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proceeding

A NEW PRODUCTION METHOD OF HIGH SPECIFIC ACTIVITY RADIONUCLIDES TOWARDS INNOVATIVE RADIOPHARMACEUTICALS: THE ISOLPHARM PROJECT

E. VettoratoUniversity of Padua , Department of Pharmaceutical Sciences (UNIPD-DSF) , Padova , ItalyL. MorselliNational Institute of Nuclear Physics , Legnaro National Laboratories (INFN-PV) , Legnaro (PD) , ItalyM. BallanNational Institute of Nuclear Physics , Legnaro National Laboratories (INFN-PV) , Legnaro (PD) , ItalyA. ArzentonUniversity of Siena , Department of Physical , Geological and Environmental Sciences ( UNISI-DSFTA) , Siena , ItalyOmorjit Singh KhwairakpamNational Institute of Nuclear Physics , Legnaro National Laboratories (INFN-PV) , Legnaro (PD) , ItalyM. VeronaUniversity of Padua , Department of Pharmaceutical Sciences (UNIPD-DSF) , Padova , ItalyD. ScarpaNational Institute of Nuclear Physics , Legnaro National Laboratories (INFN-PV) , Legnaro (PD) , ItalyS. CorradettiNational Institute of Nuclear Physics , Legnaro National Laboratories (INFN-PV) , Legnaro (PD) , ItalyP. CalicetiUniversity of Padua , Department of Pharmaceutical Sciences (UNIPD-DSF) , Padova , ItalyValerio Di MarcoUniversity of Padua, Department of Chemical Sciences (UNIPD-DiSC), Padova, ItalyFrancesca MastrottoUniversity of Padua , Department of Pharmaceutical Sciences (UNIPD-DSF) , Padova , ItalyG. MarzaroUniversity of Padua , Department of Pharmaceutical Sciences (UNIPD-DSF) , Padova , ItalyN. RealdonUniversity of Padua , Department of Pharmaceutical Sciences (UNIPD-DSF) , Padova , ItalyA. ZenoniUniversity of Brescia , Department of Mechanical and Industrial Engineering (DIMI-UNIBS) , Brescia , ItalyA. DonzellaUniversity of Brescia , Department of Mechanical and Industrial Engineering (DIMI-UNIBS) , Brescia , ItalyM. LunardonUniversity of Padua , Department of Physics and Astronomy (UNIPD-DFA) , Padova , ItalyL. ZangrandoNational Institute of Nuclear Physics , Padua Department (INFN-PD) , Padova , ItalyM. AstiRadiopharmaceutical Chemistry Section , Nuclear Medicine Unit , Reggio Emilia AUSL-IRCCS , Reggio Emilia , ItalyG. RussoNational Institute of Nuclear Physics , Southern National Laboratories (INFN-LNS) , Catania , ItalyE. MariottiUniversity of Siena , Department of Physical , Geological and Environmental Sciences ( UNISI-DSFTA) , Siena , ItalyDevid ManiglioNational Institute of Nuclear Physics , Trento Institute for Fundamental Physics and Applications (INFN-TIFPA) , Trento , ItalyA. AndrighettoNational Institute of Nuclear Physics , Legnaro National Laboratories (INFN-PV) , Legnaro (PD) , Italy
2022en
ABI

Annotatsiya

Radionuclides of interest in nuclear medicine are generally produced in cyclotrons or nuclear reactors, with associated issues such as highly enriched target costs and undesired contaminants.The ISOLPHARM project (ISOL technique for radioPHARMaceuticals) explores the feasibility of producing extremely high specific activity β -emitting radionuclides as radiopharmaceutical precursors.This technique is expected to produce radiopharmaceuticals very hardly obtained in standard production facilities.Radioactive isotopes will be obtained from nuclear reactions induced by accelerating 40 MeV protons in a cyclotron to collide on a UCx target.By means of: high working temperatures and high vacuum conditions, the migration of the radioactive elements towards an ion source, a potential difference up to 40 kV, and a mass separation device, an isobaric beam of desired radionuclides will be produced and implanted on a deposition target.The availability of innovative isotopes can potentially open a new generation of radiopharmaceuticals, based on nuclides never studied so far.Among these, a very promising isotope could be Ag-111, a β -emitter with a half-life (7.45 d), an average β -energy of 360 keV, a tissue penetration of around 1 mm, and a low percentage of γ-emission.The proof of principle studies on Ag-111 production and radiolabeling are currently under investigation in the ISOLPHARM_EIRA project, where both its production and possible application as a radiopharmaceutical precursor will be evaluated in its computational/physics, radiochemistry, and radiobiology tasks.Currently, innovative macromolecules meeting the specific requirements for the chelation and targeted delivery of Ag-111 are being developed, which will be further tested in vitro on 2D and 3D models, as well as in vivo for their pharmacokinetics and therapeutic potential onto xenograft models.

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