Comparison between Theoretical Calculation and Experimental Results of Excitation Functions for Production of Relevant Biomedical Radionuclides

The radionuclide production for biomedical applications has been brought up in the years, as a special nuclear application, at INFN LASA Laboratory, particularly in co‐operation with the JRC‐Ispra of EC. Mainly scientific aspects concerning radiation detection and the relevant instruments, the measurements of excitation functions of the involved nuclear reactions, the requested radiochemistry studies and further applications have been investigated. On the side of the nuclear data evaluations, based on nuclear model calculations and critically selected experimental data, the appropriate competence has been developed at ENEA Division for Advanced Physics Technologies. A series of high specific activity accelerator‐produced radionuclides in no‐carrier‐added (NCA) form, for uses in metabolic radiotherapy and for PET radiodiagnostics, are investigated. In this work, last revised measurements and model calculations are reviewed for excitation functions of ^natZn(d,X)⁶⁴Cu, ⁶⁶Ga reactions, referring to irradiation experiments at K=38 variable energy Cyclotron of JRC‐Ispra. Concerning the reaction data for producing ^186gRe and ²¹¹At/^211gPo (including significant emission spectra) and ²¹⁰At, most recent and critically selected experimental results are considered and discussed in comparison with model calculations paying special care to pre‐equilibrium effects estimate and to the appropriate overall parameterization. Model calculations are presented for ²²⁶Ra(p,2n)²²⁵Ac reaction, according to the working program of the ongoing IAEA CRP on the matter.