Investigation of production routes for the 161Ho Auger-electron emitting radiolanthanide, a candidate for therapy

Tárkányi, F.; Ditrói, F.; Hermanne, Alex; Takács, S.; Ignatyuk, A. V.

doi:10.1007/s10967-012-2403-9

Cited by 17 publications

(10 citation statements)

References 13 publications

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“…These measurements are higher than the theoretical calculations; however, the measurements given by Takacs et al [38], Khandaker et al [39], and Scholten et al [33] are close to the theoretical excitation curve. The agreement between the experimental data [40,41] and MLD in the energy range below 12 and above 20 MeV is good. The data reported by Alharbi et al [42] are in good agreement with the MLD beyond 18 MeV.…”

Section: Production Of the Radioisotope 99m Tcsupporting

confidence: 64%

Investigation of excitation functions of proton-induced reactions on $^{94,\, 96,\, 98,\, 100}$Mo targets for production of radioisotopes $^{94m,\, 94g,\, 96m,\, 96g,\, 96,\, 99m}$Tc

Artun¹,

Aytekin²

2017

Turk J Phys

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Investigation of excitation functions of proton-induced reactions on 94, 96, 98, 100 Mo targets for production of radioisotopes 94m, 94g, 96m, 96g, 96, 99m Abstract: In this work, we investigated the excitation functions of proton-induced reactions on even-even 94−100 Mo isotopes for the production of medical radioisotopes 94m, 94g, 96m, 96g, 96, 99m Tc. To obtain the excitation functions we carried out cross-section calculations in the frameworks of the generalized superfluid model, microscopic level density model, and three options of the preequilibrium process in the Talys code. The aim of this study was to introduce a new aspect for the production of radioisotopes 94m, 94g, 96m, 96g, 96, 99m Tc with different models.

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Section: Production Of the Radioisotope 99m Tcsupporting

confidence: 64%

Investigation of excitation functions of proton-induced reactions on $^{94,\, 96,\, 98,\, 100}$Mo targets for production of radioisotopes $^{94m,\, 94g,\, 96m,\, 96g,\, 96,\, 99m}$Tc

Artun¹,

Aytekin²

2017

Turk J Phys

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“…[6,7,8,9]). Here we present shortly the most important facts, and details specific for this experiment.…”

Section: Methodsmentioning

confidence: 99%

Excitation functions of natPb(d,x) 206,205,204,203,202Bi, 203cum,202m,201cumPb and 202cum,201cumTl reactions up to 50 MeV

Ditrói

Tárkányi

Takács

et al. 2014

J Radioanal Nucl Chem

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Cross-sections of deuteron induced nuclear reactions on lead were measured up to 50 MeV using the standard stacked foil irradiation technique and high resolution γ-ray spectrometry. Experimental crosssections and derived integral yields are presented for the nat Pb(d,x) 206,205,204,203,202 Bi, 203cum,202m,201cum Pb and 202cum,201cum Tl reactions. The experimental data were compared with the results from literature and with the data in the TENDL-2013 library (obtained with TALYS code). The cross-section data were analyzed also with the theoretical results calculated by using the ALICE-IPPPE-D and EMPIRE-D codes.

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“…The cross section data for this reaction have been thoroughly measured [cf. [14][15][16] and evaluated [17], so that the database is now reliable. However, for a critical check of the impurities associated with this process as well as for development of other possible production routes, further extensive nuclear data studies are necessary.…”

Section: Diagnostic Radionuclidesmentioning

confidence: 99%

Nuclear data for medical applications: An overview of present status and future needs

Syed

2017

EPJ Web Conf.

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Abstract.A brief overview of nuclear data required for medical applications is given. The major emphasis is on radionuclides for internal applications, both for diagnosis and therapy. The status of the presently available data is discussed and some of the emerging needs are outlined. Most of the needs are associated with the development of non-standard positron emitters and novel therapeutic radionuclides. Some new developments in application of radionuclides, e.g. theranostic approach, multimode imaging, radionanoparticles, etc. are described and the related nuclear data needs are discussed. The possible use of newer irradiation technologies for medical radionuclide production, e.g. intermediate energy charged-particle accelerators, high-power electron accelerators for photon production, and spallation neutron sources, will place heavy demands on nuclear data.

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Investigation of production routes for the 161Ho Auger-electron emitting radiolanthanide, a candidate for therapy

Cited by 17 publications

References 13 publications

Investigation of excitation functions of proton-induced reactions on $^{94,\, 96,\, 98,\, 100}$Mo targets for production of radioisotopes $^{94m,\, 94g,\, 96m,\, 96g,\, 96,\, 99m}$Tc

Investigation of excitation functions of proton-induced reactions on $^{94,\, 96,\, 98,\, 100}$Mo targets for production of radioisotopes $^{94m,\, 94g,\, 96m,\, 96g,\, 96,\, 99m}$Tc

Excitation functions of natPb(d,x) 206,205,204,203,202Bi, 203cum,202m,201cumPb and 202cum,201cumTl reactions up to 50 MeV

Nuclear data for medical applications: An overview of present status and future needs

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