, etc.) A baloon ready for the ascent in the Sardinia area, July 1953 For the first time emulsion stacks were made of stripped emulsions bound together between thick glass plates

JINR - Syncrofazotron, protons of 9 GeV CERN – PS, proton of 28 GeV CERN – ISR, first hadron collider FNAL - Tevatron, protons of 200 GeV, 300 GeV and 400 GeV PROTVINO - Accelerator, protons of 70 GeV Extended study of interactions of different nuclei from accelerators beams in nuclear emulsions

IK-6 Intercosmos satellite had a stack of 45 l emulsion on board 1, 4 track spark chambers 2 emulsion stack 3 horizontal emulsion sheets 5, 7 scintillators 6 Ionization calorimeter 8 PM We scanned for mini electron positron showers and traced them back until we fond their origin - the interaction of nuclei. In five events selected for analysis, as a result of 67 interaction, we determined the mean multiplicity The energy of the primaries was evaluated as above 1 TeV.

Collaboration of laboratories of nuclear emulsion members of JINR – Dubna Inelastic interactions of 12-C nuclei with with nuclear emulsions at 50 GeV/c Observation of a collective flow in22Ne collisions with Ag(Br) emulsion nuclei at 4.1 A GeV/c Interaction mean free path in nuclear emulsion of fragments of 22Ne nuclei witn momentum 4.1 A GeV/c and the problem of anomalons Fragmentation of 22 Ne in emulsion at 4.1A GeV/c Some peculiarities of sideward flow of particles in 22 Ne collisions with emulsion nuclei at 4.1A GeV/c Tea breakK.D.Tolstov head of the emulsion group of high energy laboratory JINR

Meeting of the Emulsion Committee JINR Picture taken in front of the International Conference Hall in Dubna

EMU-01 collaboration 100 scientists, 20 institutions and 12 countries Complex Analysis of Au Interactions with Photo-Emulsion Nuclei at 10.7 GeV/nucleon within the framework of Cascade and Fritiof models Angular distributions of light projectile fragments in deep inelastic Pb + Em interactions at 160 A GeV Nuclear Effect in Higher Dimensional Factorial Moment Analysis of 16O-, 32S-, & 197Au-Em interaction data at 200, 60 and 11GeV/c Limiting fragmentation in Oxygen Induced Emulsion Interactions at 14.6, 60 and 200 A GeV Rapidity Densities and their Fluctuations in Central 200 A GeV S 32 Interactions with Ag,Br nuclei. Helium Production in 10.7 A GeV Au Induced Nucleus-Nucleus Collisions On the Production of Slow Particles in High Energy Heavy Ion Collisions Rapidity density distribution in O16, Si28, Au197 and Pb208 induced heavy ion interactions at A GeV Bounce-off in 197Au Induced Collisions with Ag(Br) Nuclei at 116 A GeV/c Fragmentation and Multifragmentation of 10.6 A GeV Gold Nuclei

Project Cascade (ERAU – Florida, LBL-Berkeley, Philipps-University Marburg, ISS-Bucharest) Scanning and measurement of an emulsion stack exposed to a 1.8 A GeV 40Ar beam from Lawrence Berkeley Laboratory’s Bevatron. Modeling of a 1.8 A GeV 40Ar beam on cylindrically symmetric segments of Cu targets Monte-Carlo simulations based on a transport code, itself built upon the results of the emulsions experiment. 1.8 A GeV 40Ar beam on a native copper target. 24Na-production provides an unusual and extremely useful form of calorimetery where the total amount of 24Na produced in a target segment is a direct function of the cumulative (target) interactions with relativistic (projectile) primaries and secondaries. Evaluation of R =ActivitySegment2/Activity Segment 1 in the experiment and in Monte Carlo simulations Basic Experimental Setup Cascade development in cylindrical target R- values

Becquerel Project JINR ( Dubna ) Irradiation of emulsions in beams of relativistic nuclei Study of the processes of relativistic fragmentation of light radioactive and stable nuclei. Investigation of light nuclei clustering in relativistic multifragmentation processes Clustering in relativistic dissociation of different nuclei The collaboration team at the High Energy Laboratory - JINR The leader P.I.Zarubin

Institute of Space Science – Bucharest The team

Thank you