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CERN-MEDICIS: A Review Since Commissioning in 2017

Authors :
Charlotte Duchemin
Joao P. Ramos
Thierry Stora
Essraa Ahmed
Elodie Aubert
Nadia Audouin
Ermanno Barbero
Vincent Barozier
Ana-Paula Bernardes
Philippe Bertreix
Aurore Boscher
Frank Bruchertseifer
Richard Catherall
Eric Chevallay
Pinelopi Christodoulou
Katerina Chrysalidis
Thomas E. Cocolios
Jeremie Comte
Bernard Crepieux
Matthieu Deschamps
Kristof Dockx
Alexandre Dorsival
Valentin N. Fedosseev
Pascal Fernier
Robert Formento-Cavaier
Safouane El Idrissi
Peter Ivanov
Vadim M. Gadelshin
Simone Gilardoni
Jean-Louis Grenard
Ferid Haddad
Reinhard Heinke
Benjamin Juif
Umair Khalid
Moazam Khan
Ulli Köster
Laura Lambert
G. Lilli
Giacomo Lunghi
Bruce A. Marsh
Yisel Martinez Palenzuela
Renata Martins
Stefano Marzari
Nabil Menaa
Nathalie Michel
Maxime Munos
Fabio Pozzi
Francesco Riccardi
Julien Riegert
Nicolas Riggaz
Jean-Yves Rinchet
Sebastian Rothe
Ben Russell
Christelle Saury
Thomas Schneider
Simon Stegemann
Zeynep Talip
Christian Theis
Julien Thiboud
Nicholas P. van der Meulen
Miranda van Stenis
Heinz Vincke
Joachim Vollaire
Nhat-Tan Vuong
Benjamin Webster
Klaus Wendt
Shane G. Wilkins
the CERN-MEDICIS collaboration
Source :
Frontiers in Medicine, Vol 8 (2021)
Publication Year :
2021
Publisher :
Frontiers Media S.A., 2021.

Abstract

The CERN-MEDICIS (MEDical Isotopes Collected from ISolde) facility has delivered its first radioactive ion beam at CERN (Switzerland) in December 2017 to support the research and development in nuclear medicine using non-conventional radionuclides. Since then, fourteen institutes, including CERN, have joined the collaboration to drive the scientific program of this unique installation and evaluate the needs of the community to improve the research in imaging, diagnostics, radiation therapy and personalized medicine. The facility has been built as an extension of the ISOLDE (Isotope Separator On Line DEvice) facility at CERN. Handling of open radioisotope sources is made possible thanks to its Radiological Controlled Area and laboratory. Targets are being irradiated by the 1.4 GeV proton beam delivered by the CERN Proton Synchrotron Booster (PSB) on a station placed between the High Resolution Separator (HRS) ISOLDE target station and its beam dump. Irradiated target materials are also received from external institutes to undergo mass separation at CERN-MEDICIS. All targets are handled via a remote handling system and exploited on a dedicated isotope separator beamline. To allow for the release and collection of a specific radionuclide of medical interest, each target is heated to temperatures of up to 2,300°C. The created ions are extracted and accelerated to an energy up to 60 kV, and the beam steered through an off-line sector field magnet mass separator. This is followed by the extraction of the radionuclide of interest through mass separation and its subsequent implantation into a collection foil. In addition, the MELISSA (MEDICIS Laser Ion Source Setup At CERN) laser laboratory, in service since April 2019, helps to increase the separation efficiency and the selectivity. After collection, the implanted radionuclides are dispatched to the biomedical research centers, participating in the CERN-MEDICIS collaboration, for Research & Development in imaging or treatment. Since its commissioning, the CERN-MEDICIS facility has provided its partner institutes with non-conventional medical radionuclides such as Tb-149, Tb-152, Tb-155, Sm-153, Tm-165, Tm-167, Er-169, Yb-175, and Ac-225 with a high specific activity. This article provides a review of the achievements and milestones of CERN-MEDICIS since it has produced its first radioactive isotope in December 2017, with a special focus on its most recent operation in 2020.

Details

Language :
English
ISSN :
2296858X
Volume :
8
Database :
Directory of Open Access Journals
Journal :
Frontiers in Medicine
Publication Type :
Academic Journal
Accession number :
edsdoj.bc36a50ef2ea4effa3c4fabc146732e3
Document Type :
article
Full Text :
https://doi.org/10.3389/fmed.2021.693682