Search results for "Radioactive Ion Beam"

showing 10 items of 41 documents

A complementary laser system for ISOLDE RILIS

2011

The Resonance Ionization Laser Ion Source (RILIS) is a powerful tool for efficient and selective production of radioactive ion beams at Isotope Separator On Line (ISOL) facilities. To avoid isobaric background, highly selective stepwise resonant ionization is applied, using up to three different laser wavelengths. Due to their advantages in terms of stability and reliability, an all solid-state titanium:sapphire (Ti:Sa) system is used or is planned to be installed at the majority of on-line facilities worldwide. Such an all solid-state Ti:Sa laser system is going to be installed at the ISOLDE RILIS at CERN alongside the well-established dye laser system.

Radioactive ion beamsHistoryDye laserbusiness.industryChemistryRadiochemistryPhysics::OpticsHighly selectiveLaserIon sourceComputer Science ApplicationsEducationlaw.inventionlawIonizationResonance ionizationSapphirePhysics::Accelerator PhysicsOptoelectronicsPhysics::Atomic PhysicsNuclear ExperimentbusinessJournal of Physics: Conference Series
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The Miniball spectrometer

2013

The Miniball germanium detector array has been operational at the REX (Radioactive ion beam EXperiment) post accelerator at the Isotope Separator On-Line facility ISOLDE at CERN since 2001. During the last decade, a series of successful Coulomb excitation and transfer reaction studies have been performed with this array, utilizing the unique and high-quality radioactive ion beams which are available at ISOLDE. In this article, an overview is given of the technical details of the full Miniball setup, including a description of the γ-ray and particle detectors, beam monitoring devices and methods to deal with beam contamination. The specific timing properties of the REX-ISOLDE facility are hi…

Radioactive ion beamsNuclear and High Energy PhysicsIon beamREX-ISOLDEONLINECoulomb excitation[PHYS.NEXP]Physics [physics]/Nuclear Experiment [nucl-ex]01 natural sciencesNuclear physicsSETUPCOULOMB-EXCITATION0103 physical sciencesNuclear fusionSILICON STRIP DETECTOR[PHYS.PHYS.PHYS-INS-DET]Physics [physics]/Physics [physics]/Instrumentation and Detectors [physics.ins-det]RELATIVISTIC ENERGIES010306 general physicsNuclear ExperimentNEUTRON KNOCKOUTPhysicsNuclear Physics; Heavy Ions; Hadrons; Particle and Nuclear Physics; Nuclear FusionLarge Hadron ColliderSpectrometerNUCLEI010308 nuclear & particles physicsDetectorRADIOACTIVE ION-BEAMSemiconductor detectorPhysics::Accelerator PhysicsGE DETECTORS
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Analysis methods of safe Coulomb-excitation experiments with radioactive ion beams using the gosia code

2016

With the recent advances in radioactive ion beam technology, Coulomb excitation at safe energies becomes an important experimental tool in nuclear-structure physics. The usefulness of the technique to extract key information on the electromagnetic properties of nuclei has been demonstrated since the 1960's with stable beam and target combinations. New challenges present themselves when studying exotic nuclei with this technique, including dealing with low statistics or number of data points, absolute and relative normalisation of the measured cross sections and a lack of complimentary experimental data, such as excited-state lifetimes and branching ratios. This paper addresses some of these…

Radioactive ion beamsNuclear and High Energy PhysicsIon beamfuusioreaktioCoulomb excitationData analysisFOS: Physical sciencesCoulomb excitation[PHYS.NEXP]Physics [physics]/Nuclear Experiment [nucl-ex]01 natural sciencesNuclear physicsElectromagnetic moments25.70.De 21.10.Ky; 29.38.Gj 29.85.Fj0103 physical sciencesNuclear Experiment (nucl-ex)particle and nuclear physics010306 general physicsheavy ionsNuclear ExperimentAnalysis methodPhysics010308 nuclear & particles physicsReaccelerated radioactive beams3. Good healthData pointhadronsQuadrupoleydinfysiikka
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Penning trap for isobaric mass separation at IGISOL

2003

Abstract A cylindrical Penning trap has been built at the ion guide isotope separator facility IGISOL of the University of Jyvaskyla. The main goal of the Penning trap application is to purify low-energy radioactive ion beams. The aim is to make isobarically pure beams. The technical description is presented.

Radioactive ion beamsNuclear and High Energy PhysicsIsotopeChemistrySeparator (oil production)Penning trapMass separationIonNuclear physicsPhysics::Accelerator PhysicsIsobaric processPhysics::Atomic PhysicsIon trapAtomic physicsNuclear ExperimentInstrumentationNuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms
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Progress in ISOL target–ion source systems

2008

The heart of every ISOL (isotope separation on-line) facility is its target and ion source system. Its efficiency, selectivity and rapidity is decisive for the production of intense and pure ion beams of short-lived isotopes. Recent progress in ISOL target and ion source technology is discussed at the examples of radioactive ion beams of exotic zinc and tin isotopes that were purified by isothermal chromatography and molecular sideband separation respectively. An outlook is given to which other elements these purification methods are applicable.

Radioactive ion beamsNuclear and High Energy PhysicsIsotopeRadiochemistryAnalytical chemistrychemistry.chemical_elementIon sourceIonIsotope separationlaw.inventionchemistrylawIsotopes of tinPurification methodsTinInstrumentationNuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms
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The SPEDE spectrometer

2017

8 pags., 10 figs., 2 tabs.

Radioactive ion beamsNuclear and High Energy PhysicsPhysics - Instrumentation and DetectorsElectron spectrometerPhysics::Instrumentation and DetectorsFOS: Physical sciencesElectronnucl-ex7. Clean energy01 natural sciencesMomentumNuclear physicsInternal conversion0103 physical sciencesNuclear Physics - ExperimentDetectors and Experimental TechniquesNuclear Experiment (nucl-ex)010306 general physicsNuclear ExperimentNuclear Experimentphysics.ins-detPhysicsLarge Hadron ColliderSpectrometer010308 nuclear & particles physicsInstrumentation and Detectors (physics.ins-det)Magnetic fieldPhysics::Accelerator Physics
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A new off-line ion source facility at IGISOL

2019

An off-line ion source station has been commissioned at the IGISOL (Ion Guide Isotope Separator On-Line) facility. It offers the infrastructure needed to produce stable ion beams from three off-line ion sources in parallel with the radioactive ion beams produced from the IGISOL target chamber. This has resulted in improved feasibility for new experiments by offering reference ions for Penning-trap mass measurements, laser spectroscopy and atom trap experiments.

Radioactive ion beamsNuclear and High Energy PhysicsTechnologyPhysics - Instrumentation and DetectorsMaterials sciencetutkimuslaitteetFOS: Physical sciencesSeparator (oil production)Physics Atomic Molecular & Chemical01 natural sciencesIonNuclear physicsPhysics::Plasma Physics0103 physical sciencesAtomPhysics::Atomic PhysicsIGISOLNuclear Experiment (nucl-ex)Nuclear Experiment010306 general physicsSpectroscopyNuclear Science & TechnologyDischarge ion sourceNuclear ExperimentInstrumentationInstruments & InstrumentationScience & TechnologyIsotope010308 nuclear & particles physicsPhysicsInstrumentation and Detectors (physics.ins-det)Ion sourcePhysics NuclearPhysical SciencesPhysics::Accelerator PhysicsydinfysiikkaOff lineSurface ion source
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The upgraded ISOLDE yield database – A new tool to predict beam intensities

2020

At the CERN-ISOLDE facility a variety of radioactive ion beams are available to users of the facility. The number of extractable isotopes estimated from yield database data exceeds 1000 and is still increasing. Due to high demand and scarcity of available beam time, precise experiment planning is required. The yield database stores information about radioactive beam yields and the combination of target material and ion source needed to extract a certain beam along with their respective operating conditions. It allows to investigate the feasibility of an experiment and the estimation of required beamtime. With the increasing demand for ever more exotic beams, needs arise to extend the functi…

Radioactive ion beamsNuclear and High Energy PhysicsYieldsComputer sciencecomputer.software_genre114 Physical sciences01 natural sciencesISOLDEDatabaseFLUKACERN0103 physical sciencesddc:530Production Yield010306 general physicsInstrumentationLarge Hadron ColliderDatabase010308 nuclear & particles physicsIn-target productionYield predictionCross sectionsYield (chemistry)ABRABLAIONIZATIONRelease efficiencycomputerRadioactive beamBeam (structure)Radioactive beamsNuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms
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Towards commissioning the new IGISOL-4 facility

2013

Abstract The Ion Guide Isotope Separator On-Line facility at the Accelerator Laboratory of the University of Jyvaskyla is currently being re-commissioned as IGISOL-4 in a new experimental hall. Access to intense beams of protons and deuterons from a new MCC30/15 cyclotron, with continued possibility to deliver heavy-ion beams from the K = 130 MeV cyclotron, offers extensive opportunities for long periods of fundamental experimental research, developments and applications. A new layout of beam lines with a considerable increase in floor space offers new modes of operation at the facility, as well as a possibility to incorporate more complex detector setups. We present a general overview of I…

Radioactive ion beamsNuclear and High Energy Physicsta114Project commissioningComputer scienceNuclear engineeringDetectorCyclotronExperimental researchlaw.inventionNuclear physicslawNeutronInstrumentationBeam (structure)Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms
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Twin GEM-TPC prototype (HGB4) beam test at GSI and Jyväskylä : a development for the Super-FRS at FAIR

2017

The FAIR[1] facility is an international accelerator centre for research with ion and antiproton beams. It is being built at Darmstadt, Germany as an extension to the current GSI research institute. One major part of the facility will be the Super-FRS[2] separator, which will be include in phase one of the project construction. The NUSTAR experiments will benefit from the Super-FRS, which will deliver an unprecedented range of radioactive ion beams (RIB). These experiments will use beams of different energies and characteristics in three different branches; the high-energy which utilizes the RIB at relativistic energies 300-1500 MeV/u as created in the production process, the low-energy bra…

Radioactive ion beamsPhysics - Instrumentation and DetectorsPhysics::Instrumentation and DetectorsSeparator (oil production)hiukkaskiihdyttimet01 natural sciences7. Clean energy114 Physical sciencesParticle identificationNuclear physics0103 physical sciencesElectronicsNuclear ExperimentdetectorsPhysicsta114010308 nuclear & particles physicsProjectileI.2.7Detectorparticle acceleratorsilmaisimetAntiprotonPhysics::Accelerator PhysicsF.2.2Beam (structure)
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