Search results for "Solenoid"

showing 6 items of 56 documents

Plasma diagnostic tools for ECR ion sources : What can we learn from these experiments for the next generation sources

2019

International audience; The order-of-magnitude performance leaps of ECR ion sources over the past decades result from improvements to the magnetic plasma confinement, increases in the microwave heating frequency, and techniques to stabilize the plasma at high densities. Parallel to the technical development of the ion sources themselves, significant effort has been directed into the development of their plasma diagnostic tools. We review the recent results of Electron Cyclotron Resonance Ion Source (ECRIS) plasma diagnostics highlighting a number of selected examples of plasma density, electron energy distribution, and ion confinement time measurements, obtained mostly with the second-gener…

[PHYS.PHYS.PHYS-ACC-PH]Physics [physics]/Physics [physics]/Accelerator Physics [physics.acc-ph]Solenoidmagnetic fieldshiukkaskiihdyttimetplasmafysiikka7. Clean energy01 natural sciencesbremsstrahlungElectron cyclotron resonance010305 fluids & plasmasIonoptical emission spectroscopySuperposition principleion sourcesPhysics::Plasma Physics0103 physical sciencesInstrumentation010302 applied physicsPhysics[PHYS]Physics [physics]plasma confinementplasma properties and parametersplasma diagnosticssyklotronitplasma heatingPlasmaIon sourceComputational physicsMagnetic fieldPlasma diagnostics
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Mutual inductance for an explicitly finite number of turns

2011

Published version of an article published in Progress In Electromagnetics Research B, 28, 273-287. Also available from the publisher at http://www.jpier.org/pierb/pier.php?paper=10110103 Non coaxial mutual inductance calculations, based on a Bessel function formulation, are presented for coils modelled by an explicitly finite number of circular turns. The mutual inductance of two such turns can be expressed as an integral of a product of three Bessel functions and an exponential factor, and it is shown that the exponential factors can be analytically summed as a simple geometric progression, or other related sums. This allows the mutual inductance of two thin solenoids to be expressed as an…

analytical expressions exponential factors finite number geometric progressions mutual inductance numerical results representative case thin solenoids bessel functions electric windings solenoids inductanceVDP::Technology: 500::Electrotechnical disciplines: 540
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Simulación numérica de dinámica relativista de partículas cargadas en campos electromagnéticos empleando el método de Boris

2020

Las aplicaciones basadas en la aceleración de partículas cargadas son muy diversas: colisionadores de partículas, estudios de la estructura molecular y atómica o de las propiedades de materiales, tratamientos contra el cáncer… Por ello, es necesario saber calcular cómo se mueven (y, en consecuencia, qué energía adquieren) estas partículas en presencia de campos electromagnéticos. De esta forma se podrá optimizar el diseño de la estructura aceleradora dependiendo del propósito final que tengan las partículas aceleradas. Vamos a implementar un algoritmo numérico (el método de Boris) que permite resolver numéricamente de forma sencilla la fuerza de Lorentz relativista. Utilizaremos este método…

dinámica relativista de electronescampo magnético de un solenoidemétodo de Borisfuerza de Millersimulación numéricafuerza ponderomotiva
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Observation of the rare B(s)(0) + decay from the combined analysis of CMS and LHCb data.

2015

This work is licensed under a Creative Commons Attribution-NonCommercial-ShareAlike 3.0 Unported licence.-- et al.

fundamental particleCompact Muon Solenoidstandard model flavor changing neutral currentsradioisotope decayB physicGaussian methodMU(+)MU(-)Temel Bilimler (SCI)rare decay [B/s0]Elementary particleATLAS DETECTOR12.15.MmÇOK DİSİPLİNLİ BİLİMLERRARE B-MESON DECAYS7000 GeV-cms8000 GeV-cmsSettore ING-INF/01 - Elettronica01 natural sciences7. Clean energyddc:0702 CHARGED LEPTONSscattering [p p]High energy physics ; Experimental particle physics ; LHC ; CMS ; Standard ModelQC[Anahtar Kelime Yok]Large Hadron ColliderMedicine (all); Multidisciplinarystandard3. Good healthHigh Energy Physics - PhenomenologyCERN LHC CollFIS/01 - FISICA SPERIMENTALEpriority journalHiggs bosonScience & Technology - Other TopicsPARTICLE PHYSICSmass spectrum [dimuon]Protonviolationcolliding beams [p p]physicschemical analyzerMesonModels beyond the standard modelprobabilitymesonelectromagnetic radiationB/s0 --> muon+ muon-Nuclear physicsbranching ratio: measured [B0]SEARCHLeptonic semileptonic and radiative decays of bottom mesonRARE B-MESON DECAYS; MINIMAL FLAVOR VIOLATION; LHC; CMS DETECTOR; LHCb DETECTOR; SEARCH; MU(+)MU(-); B-S(0); B-0;B-MESON DECAYS; MINIMAL FLAVOR VIOLATION; 2 CHARGED LEPTONS; ATLAS; DETECTOR; SEARCH; MU(+)MU(-); B-S(0); B-0; COLLIDER; PARTICLE010306 general physicsScience & TechnologyMuonMULTIDISCIPLINARY SCIENCES010308 nuclear & particles physicsBranching fractionMeson Bnull hypothesisDoğa Bilimleri GenelElementary particlesLARGE HADRON COLLIDERHEPp(p)over-bar collisionsNATURAL SCIENCES GENERALrare decay [B0]13.20.HeMINIMAL FLAVOR VIOLATIONchemical analysisprecisionB0 --> muon+ muon-Física de partículesExperimental particle physicsleptonic decay [B0]Physics::Instrumentation and DetectorsPhysics beyond the Standard ModelB-meson decays; p(p)over-bar collisions; branching fraction; root-s=1.96 tev; search; mu(+)mu(-); b-0; b-s(0); violation; modelsLarge Hadron Collider (LHC)High Energy Physics - ExperimentSettore FIS/04 - Fisica Nucleare e SubnucleareNeutral currentCOLLIDER[PHYS.HEXP]Physics [physics]/High Energy Physics - Experiment [hep-ex]uncertainty12.60.-iFlavour Physicmass spectrometryPhysicsExperimental particleMultidisciplinaryCMSMedicine (all)Temel BilimlerSettore FIS/01 - Fisica SperimentaleB-meson decaysATLASLarge Hadron Collider beautybranching ratio: measured [B/s0]root-s=1.96 tevNatural Sciences (SCI)LHCNatural SciencesPARTICLEdata processingParticle Physics - Experimentchemical reactionParticle physicsbranching fractionNOPARTICLE PHYSICS; LARGE HADRON COLLIDER; CMS; LHCBmodelsLHCBExperimental particle; physics; data processing; electromagnetic field; electromagnetic radiation; fundamental particle; Gaussian method; physics; precision; chemical analysis; chemical analyzer; chemical reaction; elementary particle; Large Hadron Collider beauty; mass spectrometry; meson; null hypothesis; prediction; priority journal; probability; radioisotope decay; standard; uncertainty;B-MESON DECAYSelectromagnetic fieldTheoryofComputation_ANALYSISOFALGORITHMSANDPROBLEMCOMPLEXITYRare Decay0103 physical sciencesElectromagnetic fieldB-0elementary particleSDG 7 - Affordable and Clean EnergyDETECTORCompact Muon SolenoidMultidisipliner/dk/atira/pure/sustainabledevelopmentgoals/affordable_and_clean_energyLHCb DETECTORCMS LHC Meson B Rare DecayMinimal flavor violationpredictionLeptonsLHC-Bleptonic decay [B/s0]LHCbRare decayMedicine (all) MultidisciplinaryRARE B-MESON DECAYS; MINIMAL FLAVOR VIOLATION; LHC; CMS DETECTOR; LHCb DETECTOR; SEARCH; MU(+)MU(-); B-S(0); B-0B-S(0)[PHYS.HPHE]Physics [physics]/High Energy Physics - Phenomenology [hep-ph]High Energy Physics::ExperimentExperimentsexperimental resultsCMS DETECTOR
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Pienikokoisen metallinpaljastimen kehittäminen kudoksen sisäisten kohteiden paikantamiseen

2018

Luunmurtuman onnistunut paraneminen vaatii murtuma-alueen luiden pysymistä paikallaan ja oikeassa asennossa koko paranemisen ajan. Tämän pakottamiseksi ortopedi voi asentaa potilaan luuhun erilaisia metallisia tukirakenteita, yhden vaihtoehdoista ollessa Kischner piikeiksi tai K-piikeiksi kutsutut pitkät ja ohuet neulat. Luunmurtuman parannuttua piikit tulee poistaa, mutta paranemisen aikana näiden päälle muodostunut luu- ja sidekudos vaikeuttavat piikkien löytämistä ilman tarpeettoman kudosvaurion aiheuttamista potilaalle. Tässä tutkielmassa kerron erityisesti näiden K-piikkien havaitsemiseen kehittämästäni, pienikokoisesta metallinpaljastimen prototyypistä, jonka toiminta perustuu anturin…

laitekehityspyörrevirratmetallinpaljastinsolenoidi
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The NEXT Project: Towards Production and Investigation of Neutron-Rich Heavy Nuclides

2022

The heaviest actinide elements are only accessible in accelerator-based experiments on a one-atom-at-a-time level. Usually, fusion–evaporation reactions are applied to reach these elements. However, access to the neutron-rich isotopes is limited. An alternative reaction mechanism to fusion–evaporation is multinucleon transfer, which features higher cross-sections. The main drawback of this technique is the wide angular distribution of the transfer products, which makes it challenging to catch and prepare them for precision measurements. To overcome this obstacle, we are building the NEXT experiment: a solenoid magnet is used to separate the different transfer products and to focus those of …

massaspektrometriaNuclear and High Energy Physicsneutron-rich nucleisolenoid separatorNEXT; neutron-rich nuclei; mutlinucleon transfer; solenoid separator; mass spectrometertutkimuslaitteetspektrometritmass spectrometermutlinucleon transferNEXTydinfysiikkaCondensed Matter PhysicsAtomic and Molecular Physics and OpticsAtoms; Volume 10; Issue 2; Pages: 59
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