Absolute cross sections and excitation functions for deuteron-induced reactions on the nickel isotopes between 2 and 12 MeV

Cogneau, M.; Gilly, L.; Cara, Jean

doi:10.1016/0375-9474(67)90379-x

Cited by 35 publications

(22 citation statements)

References 8 publications

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“…Additional experiments were performed by various CRP participants as crucial support in defining the excitation functions of the 45 Sc(d,3n) 44 Ti, nat Ni(p,x) 52 Fe, 55 Mn(p,4n) 52 Fe, 50 Cr(α,2n) 52 Fe, 58 Ni(p,α) 55 Co, 61 Ni(p,n) 61 Cu, 60 Ni(d,n) 61 Cu, nat Ga(p,x) 68 Ge, nat Ge(p,xn) 72 As, nat Ge(d,xn) 72 As, 89 Y(d,2n) 89 Zr, 93 Nb(p,x) 90 Nb, 92 Mo(α,x) 94m Tc , 110 Cd(p,n) 110m In, 107 Ag(α,n) 110m In, nat Sb(p,xn) 118 Te and 141 Pr(d,3n) 140 Nd reactions. Details of these studies have been reported individually and separately in other dedicated publications (see references for specific reactions given below).…”

Section: New Crp Measurementsmentioning

confidence: 99%

“…Seventeen experimental datasets for the 61 Ni(p,n) 61 Cu reaction available in the literature [45,56,59,64,78,79,84,87,[110][111][112][113][114][115][116][117], and TENDL calculations 1 3 Ni(p,n) 61 Cu reaction [45,79,87,[110][111][112][113][114][115][116][117] with the Padé fit (L = 12, N = 192, χ 2 = 2.81, solid line) and estimated total uncertainties in percentages, including 4% systematic uncertainty (dashed line, right-hand scale) Fig. 39 Five experimental datasets for the 60 Ni(d,n) 61 Cu reaction available in the literature [90,[118][119][120][121], and TENDL calculations The five experimental datasets available in the literature are shown in Fig. 39 [90,[118][119][120][121] together with the TENDL calculations.…”

Section: Fig 37mentioning

confidence: 99%

“…39 Five experimental datasets for the 60 Ni(d,n) 61 Cu reaction available in the literature [90,[118][119][120][121], and TENDL calculations The five experimental datasets available in the literature are shown in Fig. 39 [90,[118][119][120][121] together with the TENDL calculations. All datasets were used in the statistical fitting procedure (Cogneau et al [118] data were normalised, and data above 6-MeV particle beam energy discarded as inconsistent with model calculations).…”

Section: Fig 37mentioning

confidence: 99%

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Recommended nuclear data for medical radioisotope production: diagnostic positron emitters

Tárkányi

Ignatyuk

Hermanne

et al. 2019

J Radioanal Nucl Chem

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An IAEA coordinated research project that began in 2012 and ended in 2016 was primarily dedicated to the compilation, evaluation and recommendation of cross-section data for the production of medical radionuclides. One significant part of this work focused on diagnostic positron emitters. These particular studies consist of 69 reactions for direct and indirect or generator production of 44 Sc(44 Ti), 52m Mn(52 Fe), 52g Mn, 55 Co, 61 Cu, 62 Cu(62 Zn), 66 Ga, 68 Ga(68 Ge), 72 As(72 Se), 73 Se, 76 Br, 82 Rb(82 Sr), 82m Rb, 86 Y, 89 Zr, 90 Nb, 94m Tc, 110m In(110 Sn), 118 Sb(118 Te), 120 I, 122 I(122 Xe), 128 Cs(128 Ba), and 140 Pr(140 Nd) medical radionuclides. The resulting reference cross-section data were obtained from Padé fits to selected and corrected experimental data, and integral thick target yields were subsequently deduced. Uncertainties in the fitted results were estimated via a Padé least-squares method with the addition of a 4% assessed systematic uncertainty. Experimental data were also compared with theoretical predictions available from the TENDL-2015 and TENDL-2017 libraries. All of the numerical reference cross-section data with their corresponding uncertainties and deduced integral thick target yields are available on-line at the IAEA-NDS medical portal www-nds.iaea.org/medic alpor tal and also at the IAEA-NDS web page www-nds.iaea.org/ medic al/posit ron_emitt ers.html.

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Section: New Crp Measurementsmentioning

confidence: 99%

Section: Fig 37mentioning

confidence: 99%

Section: Fig 37mentioning

confidence: 99%

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Recommended nuclear data for medical radioisotope production: diagnostic positron emitters

Tárkányi

Ignatyuk

Hermanne

et al. 2019

J Radioanal Nucl Chem

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“…Comparison of the predictions of the INCL4.6+ABLA07 model (red curve) with the experimental data of Ref. [116].…”

Section: Fig 26mentioning

confidence: 99%

New potentialities of the Liège intranuclear cascade model for reactions induced by nucleons and light charged particles

et al. 2013

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The new version (INCL4.6) of the Liège intranuclear cascade (INC) model for the description of spallation reactions is presented in detail. Compared to the standard version (INCL4.2), it incorporates several new features, the most important of which are: (i) the inclusion of cluster production through a dynamical phase space coalescence model, (ii) the Coulomb deflection for entering and outgoing charged particles, (iii) the improvement of the treatment of Pauli blocking and of soft collisions, (iv) the introduction of experimental threshold values for the emission of particles, (v) the improvement of pion dynamics, (vi) a detailed procedure for the treatment of light-cluster induced reactions taking care of the effects of binding energy of the nucleons inside the incident cluster and of the possible fusion reaction at low energy. Performances of the new model concerning nucleoninduced reactions are illustrated by a comparison with experimental data covering total reaction cross-sections, neutron, proton, pion and composite double differential cross-sections, neutron multiplicities, residue mass and charge distributions, and residue recoil velocity distributions. Whenever necessary, the INCL4.6 model is coupled to the ABLA07 de-excitation model and the respective merits of the two models are then tentatively disentangled. Good agreement is generally obtained in the 200 MeV-2 GeV range. Below 200 MeV and down to a few tens of MeV, the total reaction cross section is well reproduced and differential cross sections are reasonably well described. The model is also tested for light-ion induced reactions at low energy, below 100 MeV incident energy per nucleon. Beyond presenting the update of the INCL4.2 model, attention has been paid to applications of the new model to three topics for which some particular aspects are discussed for the first time. The first topic is the production of clusters heavier than alpha particle. It is shown that the energy spectra of these produced clusters are consistent with coalescence. The second topic regards the longitudinal residue recoil velocity and its fluctuations. Excellent results are obtained for these quantities. It addition, it is shown that the distributions of these quantities display typical random-walk characterics, at least for not too large mass losses. They are interpreted as a direct consequence of the independence of successive binary collisions occurring during the cascade process. The last topic concerns the total reaction cross section and the residue production cross sections for low energy incident light ions. It is shown that our new model can give a rather satisfactory account of these cross sections, offering so an alternative to fusion models and the advantage of a single model for the progressive change from fusion to pre-equilibrium mechanisms.

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“…Beside the similarities in the calculation results of BSFGM and GSM, the most consistent outcomes were generated from GSM which can be realized from the relative variance analysis results given in Table 1. Comparisons of the results for 61 Ni(d,n) 62 Cu, 62 Ni(d,2n) 62 Cu reaction with the experimental data of Cogneau et al, [17] were given as Figure 2 and 3. In 61 Ni(d,n) 62 Cu reaction, it is seen that the theoretical calculation results show a similar distribution with a certain ratio below the experimental data, especially in the region after about 6 MeV incident particle energy.…”

Section: Resultsmentioning

confidence: 85%

Production Cross–Section Calculations of 62Cu via Charged Particles Induced Reactions

Şekerci

Özdoğan

2020

hnps

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The utilization of radioisotopes has been increasing proportionally with the scientific and industrial developments. Among many known and used examples of them, 62Cu has a wide usage due to its suitability for many specific requirements such as in medical applications. By considering the importance of radioisotopes and especially 62Cu, in this study, the theoretical calculations of cross–section values for 62Cu via 59Co(α,n)62Cu, 61Ni(d,n)62Cu, 62Ni(d,2n)62Cu and 62Ni(p,n)62Cu reactions were carried out by employing three phenomenological level density models via TALYS 1.9 code. Obtained results were compared with the available experimental data from Experimental Nuclear Reaction Data (EXFOR) Library by graphically and mathematically.

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Absolute cross sections and excitation functions for deuteron-induced reactions on the nickel isotopes between 2 and 12 MeV

Cited by 35 publications

References 8 publications

Recommended nuclear data for medical radioisotope production: diagnostic positron emitters

Recommended nuclear data for medical radioisotope production: diagnostic positron emitters

New potentialities of the Liège intranuclear cascade model for reactions induced by nucleons and light charged particles

Production Cross–Section Calculations of 62Cu via Charged Particles Induced Reactions

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