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1 “ European Nuclear Science and Applications Research 2 1 “ European Nuclear Science and Applications Research 2

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1 “ European Nuclear Science and Applications Research 2 - PPT Presentation

ENSAR2 Muhsin N Harakeh Coordinator ENSAR2 on behalf of the ENSAR2 management group NuPECC Strategy Meeting 16 January 2016 Darmstadt Germany 2 ENSAR2 is the integrating activity IA for European nuclear scientists who are performing research in three of ID: 788847

nuclear task ganil subtask task nuclear subtask ganil beams infn ion structure cnrs detectors facilities high beam cern amp

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Slide1

1

“European Nuclear Science and Applications Research 2”(ENSAR2)

Muhsin N. Harakeh

Coordinator ENSAR2

on behalf of the

ENSAR2 management group

NuPECC Strategy Meeting

16 January 2016

Darmstadt, Germany

Slide2

2ENSAR2 is the integrating activity (IA) for European nuclear scientists who are performing research in three of the major subfields defined by NuPECC: Nuclear Structure and Dynamics, Nuclear Astrophysics and Nuclear Physics Tools and Applications. Its core aim is to provide access to nine of the complementary world-class large-scale facilities:GANIL

(F), GSI (D), LNL-LNS (I), JYFL (FI), KVI-CART (NL), CERN-ISOLDE (CH), ALTO (F), IFIN-HH/ELI-NP (RO) and NLC (PL).These facilities provide stable and radioactive ion beams of excellent qualities ranging in energies from tens of keV/u to a few GeV/u and intense photon beams up to 20 MeV energy.

The

stable-ion beams range from protons to

uranium.

(Faiçal Azaiez)

Radioactive

ion beams are produced

using the

two complementary methods of in-flight fragmentation (IFF) and isotope separation on-line (ISOL), so

that several

hundred isotopes are available for the

users.

(Marek Lewitowicz)

The

high-intensity, high-energy photon beams are produced

by laser

back-scattering from high-energy electron

beams.

(Ioan Ursu)

Small-scale facilities

(Sotiris Harissopulos)

In

addition, the

infrastructure ECT* (I)

will provide

a unique

place for

meetings,

seminars and workshops to the community

.

Slide3

3

3

Partners

of

30

30

beneficiaries

15

countries

7  10 TNA Facilities

Community: 2700-3000 scientists and highly qualified engineers

Close collaboration with infrastructures outside Europe:Canada: TRIUMFChina: IMP Lanzhou Japan: RIKEN & RCNPRussia: Dubna/JINRSouth Africa: iThembaUnited States: NSCL & ANL

GANIL

GSI

LNL-INFN

LNS-INFN

JYL

ALTO-CNRS

MedAustron

ULB

KUL

CEA

UMIL

JOGU

NCSRD

ATOMKI-HAS

ECT*

FFCUL

ELI-NP / IFIN-HH

USC

CIEMAT

ISOLDE-CERN

JLU

UoY

I

UWAR-HIL & IFJ PAN

Univ. Sevilla

LMU

ARRONAX

ULIV

Köln

CSIC

FP8 ENSAR2

RUG-KVI

Slide4

4

TNAs GANIL-SPIRAL2 (France)LNL-LNS (INFN, Italy)ISOLDE (CERN, Switzerland) JYFL (Finland) ALTO (CNRS, France) GSI (Germany) KVI-CART (The Netherlands) NLC (HIL/IFJ PAN, Poland

)

IFIN-HH/ELI-NP (

Romania)

ECT* (Italy)

NEW

NEW

NEW

Slide5

5

NUclear STructure Astrophysics and Reactions

How are complex nuclei built from their basic constituents?

What is the effective nucleon-nucleon interaction and how does QCD constrain its parameters?

How does the three-nucleon force modify the picture?

How does the effective nuclear force depend on varying proton-to-neutron ratios?

What is the isospin dependence of the spin-orbit force?

How does shell structure change far from stability?

How does the role of N-N correlations in nuclei and nuclear matter change with isospin?

How to explain collective phenomena from individual motion?

What are the phases, relevant degrees of freedom, and symmetries of the nuclear many-body system? What are the limits of existence of nuclei? Where are the proton and neutron drip lines situated? What are the heaviest elements? How does the equation of state of nuclear matter change with neutron-to-proton asymmetry? How large is the symmetry energy and its density dependence? What are the properties of neutron-rich matter? Which nuclei are relevant for astrophysical processes, what are their properties and what is their impact on nucleosynthesis modelling?

Slide6

6

NUSTAR - The Project(*) NESR required – alternative/intermediate “operation” within MSV under discussion. SHE physics case has been endorsed by ECE.

Slide7

7

NAsNA1-FISCO2: FInancial and Scientific Coordination 2Managing Network to insure a smooth running of the ENSAR2 IA in all aspects of technical, scientific, financial, administrative, contractual and legal activities. It will supervise an impact study on TNA infrastructures and on ENSAR2 itself. FISCO2 will also stimulate dissemination of knowledge and outreach activities.

The Networking Activities

have

been set-up

with specific

actions to strengthen the community work in

TNAs

and

JRAs.

Slide8

8

NAs NA2-NuSPRA(SEN): Nuclear Structure Physics, Reactions and Astrophysics (and Superheavy Elements Network) Provides a forum to discuss the scientific interests of the nuclear structure and nuclear astrophysics communities (including EURISOL community), the progress in these subfields and the optimisation of the use of the large RIs for that purpose

.

Task

1. Coordination of activities and dissemination(All

)

Task 2. Physics goals, synergies, future directions (JLU

) Subtask 2.1: Nuclear

structure Subtask 2.2: Nuclear reactions Subtask 2.3: Nuclear astrophysics Subtask 2.4: Superheavy elements

Slide9

9

NAsNA3-MIDAS: MInimisation of Destructive plASma processes in ECR ion sources Supports developments of ion sources by academic and industrial (AVS and PANTECHNIK) experts and organise trainings

and workshops on this topic for the

community

.

Task 1: Coordination of scientific activities and dissemination (JYU

)

Task 2: Collaboration workshops (GANIL)

Task 3: Hands-on-training (GSI)

Slide10

10

NAsNA4-NUSPIN: NUclear SPectroscopy InstrumentationAims at pooling and optimising the use of the valuable resources for high resolution gamma-ray and spectroscopy and coordinating their use at the facilities. Instruction courses for young scientists and engineers to get them acquainted with these techniques are part of this activity.Task 1: Coordination, promotion and dissemination (INFN

)

Task 2: Working groups for the different types of detectors (INFN)

Subtask

2.1: Working Group 1: High-resolution gamma-ray spectroscopy.

Subtask 2.2: Working Group 2: Particle detectors. Subtask 2.3: Working Group 3: High-efficiency and fast-timing scintillator

detectors. Subtask 2.4: Working Group 4: Devices for nuclear moments

& transition probabilities. Task 3: Collaboration Workshops (All) Task 4: Training of new users and exchange of experts (All)

Slide11

11

NAsNA5-MediNet: Medical NetworkIs devoted to nuclear physics for medicine through the developments of beam and detection techniques and of ion-beam therapy. Task 1 (LMU) comprises

research on beam-delivery methods, large-area

transmission

detectors,

non-destructive beam-intensity

measurements,

improved imaging technology (proton and ion radiography and tomography, in-situ PET systems, prompt-γ imaging detectors, vertex

imaging), and reliable online dosimetry

. Task 2 (EBG MedAustron) focuses in one of the most critical fields of ion- beam therapy, that is the forecast of the biological effects to the radiation used in therapy (today proton and carbon-ions are the particles selected). Task 3: Network Meetings (LMU, EBG MedAustron)

Slide12

12

NAsNA6-GDS: Gas-filled Detectors and Systems Gathers experts of gas-filled detectors and systems to develop new techniques to overcome constraints such as high- intensity

beams and strong non-uniform magnetic fields.

Task 1: Management/GDS Coordination (GANIL

)

Task 2: GDS in strong and non-uniform magnetic fields (CEA,

KU

Leuven)Task 3: Novel detection systems for high-intensity and

heavy- ion beams (USC, GANIL)Task 4: Rare-gas target handling and recycling systems (CNRS,

CEA)Task 5: Auxiliary detectors (INFN, KU Leuven)

Slide13

13

NAsNA7-ENSAF: European Network of Small-scale Accelerator Facilities Is a network of small-scale accelerators to support technical developments and tests for experiments at large-scale infrastructures

Task 1: Awareness (NCSRD

):

Survey of resources.

Task 2: Exchange of know-how and best practices (USE

)Task 3: Linking ENSAF and TNA

facilities (NCSRD)Task 4. Training of students and young researchers at small facilities (UCO)

Slide14

14

NAsNA8-NuPIA: Nuclear Physics InnovAtion Is a transversal activity to support innovation through bridging between academic research and industry, impact study and training of industrial personnel in research institutions.

Task 1: Survey of innovation within the ENSAR2 WPs (CEA

)

Task 2: Bridging and dissemination (UNIWARSAW, GANIL

)

Subtask 2.1: Bridging (UNIWARSAW

) Subtask 2.2: Dissemination and communication activities (GANIL)

Task 3: Training in nuclear techniques : Schools for employees of industrial companies (JYU, ULIV)

Slide15

15

JRAs

The joint research

activities deal with novel and innovative technologies to improve the operation of and enhance the access to

ENSAR2 facilities

. They are in general relevant to more than one facility and rely on strong participation of the European university groups. These activities involve all facets of operation of an accelerator

facility.

Slide16

16

JRAsJRA1-PASPAG: Phoswich scintillator assemblies: Application to the Simultaneous detection of PArticle and Gamma radiation Studies detection of particles and gamma rays with phoswich scintillators allowing for simultaneous detection

with

same

detector

array. PASPAG will also develop

applications

of detection systems for homeland security.Task 1: Novel Scintillator Materials (INFN - CNRS, USC)

Task 2: Phoswich detectors (IFJ PAN - CSIC, TUM)Task 3: Hybrid arrays and their applications (

UoY - CSIC)

Slide17

17

JRAsJRA2-PSeGe: Position-Sensitive Germanium detectors for nuclear structure and applicationsIs focused on 3-dimensional position-sensitive Ge detectors dedicated to nuclear structure and applications in imaging.Task 1: New technologies on passivation and segmentation (INFN

)

Task 2: R&D on novel Ge-detector geometries for ultimate

position

resolution and efficiency (GSI

)

Task 3: R&D on segmented p-type coaxial detectors (CSIC) Task 4: Network activity: Demonstration of imaging

applications and associated

detector technologies (ULIV) Subtask 4.1: Demonstration of imaging applications Subtask 4.2: Detector encapsulation techniques Subtask 4.3: Low-power pre-amplifiers & cryostat R&D / BSD, HV, LV distribution Subtask 4.4: Pulse-Shape Analysis and neutron-gamma discrimination

Slide18

18

JRAs JRA3-TheoS: Theoretical Support for nuclear facilities in Europe - Nuclear Structure & Reactions Is a theory support activity to experiments in nuclear structure and reactions.

Task

1: Description of the structure of stable and exotic nuclei with

beyond-mean-field

(BMF)

approaches (INFN)

Subtask 1.1: Development of suitable effective interactions in mean-field and

BMF theories (CNRS) Subtask 1.2: Fingerprint of correlations in BMF approaches (UMIL) Subtask 1.3: Improvement of BMF theory for small- and large-amplitude collective motion and dissipative aspects of nuclear dynamics (INFN) Task 2: Calculate reaction observables to compare state-of-the-art structure models with

novel experimental data in exotic nuclei (USE) Subtask 2.1: Development of new reaction formalisms (ULB) Subtask 2.2: Improvement of the interface between nuclear structure and nuclear reactions (USE)

Slide19

19

JRAs JRA4-RESIST: RESonance laser Ionisation Techniques for separators Develops resonance laser ionisation techniques for the production of high-purity beams

of radioactive ions.

Task

1: Pre-LIST techniques to enhance ion-beam purity (

CERN – JOGU Mainz, KU Leuven, JYU, GANIL, INFN)

Task

2: Advancements in efficiency, selectivity and spectral resolution (KU Leuven – GSI, JYU, GANIL, JOGU Mainz, CERN) Task

3: New concepts and development of laser technologies (JOGU Mainz – CERN, JYU, KU Leuven, CNRS, INFN)

Slide20

20

JRAs JRA5-SATNuRSE: Simulations and Analysis Tools for Nuclear Reactions and Structure in Europe Is devoted to simulations, developments of analysis tools and data

management

.

Task

1: Development, benchmarking and validation of physics

models and event generators (CEA – CIEMAT, JLU, IFIC)

Task 2: Development of analysis tools (USC - FFCUL, RUG)

Task 3: Data management protocol (RUG) Task 4: Dissemination of knowledge and workshop organisation (RUG - CIEMAT, IFIC, USC, FFCUL, JLU)

Slide21

21

JRAs JRA6-EURISOL facility (all stages) Develops techniques and tools for current and future ISOL facilities, such as charge breeders, beam production and a dissemination tool to inform the community on available beams and intensities

.

Task

1: Electron-Beam Ion Breeder – EBIB (

CERN -

CERN, GANIL, UNIWARSAW) Task

2: Development of chemically reactive nuclear beams - BEAMLAB (CNRS - CERN, GANIL, IFJ PAN, INFN, CNRS)

Subtask 2.1: Efficient ion sources for difficult ISOL beams Subtask 2.2: Material compatibility in reactive gas atmospheres Subtask 2.3: New molecular beams Subtask 2.4: Specific target designs for non-volatile elements

Task 3: Chart of Radioactive Ion Beams in Europe – CRIBE (GANIL - IFJ PAN)Task 4: Structuring the Community – STUC (INFN - All) N.B. This has been moved to NuSPRA(SEN).

Slide22

22

JRAs JRA7-TecHIBA: Technologies for High Intensity Beams and Applications Aims at accelerator and instrumentation developments in the framework of high-intensity beams. Task 1: Improvement of Superconducting Accelerating Cavities

(CNRS - CEA)

Task

2: Radio-Isotopes for Therapy and Medical Imaging

(

CERN, ILL - GANIL, UNIWARSAW

, GIP ARRONAX, CNRS) Subtask

2.1: Dedicated collection chamber to improve 149Tb, 211At and 225Ac supply from ISOLDE Subtask 2.2: Improved 211At production Subtask 2.3: Matched pair of scandium isotopes for Theranostics

(therapeutic-diagnostic) Task 3: NEW Detection Opportunities for Magnetic Spectrometers – NEWDOMS (INFN - CNRS, IFIN-HH, Univ. Valencia) Task4: Identification of Low-Energy Radioactive Ions (CEA - GANIL, CSIC, CNRS, UNIWARSAW

, MTA Atomki, Univ. Uppsala, USE) Task 5: Generic Electronics Systems (CEA - GANIL, CNRS) Task 6: TecHIBA

coordination (CNRS - All)

Slide23

23

Thank you for your attention

Slide24

HISPEC/DESPEC - foreseen instrumentation HISPECAGATA gamma-tracking spectrometerLYCCA heavy-ion calorimeter with ToF

capabilityPlunger nuclear level lifetime measurementsMINOS Proton targetNEDA Neutron detector arrayHYDE light charged-particle arrayDESPEC

AIDA active

implantation device

MONSTER neutron

ToF array

BELEN neutron detection

arrayDTAS Decay

Total Absorption SpectrometerDEGAS Ge Array gamma spectrometer

FATIMA Fast TIMing Array

LYCCA

Slide25

Existing research opportunities at GSI

…evolving towards NUSTAR@FAIR!

SIS

FRS

ESR

Ground state properties

inverse reactions

Decay studies,

In-beam spectroscopy

LAND-R3B

Reaction studies

production and separation of exotic nuclei

RISING - PRESPEC

Slide26

Production target

ILIMA

R

3

B

HISPEC/DESPEC

MATS & LaSpec

Super-FRS

Rich programme with approximately 2000 h beam time for NUSTAR experiments per year!

Pre-separator

Main separator

Ring branchHigh-energy branchLow-energy branchEnergy-buncher/

spectrometerNUSTAR experimental areas